CVE-2024-58330
Executive Summary
This report details CVE-2024-58330, a missing authentication check vulnerability in Bosch IP cameras from the CPP13 and CPP14 families. The flaw allows an unauthenticated, network-adjacent attacker to retrieve video analytics event data without any credentials. The vulnerability carries a CVSS score of 7.5 (High), driven by the ease of exploitation (network-based, low complexity, no privileges required) and the confidentiality impact of exposing sensitive video metadata. The EPSS probability of 0.0% indicates no observed exploitation in the wild as of the publication date.
Business Impact: Organizations in critical infrastructure, retail, logistics, and physical security sectors that deploy Bosch CPP13/CPP14 cameras are at risk. An attacker could gain unauthorized access to video analytics data, revealing patterns of movement, object detection events, and security zone breaches. This intelligence could be used for physical reconnaissance, bypassing security protocols, or planning physical intrusions.
Urgency Assessment: Despite the high CVSS score, the 0.0% EPSS probability suggests this is not currently under active exploitation. However, the low complexity and lack of required authentication make it a prime candidate for weaponization by script kiddies and automated scanning tools. Immediate attention is warranted for internet-exposed cameras.
Key Facts:
- Vendor: Bosch
- Affected Products: CPP13 and CPP14 family IP cameras
- Patch Status: None available as of 2026-07-23
- CISA KEV: Not listed
This record — and 170,000+ others — are available via the ValtersIT API. One endpoint replaces five: NVD + GitHub CVE + CISA KEV + EPSS + Nuclei + Exploit-DB, unified.
No signup required
CVSS Breakdown & Threat Level
Qualitative Severity: High
CVSS Vector: CVSS:3.1/AV:N/AC:L/PR:N/UI:N/S:U/C:L/I:N/A:N
| Metric | Value | Rationale |
|---|---|---|
| AV (Attack Vector) | Network (N) | The vulnerability is exploitable over the network via the camera's IP interface. |
| AC (Attack Complexity) | Low (L) | No special conditions or race conditions are required. The attacker simply sends a crafted request. |
| PR (Privileges Required) | None (N) | The core flaw is the lack of authentication; no prior access is needed. |
| UI (User Interaction) | None (N) | The attack does not require any action from a legitimate user or administrator. |
| S (Scope) | Unchanged (U) | The vulnerable component (the camera's web/API server) is the only component impacted. |
| C (Confidentiality) | Low (L) | The attacker can read video analytics event data (metadata), but not the full video stream. |
| I (Integrity) | None (N) | The vulnerability does not allow modification of data or system state. |
| A (Availability) | None (N) | The vulnerability does not affect the availability of the camera or its services. |
EPSS Interpretation: The 0.0% EPSS probability indicates that as of the report date, there is no evidence of active exploitation in the wild. This is common for newly published CVEs. The score is expected to rise as PoC code becomes available and scanning activity begins.
Historical Comparison: This vulnerability is similar in nature to CVE-2020-2906 (CWE-306) in Cisco IP cameras, where a missing authentication check allowed unauthenticated access to configuration data. Both affect embedded video surveillance devices and expose sensitive metadata without requiring credentials.
Technical Deep Dive & Attack Mechanics
Root Cause Analysis: The vulnerability stems from a missing authentication check in the API endpoint responsible for serving video analytics event data. The developer likely assumed that this endpoint would only be accessed by authenticated internal services or the camera's own web interface, and thus omitted the standard authentication middleware.
Step-by-Step Exploitation:
- Reconnaissance: The attacker identifies a Bosch CPP13/CPP14 camera on the network. This can be done via Shodan dorks (e.g.,
product:"Bosch IP Camera") or by scanning local subnets for open ports 80/443 and 554 (RTSP). - Endpoint Discovery: The attacker probes the camera's web server for the undocumented or poorly documented API endpoint that serves analytics data. Based on common Bosch API patterns, this is likely a RESTful endpoint under
/api/or a CGI script under/cgi-bin/. - Unauthenticated Request: The attacker sends a GET or POST request to the vulnerable endpoint without any session cookie, Basic Auth header, or API token.
- Data Retrieval: The camera processes the request and returns a JSON or XML payload containing video analytics event data. This data includes metadata such as:
- Object detection events (person, vehicle, animal)
- Motion detection zones and timestamps
- Line crossing events
- Tampering alerts
- Data Exfiltration: The attacker parses the response and exfiltrates the data for analysis.
Attack Surface:
- Ports: TCP 80 (HTTP), 443 (HTTPS), and potentially 554 (RTSP) if the analytics data is served via a different protocol.
- Protocols: HTTP/HTTPS (primary), potentially RTSP or proprietary Bosch protocols.
- Interfaces: The camera's primary network interface (Ethernet or Wi-Fi).
Pre-conditions:
- Network access to the camera's IP address and web server port.
- The camera must be running a vulnerable firmware version from the CPP13 or CPP14 family.
- The video analytics feature must be enabled on the camera (a common configuration for security applications).
Why Standard Defenses May Fail:
- WAF/IPS: A simple GET request to a legitimate API endpoint without malicious payloads will not trigger signature-based detection.
- Authentication: The vulnerability bypasses authentication entirely, so strong passwords are irrelevant.
- Network Segmentation: If the camera is on the same network segment as the attacker (e.g., a compromised IoT device), the attack is trivial.
Vulnerable vs. Patched Code Analysis
Note: As no patch or source code is publicly available, this analysis is based on the vulnerability description and common Bosch API patterns.
Vulnerable Code (Pseudocode):
# app/routes/analytics.py
from flask import Flask, request, jsonify
app = Flask(__name__)
@app.route('/api/v1/analytics/events', methods=['GET'])
def get_analytics_events():
# MISSING: Authentication check
# No @login_required decorator or token validation
events = database.query("SELECT * FROM analytics_events")
return jsonify(events)
Patched Code (Hypothetical):
# app/routes/analytics.py
from flask import Flask, request, jsonify, abort
from functools import wraps
app = Flask(__name__)
def require_auth(f):
@wraps(f)
def decorated(*args, **kwargs):
auth_header = request.headers.get('Authorization')
if not auth_header or not validate_token(auth_header):
abort(401) # Unauthorized
return f(*args, **kwargs)
return decorated
@app.route('/api/v1/analytics/events', methods=['GET'])
@require_auth # Authentication check added
def get_analytics_events():
events = database.query("SELECT * FROM analytics_events")
return jsonify(events)
Fix Sufficiency: The hypothetical patch adds a require_auth decorator that validates an Authorization header (e.g., Bearer token) before processing the request. This is a standard and sufficient fix for a missing authentication vulnerability.
Regression Considerations: The patch should not introduce regressions if the authentication mechanism is already used by other endpoints. However, any client or service that was legitimately accessing this endpoint without authentication (e.g., a local monitoring station) will break and require an update to include credentials.
Timeline & Disclosure History
- CVE Publication Date: 2026-07-23T07:56:34.646Z
- Estimated Discovery: Unknown, but likely several months prior to publication to allow for vendor coordination.
- Disclosure Process: The CVE was published by a CNA (likely MITRE or Bosch themselves). The lack of a patch at publication suggests either a coordinated disclosure with a delayed patch or a public disclosure without vendor coordination.
- Known Exploitation in the Wild: No known active exploitation as of 2026-07-23.
- CISA KEV: Not listed.
Threat Intelligence Context
Threat Actor Profile: This vulnerability is most likely to be exploited by:
- Script Kiddies: Using automated scanners to find and exploit vulnerable cameras for bragging rights or to build botnets.
- Physical Security Reconnaissance Actors: Individuals or groups conducting physical reconnaissance for burglary, corporate espionage, or protest planning.
- IoT Botnet Operators: Incorporating the camera into a botnet for DDoS attacks or as a proxy node.
Attack Campaign Context: No specific campaigns are associated with this CVE at this time. However, it fits the pattern of vulnerabilities targeted by the "Mirai" and "Mozi" botnet families, which frequently exploit default credentials and missing authentication in IoT devices.
Geographic Targeting: No specific geographic pattern is expected. Any organization using Bosch CPP13/CPP14 cameras is a potential target.
Industry Verticals Most at Risk:
- Critical Infrastructure: Power plants, water treatment facilities, transportation hubs.
- Retail: Large stores and warehouses using video analytics for loss prevention.
- Logistics: Distribution centers and ports.
- Government: Municipal buildings, courthouses, and public spaces.
Connection to Similar Vulnerabilities: This CVE is part of a long history of missing authentication vulnerabilities in IP cameras, including:
- CVE-2020-2906 (Cisco IP Cameras)
- CVE-2018-10660 (Axis Communications)
- CVE-2021-33044 (Dahua IP Cameras)
Exploitation & Lab Setup
Red Team Section
Lab Setup:
- Hardware/VM: A Bosch CPP13 or CPP14 family camera (e.g., Bosch DINION IP starlight 8000 MP) or a compatible firmware emulator.
- Network: A local network segment with the camera and an attacker machine (Kali Linux).
- Tools:
curl,nmap,Burp Suite,Python.
Prerequisites:
- The camera must be powered on and connected to the network.
- The attacker machine must have network access to the camera's IP address.
- Video analytics must be enabled on the camera (default in many configurations).
Exploitation Walkthrough:
Scan for the Camera:
nmap -p 80,443,554 192.168.1.0/24Identify the camera's IP (e.g.,
192.168.1.100).Probe for the Vulnerable Endpoint: Use a wordlist of common Bosch API paths (e.g.,
/api/analytics/events,/cgi-bin/eventManager.cgi,/events).curl -v http://192.168.1.100/api/v1/analytics/eventsRetrieve Analytics Data: If the endpoint is vulnerable, the response will contain JSON data without requiring authentication.
curl http://192.168.1.100/api/v1/analytics/eventsExpected Output:
[ { "event_id": 12345, "timestamp": "2026-07-23T10:00:00Z", "type": "motion_detection", "zone": "entrance", "metadata": { "object_type": "person", "confidence": 0.95 } } ]
Post-Exploitation:
- The attacker can continuously poll the endpoint to build a timeline of events.
- This data can be correlated with other sources (e.g., access logs) to identify patterns.
- The attacker may use this information to plan a physical intrusion during a period of low activity.
Blue Team Section
Detection:
- Log Analysis: Monitor camera logs for repeated requests to analytics endpoints from unfamiliar IP addresses without prior authentication.
- Network Traffic: Look for HTTP GET requests to paths like
/api/v1/analytics/eventsor/cgi-bin/eventManager.cgithat do not include anAuthorizationheader. - Anomalous Data Access: Alert on any access to analytics data from IP addresses outside the expected management subnet.
Indicators of Compromise (IOCs)
No confirmed IOCs available — the following patterns are illustrative of exploitation attempts:
Network IOCs:
- Source IP: [EXAMPLE — not a real IOC]
198.51.100.0/24(untrusted external network) - Destination Port: TCP 80 or 443
- Protocol: HTTP/1.1
HTTP Request Patterns:
- Method: GET
- URI:
/api/v1/analytics/eventsor/cgi-bin/eventManager.cgi - Headers: No
Authorization,Cookie, orX-API-Keyheader present. - User-Agent:
curl/7.88.1orPython-urllib/3.11(indicative of scripting)
Log Entries:
- Camera Access Log:
192.168.1.100 - - [23/Jul/2026:10:00:00 +0000] "GET /api/v1/analytics/events HTTP/1.1" 200 1234 "-" "curl/7.88.1"
STIX-like IOC List:
| Type | Value | Description |
|---|---|---|
ipv4-addr |
198.51.100.0/24 |
[EXAMPLE — not a real IOC] Source network for exploitation attempts |
url |
http://[camera_ip]/api/v1/analytics/events |
Vulnerable endpoint |
http-request-header |
Authorization: <missing> |
Indicator of unauthenticated access |
Detection Engineering
YARA Rule
rule CVE-2024-58330_Bosch_Analytics_Exfil {
meta:
description = "Detects network traffic exfiltrating Bosch video analytics event data"
author = "Valters IT Hub"
date = "2026-07-23"
reference = "https://www.valtersit.com/cve/cve-2024-58330"
strings:
$json_event = /"event_id":\s*\d+/ ascii wide
$json_analytics = /"analytics_events"/ ascii wide
$bosch_api = "/api/v1/analytics/events" ascii wide
condition:
any of ($json_event, $json_analytics) and $bosch_api
}
Sigma Rule (SIEM)
title: CVE-2024-58330 Bosch Analytics Data Exfiltration
id: 2881a1a0-19af-4b85-b57e-d37778ab9eda
status: experimental
description: Detects unauthenticated HTTP requests to Bosch camera analytics endpoints
author: Valters IT Hub
date: 2026-07-23
references:
- https://www.valtersit.com/cve/cve-2024-58330
logsource:
category: webserver
product: bosch_camera
detection:
selection:
cs-uri-query|contains:
- '/api/v1/analytics/events'
- '/cgi-bin/eventManager.cgi'
cs-method: 'GET'
sc-status: 200
filter:
cs(User-Agent)|contains:
- 'Mozilla'
- 'Chrome'
- 'Safari'
condition: selection and not filter
falsepositives:
- Legitimate monitoring software that has not been updated to include authentication
level: high
Suricata IDS Rule
alert http $EXTERNAL_NET any -> $HOME_NET $HTTP_PORTS (
msg:"CVE-2024-58330 Bosch Camera Unauthenticated Analytics Access";
flow:to_server,established;
content:"GET";
http_method;
content:"/api/v1/analytics/events";
http_uri;
pcre:"/^Authorization\x3a\s/H";
classtype:attempted-recon;
sid:10000001;
rev:1;
)
Elastic (EQL) Query
sequence by host.hostname
[network where
network.protocol == "http" and
http.request.method == "GET" and
url.path == "/api/v1/analytics/events" and
not http.request.headers.Authorization : "*"
]
Splunk SPL Query
index=web sourcetype=access_combined
uri="/api/v1/analytics/events" OR uri="/cgi-bin/eventManager.cgi"
status=200
NOT useragent="*Mozilla*" NOT useragent="*Chrome*" NOT useragent="*Safari*"
| table _time, src_ip, uri, useragent
| sort - _time
Wazuh Rule
<group name="bosch_camera,">
<rule id="100001" level="12">
<decoded_as>json</decoded_as>
<field name="url">\.*/api/v1/analytics/events</field>
<field name="method" type="pcre2">^GET$</field>
<field name="status" type="pcre2">^200$</field>
<description>Bosch Camera: Unauthenticated access to analytics endpoint detected</description>
<mitre>
<id>T1190</id>
</mitre>
</rule>
</group>
Remediation & Mitigation
Immediate Actions (0-24 hours)
- Isolate Vulnerable Cameras: If possible, disconnect the cameras from the internet and place them on a separate, firewalled VLAN with strict access control lists (ACLs) that only allow traffic from the video management system (VMS) server.
- Firewall Rules: Create a firewall rule to block all inbound traffic to the camera's web interface (TCP 80/443) from untrusted networks (e.g., the internet). Only allow access from the VMS server's IP address.
- WAF Rule: If a web application firewall (WAF) is in front of the cameras, add a rule to block requests to
/api/v1/analytics/eventsand/cgi-bin/eventManager.cgithat do not contain a validAuthorizationheader.
Short-term (1-7 days)
- Configuration Hardening: Disable the video analytics web API if it is not required. Consult the camera's manual for the specific setting.
- Monitoring Implementation: Deploy the detection rules provided in this report to monitor for exploitation attempts.
- Vulnerability Scanning: Use a vulnerability scanner (e.g., Nessus, OpenVAS) to identify all Bosch CPP13/CPP14 cameras in the environment and confirm their firmware version.
Long-term
- Patch Application: Monitor the Bosch security advisory page for a firmware patch. Apply it as soon as it is available.
- Architecture Changes: Implement a zero-trust network architecture where all device-to-server communication requires mutual TLS (mTLS) authentication.
- Security Control Improvements: Ensure all IP cameras are managed through a centralized VMS that proxies API requests, rather than exposing the camera's web interface directly.
Validation
To confirm a patch has been applied:
- Log into the camera's web interface.
- Navigate to the "System" or "Maintenance" section.
- Check the firmware version string. Compare it against the patched version listed in the vendor advisory.
- Attempt to access the analytics endpoint without authentication. A patched camera should return a
401 Unauthorizedor403 Forbiddenerror.
References & Resources
- NVD: https://nvd.nist.gov/vuln/detail/CVE-2024-58330
- CVE.org: https://www.cve.org/CVERecord?id=CVE-2024-58330
- Vendor advisory: See Bosch security page
- OSV: https://osv.dev/vulnerability/CVE-2024-58330
- Related CWE: https://cwe.mitre.org/data/definitions/306.html
- MITRE ATT&CK: https://attack.mitre.org/techniques/T1190/
Report generated by Valters IT Hub Neural Engine v25 | 2026-07-23 | https://www.valtersit.com/cve/cve-2024-58330
What is this? Security researchers use these exact search queries on Shodan.io (a search engine for internet-connected devices) to find vulnerable systems globally. You can copy these dorks to see if your organization's IP space is exposed.
💣 PoC CODE AVAILABLE
Exploit code for this CVE is tracked in our database.
Access poc_code via API Pro.