Integrated Policing in Critical Infrastructure Protection: Bridging Intelligence and Field Operations

The American Journal of Political Science Law and Criminology

206

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TYPE

Original Research

PAGE NO.

206-215

DOI

10.37547/tajpslc/Volume07Issue05-22

OPEN ACCESS

SUBMITED

11 March 2025

ACCEPTED

05 April 2025

PUBLISHED

24 May 2025

VOLUME

Vol.07 Issue05 2025

CITATION

Ahmed Abuelfadl Ahmed Haridy. (2025). Integrated Policing in Critical
Infrastructure Protection: Bridging Intelligence and Field Operations.
The American Journal of Political Science Law and Criminology, 7(05),
206

–

215. https://doi.org/10.37547/tajpslc/Volume07Issue05-22.

COPYRIGHT

© 2025 Original content from this work may be used under the terms
of the creative commons attributes 4.0 License.

Integrated Policing
in Critical
Infrastructure
Protection: Bridging
Intelligence and
Field Operations

Ahmed Abuelfadl Ahmed Haridy

Police Officer, The Ministry of Interior of Egypt New Brunswick, NJ

Abstract:

This

article

examines

contemporary

challenges in protecting critical infrastructure, driven by

the rapid growth of “hybrid” cyber

-physical attacks and

chronic gaps in intelligence sharing between strategic
analysts and field response teams. The study aims to
analyze existing legal and regulatory frameworks in the
United States and the European Union, assess the

technological capabilities of a “digital twin” of CNI

assets, and identify key barriers to translating threat
analyses into on-site operational actions. The relevance
of this work is underscored by statistics from Europol,
KnowBe4, Check Point, and NERC reporting hundreds of
millions of cyberattacks and thousands of physical
incidents per year, as well as high-profile cases such as
Colonial Pipeline and Moore County, which exposed
critical communication failures between the intelligence
community and asset operators. The novelty of the
research lies in an interdisciplinary comparison of the
paradigms of problem-oriented policing, intelligence-
led policing, and the all-hazards approach with current
technological and regulatory realities, including ISA/IEC
62443 standards, the Zero Trust protocol, and the STIX
2.1 format for alert exchange. Thus, the main technical
and legal barriers to bringing intelligence data into field
operations have been pinpointed, and the efficacy of a
sync exchange approach has been demonstrated

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through cases from the Port of Rotterdam, Capital Shield
program, and Cyberabwehr Bayern, where timely
delivery of analytics saw average response times go from
days to hours. It proposes unifying procedures and
exchange protocols as a foundation for increased
coordination among varied services in critical
infrastructure protection. This work will benefit
developers of state security infrastructure, cyber and
physical protection specialists, and fusion-center
analysts.

Keywords:

critical infrastructure, hybrid threats,

intelligence data, field response, legal and regulatory
frameworks, digital twin, Zero Trust, STIX 2.1,
intelligence-led policing.

Introduction:

Hybrid threats are not simply a

combination of a cyberattack and sabotage; today, they
constitute a resilient ecosystem in which state
intelligence services employ criminal networks as
proxies to sabotage pipelines, ports, and power grids,
while formally denying involvement. In its annual threat
assessment, Europol highlights a sharp rise in such

“tandem” operations: by 2025, the number of sabotage

-

type incidents in the EU had grown so significantly that
the agency speaks, for the first

time, of a “shadow

coalition” between criminal groups and foreign

intelligence services targeting critical infrastructure [1].

The magnitude of the problem is measured in hundreds
of millions of intrusion attempts. Analysis [2] records
more than 420 million attacks on CNI assets over just 12
months (January 2023

–

January 2024)

—

equivalent to 13

attacks per second and representing a 30% increase over
2022; since 2020, the weekly number of attacks on
energy companies has quadrupled. Check Point
Research reports a 70% surge in the United States alone:
in 2024, the average reached 1,162 attacks per utility
company versus 689 the previous year [3]. Meanwhile,
the NERC regulator logs roughly 60 new vulnerabilities in
the power system each day: by the end of 2024 there
were 23

–

24 thousand, up from 21

–

22 thousand a year

earlier, while physical attacks on substations remain at
about 2 800 cases, of which 3% result in actual outages
[4]. Tactically, a cyber penetration into SCADA enables
precise targeting, and a subsequent physical strike
ensures disconnection.

Against this backdrop, the gap between strategic
intelligence and tactical response is especially acute. A
textbook example is the attack on Colonial Pipeline [5].
Within hours, the FBI forwarded data to CISA. Yet, the
company did not liaise directly with the agency: analysts
obtained technical details only via third-party channels,
forcing field teams to operate blindly, lengthening the

pipeline’s downtime, and triggering a fuel crisis on the

US East Coast. This information vacuum between the
federal level and the asset operator demonstrates that
gathering intelligence does not automatically translate
into actionable instructions for first responders.

A similar failure occurred in the physical domain. In
December 2022, unknown assailants shot two
distribution nodes in Moore County, North Carolina,
leaving 45,000 households without power. The local

sheriff acknowledged that the perpetrators “knew
exactly where to shoot,” while federal agencies joined

the investigation only post hoc. As experts probed the

attackers’ motivations, repair crews spent five days

restoring equipment, and the state governor spoke of a

“qualitatively new level of threat” [6]. Again, the

intelligence community collected extensive data on
potential radicalization and target selection, yet
transferring this analysis to district patrols and
substation guards remained unregulated.

Thus, the quantitative surge in cyber-physical attacks
and breakdown of qualitative information exchange
constitute a dual challenge. The following sections
examine the US and EU regulatory frameworks, the

technological architecture of the CNI “digital twin,” and

propose an integrated IP-

CIP model designed to “stitch”

intelligence and field operations into a seamless cycle of
detection, assessment, and immediate response.

MATERIALS AND METHODOLOGY

The study of an integrated policing approach to critical
infrastructure

protection

is

grounded

in

an

interdisciplinary analysis of twenty-seven sources. The
primary empirical foun

dation comprised Europol’s

annual reports on hybrid threats [1], the KnowBe4
report on cyberattacks against CNI assets [2], Check
Point Research studies on the escalation of attacks on
US utility networks [3], and NERC statistics on new
vulnerabilities and physical incidents in the power
system [4]. To illustrate practical rifts between analytics

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and response, the case studies of Colonial Pipeline [5]
and the Moore County, North Carolina incident [6] were
examined.

Methodologically, the research proceeded through
several complementary stages. First, a comparative
analysis of quantitative data

—

from the number and

growth rates of CNI attacks to grid vulnerability
metrics

—

was conducted to gauge the scale of current

risks and trace the dynamics of cyber-physical attack
integration. Second, a systematic review of classical
policing paradigms was performed: problem-oriented
policing [8], intelligence-led policing and the evolution of
the fusion center network in the United States [9], and
the all-hazards approach to civil protection [10], aiming
to compare their strengths and limitations in addressing
novel threat types. The third stage entailed a legal and
regulatory examination: analysis of National Security
Memorandum NSM-

CIP and the updated DHS “Fusion

Center Fo

undational Guidance” on intelligence sharing

with CNI operators [11,9], JCDC priorities for joint cyber-
and physical defense [12], EU Directive 2022/2557 and

the ProtectEU strategy [13,14], as well as Europol’s

programme documents on expedited interstate data
exchange [14]. Special attention was given to safety
standards (ISA/IEC 62443) and Zero Trust protocols for
secure alert delivery in STIX 2.1 format [16,17].

Finally, a cross-analysis was performed to assess the
integrated IP-CIP model: juxtaposing digital-twin
characteristics (market size, growth trajectories, and
architectural requirements [15]) with the analytical,
tactical, and regulatory components outlined above.
This enabled the formulation of a closed loop

—

Detect,

Assess, Respond, Feedback

—

where protocol efficacy is

measured by reducing mean time to detect (MTTD) and
mean time to respond (MTTR) from days to hours.

RESULTS AND DISCUSSION

The perimeter security model, which coalesced in the
1960s around nuclear facilities and large power plants,
consisted of high fences, low-resolution video cameras,
and guard posts. Reliance was placed on physical
isolation and, as the U.S. Department of Energy report

acknowledges, on “security through obscurity”: each

plant employed a proprietary SCADA stack, so it was
assumed attackers would find it challenging to prepare
an effective strike [7]. This approach was sufficient while

threats remained linear and localized, but it offered no
solution when an attack unfolded simultaneously in
both the cyber and physical domains.

In the 1970s, the problem of “blind” security prompted

law enforcement to reevaluate analytically. The concept
of problem-oriented policing (POP), articulated by
Herman Goldstein, proposed viewing each incident as a
symptom of offender behavior

and seeking the “root

cause,” rather than merely patrolling a perimeter. While

this method yielded strong results in combating street
crime, it lacked the tools to integrate with CNI
technological systems: officers received statistics only
retrospectively and seldom exchanged data with facility
technical staff.

After the September 11, 2001, attacks, focus shifted to
intelligence-led policing (ILP). First institutionalized in

the United Kingdom and detailed in the BJA guide “The
New Intelligence Architecture,” ILP advocated building

operations around analytical products rather than patrol

schedules [8]. In the U.S., ILP’s development was

accompanied by creating a network of fusion centers: by
2008, about fifty nodes had been deployed, funded with
over USD 130 million from the federal budget [9].

Concurrently, the all-hazards approach took hold in civil
protection, requiring preparedness for any threat, from
hurricanes to cyberattacks. This doctrine broadened the
threat spectrum but was criticized for excessive
generality, complicating prioritization and increasing the

risk of overreach in citizens’ data collection [10]. Thus,

by mid-2010s, a triadic landscape had emerged: POP
provided qualitative local analysis, ILP delivered a
strategic overview, and the all-hazards approach
enabled comprehensive planning

—

yet none offered a

streamlined channel capable of providing real-time
intelligence to a mobile response team at the asset.

The rationale for transitioning to an integrated IP-CIP
model arises from this unfilled gap. IP-

CIP adopts ILP’s

centralized risk-assessment sy

stem, POP’s focus on a

specific asset and its socio-technical context, and the all-

hazards approach’s capacity to address a broad threat

spectrum. Its novel layer is the digital twin of the CNI,
into which SCADA telemetry, fusion-center data, and
patrol reports converge. This architecture enables two-
way communication: strategy is informed by big data,
while tactics update strategy via a feedback channel

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within minutes, thus eliminating the historical
disconnect between analysts and first responders.

In the United States, a unified critical-infrastructure
protection framework was established by the National
Security Memorandum on Critical Infrastructure
Protection (NSM-CIP), signed on 30 April 2024; the
document for the first time obligates the intelligence
community to transmit relevant data directly to asset
owners and operators, and requires each of the 16 CNI
sectors to submit annual risk-management plans
compatible with DHS assessment matrices [11]. Further
to the memorandum, the Department of Homeland
S

ecurity in the same year updated its “Fusion Center

Foundational Guidance”: annexes now describe a

dedicated analytical module for CNI protection and a
minimum set of procedures that states must implement
to ensure end-to-end alarm transmission from fusion
centers to field officers. Simultaneously, CISA elevated
the Joint Cyber Defense Collaborative (JCDC) to

“operational hub” status; its 2024 priorities explicitly

mandate that all joint-defense scenarios cover OT

segments and account for “new risks arising

from the

deployment of cloud-

based SCADA solutions” [12]. Thus,

the U.S. regulatory continuum from strategic to tactical
levels establishes a single line of authority, while
imposing stringent requirements on the data-recipient

systems’ technical compatib

ility

—

a challenge for

regional operators managing heterogeneous device
portfolios.

Within the European Union, Directive (EU) 2022/2557
(CER) occupies the central role, obligating Member
States by October 2024 to adopt national resilience
strategies and conduct periodic stress tests across
energy, transport, water, and digital infrastructure
sectors [13]. Politically, the directive is supplemented by
the ProtectEU strategy, presented on 1 April 2025, which
ranks

CNI

protection

and

hybrid-threat

countermeasures as the EU's second most crucial
internal-security priority. Europol serves as the practical

“node” for these efforts: in its 2024–

2026 programme

document, the agency announced the expansion of its
analytical platform for accelerated intelligence sharing
with national centers and sectoral SOCs, particularly in
energy and maritime port domains [14]. This
configuration enables horizontal exchange between
Member States but burdens incident-classification
standardization, as each country may introduce
additional secrecy levels.

Legal conflicts impede synchronization of the U.S. and

EU schemes. The EU’s General Data Protection

Regulation (GDPR) mandates minimization and
localization of personal data. In contrast, the U.S. CLOUD
Act grants American authorities the right to request data
from cloud providers irrespective of physical storage
location. Both regimes apply concurrently when a CNI
operator employs a transnational cloud SOC, creating
legal uncertainty and potential delays in log
transmission, which are critical for rapid response. In
light of the growing number of cyber-physical attacks,

this “jurisdictional interface” becomes not merely a legal

debate but a recovery-time risk factor. The integrated
IP-CIP model proposed herein assumes that technical
data-exchange protocols must be complemented by
transparent bilateral agreements on jurisdiction and
data-classification

schemes,

so

that

strategic

intelligence in the U.S. can interface without delay with
tactical response in Europe, and vice versa.

The digital twin underpins the integrated architecture: a
synchronous model of SCADA equipment and the field-
sensor layer, overlaid on a 3D-GIS site map. According to
[15], the global market for such solutions reached USD
24.97 billion in 2024, with a compound annual growth
rate of 34.2%, as illustrated in Figure 1.

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Fig. 1. Digital Twin Market Growth [15]

Data streams converge in the fusion center. The updated

“Fusion Center Foundational Guidance” requires each

state to deploy a specialized analytical module for
critical infrastructure and issue alerts in STIX 2.1 format

via an MQ bus directly to officers’ mobile terminals.

Transmission follows a Zero Trust architecture codified
in ISA/IEC 62443, which prescribes zone-conduit
segmentation

of

OT

networks

and

device-

authentication procedures [16].

Fig. 2. Zero Trust Framework [17]

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The “Secure

-by-

Design” principle reinforces the security

layer, an initiative supported by major vendors and
coordinated by CISA. Concurrently, the JCDC-2024
program prioritizes OT segments and small operators to

“raise the baseline cybersecurity level of

critical

infrastructure.”

The

IP-CIP

conceptual

framework

organizes

technologies into a Detect

–

Assess

–

Respond

–

Feedback

cycle. The digital twin detects an anomaly; the fusion
center enriches it with external intelligence in seconds
and, via 5G MEC or a backup satellite link, forwards an

alert package to the response team, comprising a “twin”

officer, the facility engineer, and private security if
required. After incident resolution, video and action logs
return to analytics to refine the detection models. Core

metrics are mean time to detect (MTTD) and mean time
to respond (MTTR). For comparison, median dwell time
remains nine days according to [18], dropping to five
days in internally discovered cases. IP-

CIP’s objective is

to shift MTTD and MTTR from days to hours by creating
a closed loop in which intelligence and field operations
continuously feed one another, thereby closing the
historical gap between strategic analysis and on-site
tactics.

The sharp increase in cyber-physical load on operational
networks renders algorithmic speed a critical resource:
a report [19] indicates that ransomware incidents
targeting the industrial sector rose to 1,693, an 87%
year-over-year increase (Figure 3).

Fig. 3. Ransomware Incidents in Different Sectors [19]

To avoid being overwhelmed by telemetry, major
operators are adopting machine-learning ensembles
that detect deviations in Modbus or DNP3 traffic and
immediately cross-check them against physical-sensor
readings; in pilot projects, these models reduce average
detection time to seconds and yield graph-NLP data
capable of forecasting near-term attacks by linking APT-
group TTPs with vulnerable assets.

The practical utility of AI depends directly on human
trust in the field. A study on explainable AI in
cybersecurity demonstrates that adding interpretable

layers to detectors reduces false alarms and increases

operators’

willingness

to

act

on

system

recommendations, because the precise features driving

an algorithm’s conclusion become visible [20].

Transparency, rather than maximum accuracy, thus
becomes the principal condition for fusion-center
intelligence to translate into patrol-level action within
minutes. Even with ideal protocols, personnel training

remains decisive. The concept of the “twin officer,”

combining cyber-analyst and tactical-team skills,
receives financial support via the State & Local

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Cybersecurity Grant Program. In 2024 alone, USD 279.9
million was allocated for training and VR simulators, and
applications submitted by CNI-operator consortia
receive priority [21]. Thus, predictive analytics,
standardized exchange channels, and skilled human
resources converge into a unified operational fabric,
eliminating

the

longstanding

divide

between

intelligence and on-site response.

Three case studies illustrate how the intelligence

–

field

principle functions across CNI scales. In the Port of
Rotterdam, the adoption of unmanned aerial patrols
served as a catalyst: a U-Space prototype enables the
port dispatcher to task UAVs in real time to coordinates
obtained from SCADA sensors and AIS messages,
reducing the incident detection

–

confirmation cycle

almost to flight time

—

the Avy Aera network

automatically launches 30 seconds after trigger and
provides high-resolution stabilized video to the
inspector before a patrol boat can cast off [22]. A by-
product was logistical optimization: by integrating
telemetry streams with the PortXchange platform,
average container-ship idle time at berth fell by 30%,
indicating that a unified digital picture benefits security
and efficiency [23].

“Capital Shield,” the District of Columbia’s upgraded

fusion-center configuration, illustrates how DHS
regulations become a technical bus. Operating 24/7, the
center integrates situational analysts, the transport-
dispatch node, and federal officers, enabling immediate
correlation of cyber and physical anomalies at the

capital’s energy and transport assets [24]. Since 2024,
most cyber indicators arrive via CISA’s AIS

-2.0 service,

and the routing algorithm automatically packages them
into machine-readable formats for police mobile
terminals, eliminating prior information loss when over
half of the 55,609 active HSIN accounts went unused for
months [25].

The Bavarian power grid demonstrates a regional
integration variant. The Cyberabwehr Bayern platform
unites the police directorate, the Office for the
Protection of the Constitution, the Landesamt für
Sicherheit in der IT, and network operators to form a

unified cyber “Lagebild,” which automatically feeds duty
shifts in the NOCs and SOCs of the state’s lar

gest

distribution networks [26]. The BSI report confirms
relevance: in the 12 months to June 2023, one-third of

Germany’s 99 energy

-sector incidents occurred in

Bavaria, prompting the region to accelerate end-to-end
event

handling

from

substation

detector

to

Landeskriminalamt response team [27]. The outcome
was the establishment of standard procedures. After the

SOC’s automated anomaly correlator generates an
electronic “Steckbrief,” it is transmitted promptly to the

Vorgangsbearbeitung police system and technical
telemetry, which only NOC engineers can mitigate. This
regime minimizes coordination delays and cements the

police’s role as coordinator rather than network

-

equipment operator.

Comparison reveals the typical benefits and constraints
of the integrated model. The Dutch port achieved the
most tremendous responsiveness gains through

“sensor–drone” automation, but practice transferability

is limited by airspace regulation and capital intensity.
The U.S. case underscores that, without a uniform data
format,

even

the

most

advanced

federated

infrastructure stalls: the principal barrier proved not to
be technology but user habits. The Bavarian example
highlights the importance of a legal framework:
platform-based intelligence exchange is feasible only
where police, regulators, and private operators have
pre-agreed

on

real-time

decision-making

responsibilities.

These observations confirm the article’s thesis: an

integrated policing model becomes viable when tactical
communication channels, legal regulations, and data
architecture are designed as a cohesive whole, rather
than retrofitted onto one another post hoc.

CONCLUSION

This study has demonstrated the pressing need to bridge
the historical gap between strategic intelligence and
tactical response in critical-infrastructure protection.
Combining cyberattacks with physical sabotage,
contemporary hybrid threats create a complex
ecosystem in which criminal networks and state

intelligence services may coordinate as “shadow
coalitions.” The scale of these threats is evidenced by

statistics reporting hundreds of millions of intrusion
attempts and the daily emergence of dozens of new
vulnerabilities, underscoring the limited efficacy of
traditional perimeter security models and fragmented
analytical and data-exchange approaches.

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The integrated IP-CIP model proposed herein merges
the strengths of problem-oriented policing, intelligence-
led policing, and the all-hazards approach, augmenting
them with a digital twin of the asset. This architecture
delivers

a

continuous

Detect

–

Assess

–

Respond

–

Feedback cycle. SCADA telemetry, fusion-center
analytical products, and field-team reports converge
into a single system and are instantly relayed to
operational units. Using the Zero Trust protocol and
ISA/IEC 62443 standard ensures secure STIX 2.1 alert
exchange; machine learning and explainable AI
technologies will minimize detection time and false
positives.

One

significant

factor

for

successful

IP-CIP

implementation is having a strong regulatory div and
harmonizing steps at the international level. The U.S.
NSM-CIP and up-to-date Fusion Center Foundational
Guidance ensure intelligence is sent straight to CNI
owners. Similarly, EU Directive 2022/2557 and the
ProtectEU strategy facilitate horizontal information
sharing among Member States. Yet differences between
GDPR and CLOUD Act laws clearly show the need for
bilateral agreements on matters of jurisdiction and data-
classification schemes to ensure operational agility and
legal clarity when working cross-border.

The real-world examples

—

from drone flights in the

Rotterdam port to linking Capital Shield with the
Cyberabwehr Bayern platform at a regional level

—

show

that combining tech, clear comms channels, and expert
people can reduce the time taken to find out about an
issue and act on it from days to hours. Thus, the IP-CIP
integrated policing model constitutes a viable
operational

framework

for

critical-infrastructure

protection, wherein strategic analytics and field
operations function as interconnected links in a unified
process.

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