DESC:4. DESCRIPTION
Technical Field of the Invention

The present invention relates generally to surveillance systems. More specifically this invention is a remote monitoring camera system designed for continuous monitoring in diverse environmental and operational scenarios.

Background of the Invention

Surveillance and remote monitoring systems are widely used for security, perimeter protection, industrial inspection, and defence applications. Conventional camera systems typically include visible light cameras, fixed infrared sensors, or standalone thermal imagers. While these systems provide basic monitoring capabilities, they are limited in functionality when deployed in dynamic environments with varying lighting and weather conditions. Most commercially available surveillance cameras integrate only a single imaging mode, such as visible light or uncooled thermal detection, lacking the capacity to operate effectively across day and night or in adverse weather.

In the prior art, systems are known that use uncooled thermal imaging detectors combined with standard visible light cameras. However, such configurations often suffer from reduced sensitivity in thermal detection under extremely low ambient temperatures due to thermal noise, leading to degraded image quality. Additionally, existing telephoto camera modules generally employ manual focusing or basic motorised focusing mechanisms without feedback encoders, resulting in inaccurate or slow focusing, particularly when tracking moving targets over long distances. Many known systems also lack adaptive control algorithms to adjust CCD imaging modes based on ambient lighting, leading to poor low-light performance without external illumination.

For instance, CN112770034A discloses a high-speed monitoring device that uses a double-end motor to drive a lifting mechanism via a first rotating rod and driving gear. This mechanism adjusts the height of the camera installation disc, allowing for better positioning and orientation of the camera. Simultaneously, a second rotating rod in the adjusting mechanism controls the orientation of the camera, enhancing its flexibility in monitoring specific areas.

Similarly, CN116293310A describes a security monitoring device that incorporates a spherical gear and motor-driven monopole gears to precisely control the orientation of a surveillance camera head. The spherical gear's design allows for smooth and accurate movement, ensuring the camera can track and monitor specific areas effectively. This innovation focuses on improving the mechanical aspects of camera orientation but does not address other critical issues such as low-light performance or ease of installation.

IN201834028621 introduces a camera driving module that incorporates a magnetic element and coil interaction within a casing to stabilize and control the movement of the lens unit. This setup minimizes vibrations and ensures smooth operation during camera adjustments. The module includes damper agents and springs to further enhance stability, resulting in improved image quality and reliability for monitoring tasks. While this innovation addresses the issue of vibration and stability, it does not offer significant improvements in terms of low-light performance or ease of installation and maintenance.

US7667730B discloses a composite camera system that integrates an omni-directional (OD) imager and a pan-tilt-zoom (PTZ) imager. The OD imager captures a wide field of view, while the PTZ imager can rotate and zoom to focus on specific areas within that field. A processor coordinates the operation of both imagers, analyzing omni-directional images to direct the PTZ imager towards events or areas of interest. This system offers enhanced flexibility and coverage but still faces challenges related to low-light performance and reliable data transmission.

US10218940 describes a vehicular vision system that utilizes a side-mounted camera on a vehicle. The camera adjusts its field of view based on the vehicle's speed, capturing a downward view at lower speeds for displaying ground region data to the driver. As the vehicle speeds up, the camera's field of view changes accordingly. This 15 innovation is tailored for vehicular applications and does not address the broader challenges faced by static surveillance systems.

Furthermore, known camera systems do not integrate atmospheric compensation in laser rangefinders, which results in erroneous distance measurements due to uncorrected temperature and humidity variations along the optical path. Existing Pan-Tilt control mechanisms are often open-loop, lacking precise programmable motion profiles or encoder feedback, thereby limiting their utility in applications requiring stable and accurate target tracking, such as defence surveillance, UAV monitoring, or critical infrastructure protection.

Due to these limitations, there exists a dire need for an improved remote monitoring camera system that combines a high-sensitivity cooled thermal imaging detector capable of maintaining low thermal noise, an adaptive low-light CCD imaging module, an autofocus telephoto lens with precision stepper motor and encoder feedback, and an integrated laser rangefinder with embedded atmospheric compensation. Such a system should also incorporate an environmentally sealed aviation plug for reliable power and data connectivity, an RJ45 output supporting combined power and gigabit data transmission, adjustable fixed pins with vibration dampening for stable mounting, and a programmable Pan-Tilt control mechanism with feedback encoders for precise orientation. This integrated multi-sensor camera system would overcome the shortcomings of prior art by providing a robust, adaptive, and accurate surveillance solution suitable for continuous operation in varied and harsh environmental conditions.

Objects of the Invention

An object of the present invention is to provide a remote monitoring camera system that integrates a cooled thermal imaging detector with a thermoelectric cooling module, heat sinks, and forced-air convection pathways, enabling the detector to maintain temperatures below ambient and thereby achieve enhanced infrared sensitivity with reduced thermal noise.

Another object of the invention is to provide a remote monitoring camera system that includes a low-light CCD imaging component configured with auto-gain control to switch between color and monochrome modes based on ambient luminance, ensuring optimal image capture under varying lighting conditions without manual intervention.

A further object of the invention is to provide a telephoto lens module with a variable focal length optical assembly and an autofocus mechanism driven by a precision stepper motor and integrated encoder, allowing accurate and rapid focusing on distant targets for surveillance operations.

It is also an object of the invention to provide a laser rangefinder integrated with an embedded microcontroller capable of performing atmospheric compensation using ambient temperature and humidity sensor data, thereby ensuring precise and reliable distance measurements under diverse environmental conditions.

Another object of the invention is to provide a remote monitoring camera system with an aviation plug comprising gold-plated contacts, a locking mechanism, and environmental sealing conforming to at least IP67 standards, thereby ensuring reliable power and data connectivity in harsh outdoor installations.

Yet another object of the invention is to provide adjustable fixed pins fabricated from corrosion-resistant stainless steel and integrated with vibration-dampening inserts, facilitating secure mounting of the camera system on various platforms, including poles, towers, and vehicle masts, while minimising mechanical vibrations.

It is also an object of the invention to provide an RJ45 output port that supports IEEE 802.3af/at Power over Ethernet standards, enabling combined power and gigabit data transmission over a single cable to simplify installation and reduce system complexity.

A further object of the invention is to provide a Pan-Tilt control mechanism incorporating brushless DC motors with position feedback encoders and programmable speed control, enabling precise, stable, and synchronised rotational and tilting movements for targeted surveillance coverage.

These and other objects of the present invention will become more apparent from the following detailed description and claims, which illustrate exemplary embodiments of the invention.

Brief Summary of the Invention

In one aspect of the present invention, there is provided a remote monitoring camera system comprising a visible light lens configured to capture high-resolution images within the visible light spectrum, integrated with multi-layer optical coatings to reduce chromatic aberration. In another aspect, the system includes a cooled thermal imaging detector incorporating a thermoelectric cooling module, heat sinks, and forced-air convection pathways, enabling the detector to maintain temperatures below ambient and thereby enhance infrared imaging sensitivity with reduced thermal noise under low-light or no-light conditions.

In a further aspect of the invention, the camera system includes a low-light color-to-black CCD imaging component configured with auto-gain control to analyse frame luminance in real time and switch between color and monochrome modes depending on ambient illumination, thereby ensuring continuous effective imaging in varying lighting environments. The system also comprises a telephoto lens module including a variable focal length optical assembly and an autofocus mechanism driven by a precision stepper motor and optical encoder, enabling accurate focusing on targets at different distances without manual adjustment.

Another aspect of the present invention provides a laser rangefinder integrated with the camera system, wherein the laser rangefinder comprises an embedded microcontroller configured to perform time-of-flight based distance calculations with atmospheric compensation by utilising data from ambient temperature and humidity sensors, resulting in precise distance measurements under diverse environmental conditions. The system further comprises an aviation plug configured for power and data connectivity, featuring gold-plated contacts and a locking mechanism to ensure secure and reliable connections with environmental sealing conforming to IP67 standards for outdoor deployment.

In an additional aspect, the camera system includes a plurality of fixed pins fabricated from corrosion-resistant stainless steel and integrated with vibration-dampening inserts to provide stable mounting across varied platforms, including poles, towers, and vehicle masts. The system further comprises an RJ45 output port configured to support IEEE 802.3af/at Power over Ethernet standards for combined power and gigabit data transmission over a single cable, thereby simplifying installation and reducing wiring complexity.

In yet another aspect, the present invention provides a Pan-Tilt control mechanism incorporating brushless DC motors with position feedback encoders and programmable speed control, enabling precise, stable, and synchronised rotational and tilting movements for targeted and adjustable surveillance coverage. The integrated combination of these features provides a robust and adaptive remote monitoring camera system suitable for continuous operation in dynamic and harsh environments.

Brief Description of the Drawings

The invention will be further understood from the following detailed description of a preferred embodiment taken in conjunction with an appended drawing, in which:

Fig. 1 illustrates the block diagram of a remote monitoring camera system (100), in accordance with an exemplary embodiment of the present invention.

Fig. 2 illustrates the method (200) for operating a remote monitoring camera system (100), in accordance with an exemplary embodiment of the present invention.

Detailed Description of the Invention

It is to be understood that the present disclosure is not limited in its application to the details of construction and the arrangement of components set forth in the following description or illustrated in the drawings. The present disclosure is capable of other embodiments and of being practiced or of being carried out in various ways. In addition, it is to be understood that the phraseology and terminology used herein is for the purpose of description and should not be regarded as limiting.

The use of “including”, “comprising” or “having” and variations thereof herein is meant to encompass the items listed thereafter and equivalents thereof as well as additional items. The terms “a” and “an” herein do not denote a limitation of quantity but rather denote the presence of at least one of the referenced items. Further, the use of terms “first”, “second”, and “third”, and the like, herein do not denote any order, quantity, or importance, but rather are used to distinguish one element from another.
The present invention is a remote monitoring camera system designed to enhance surveillance capabilities through a combination of advanced technologies and user- friendly features. The invention addresses various challenges faced by traditional surveillance systems, such as low-light performance, ease of installation and maintenance, and reliable power and data transmission.

In an exemplary embodiment, the present invention provides a remote monitoring camera system incorporating a visible light imaging assembly designed to capture high-definition images under normal daylight conditions. The system includes optical coatings to reduce glare and chromatic distortion, enhancing overall imaging clarity. Integrated within the system is a cooled thermal imaging detector that utilises thermoelectric cooling modules in combination with heat sink arrangements and forced-air convection pathways to maintain the detector’s operational temperature below ambient. This enables the thermal imaging detector to produce stable and high-sensitivity infrared images, particularly during night-time or in low-visibility scenarios.

The camera system further comprises a low-light imaging component equipped with a CCD sensor capable of switching between color and monochrome imaging modes. This switching is governed by an embedded auto-gain control mechanism, which continuously analyses real-time luminance data from the captured frames. When the ambient lighting conditions fall below a predefined threshold, the component automatically shifts to monochrome mode to improve image contrast and visibility without requiring external illumination or manual adjustment.

An exemplary embodiment of the invention also includes a telephoto lens module constructed with a variable focal length optical assembly. The module integrates a focusing mechanism driven by a precision stepper motor and an optical encoder. This configuration enables accurate and rapid focusing adjustments based on distance to the target, allowing seamless zoom-in and zoom-out operations necessary for long-range surveillance applications. The focusing mechanism operates under a closed-loop feedback control to ensure precise focal position without overshoot or drift.

Additionally, the system incorporates a laser rangefinder integrated with an embedded microcontroller capable of performing time-of-flight based distance calculations. The microcontroller is configured to process input from ambient temperature and humidity sensors to apply atmospheric compensation algorithms. This ensures accurate distance measurements irrespective of environmental variations, enabling reliable target localisation and tracking in outdoor or industrial environments.

The remote monitoring camera system also includes an aviation plug assembly designed for robust electrical power and data connectivity. The plug comprises structural features such as gold-plated contacts and locking mechanisms, with environmental sealing to protect against dust and water ingress. The system further integrates a data output interface in the form of an RJ45 port, which supports combined power and gigabit data transmission based on Power over Ethernet standards. This eliminates the need for separate power supply wiring, thereby simplifying installation procedures.

The mounting assembly in an exemplary embodiment comprises multiple fixed pins fabricated from stainless steel with anti-corrosive surface treatments. The pins are integrated with vibration-dampening inserts to maintain system stability even under mechanical shocks or environmental vibrations. Furthermore, the camera system includes a Pan-Tilt control mechanism constructed with brushless DC motors, position feedback encoders, and programmable speed control units. This mechanism provides precise and stable rotational and tilting movements, enabling dynamic reorientation of the camera system to track targets efficiently or adjust the field of view based on surveillance requirements.

These exemplary embodiments illustrate the integration of multiple sensing, imaging, focusing, distance measurement, and positioning subsystems into a unified remote monitoring camera system, designed for continuous and reliable operation in a wide range of environmental and operational scenarios.

Referring to Figure 1, the remote monitoring camera system (100) comprises a visible light lens (2) positioned at the frontal section of the assembly, configured to capture high-resolution images in the visible spectrum. The lens (2) is integrated with multi-layer anti-reflective optical coatings to minimise glare and chromatic aberration, ensuring accurate colour fidelity and image clarity during daylight operations. Adjacent to the visible light lens (2) is the cooled thermal imaging detector (4), which utilises a thermoelectric Peltier cooling module coupled with heat sinks and forced-air convection pathways. This configuration maintains the detector temperature below ambient levels, effectively reducing thermal noise and enabling sensitive infrared imaging in complete darkness or low-visibility conditions.

The aviation plug (6) is positioned at the rear of the assembly and is configured for power and data connectivity. It comprises gold-plated contacts and a threaded locking mechanism to ensure a secure, low-resistance electrical connection even under vibrational stress and outdoor environmental exposure. The plug is sealed to achieve at least an IP67 rating for dust and water ingress protection, enhancing reliability during field deployment.

The laser rangefinder window (8) is integrated into the housing near the optical components. Behind this window, the laser rangefinder is configured with a near-infrared laser diode emitter and a photodiode receiver assembly. The rangefinder operates by emitting pulsed laser beams towards the target and calculating distance based on time-of-flight measurements. An embedded microcontroller processes the timing data and performs atmospheric compensation using input from ambient temperature and humidity sensors integrated within the system. This compensation corrects the speed of light variation through air under differing environmental conditions, providing accurate distance outputs.

The handle (10) is ergonomically designed with thermoplastic elastomer over-moulding around a structural polymer core, providing a comfortable and slip-resistant grip for installers and maintenance personnel. The plurality of fixed pins (12) are fabricated from corrosion-resistant stainless steel and include vibration-dampening inserts to isolate the camera body from mechanical vibrations when mounted on poles, towers, or vehicle masts. These pins are adjustable, allowing installation at various horizontal and vertical orientations, ensuring flexible deployment across multiple site conditions.

The telephoto lens module (14) is positioned concentrically with the visible light lens assembly and comprises a variable focal length optical assembly. The focusing mechanism within the module is driven by a precision stepper motor coupled with an optical encoder, forming a closed-loop control system for precise focal adjustments. The embedded control interface continuously receives positional feedback from the encoder, enabling accurate focus on targets at varying distances without overshoot or hunting effects. The autofocus operation is triggered automatically based on image frame analysis conducted by the internal processor.

The low-light color-to-black CCD imaging component (16) is configured to operate under an auto-gain control algorithm. This subsystem analyses the luminance histogram of real-time incoming frames, determines ambient lighting conditions, and dynamically switches between colour imaging mode and monochrome mode when the luminance falls below a predetermined threshold. The mode switching ensures optimal image contrast and minimal noise under low illumination conditions.

The control interface (17) is implemented as an embedded microprocessor-based unit with integrated communication protocols supporting TCP/IP, UDP, and proprietary command sets for controlling subsystems such as the thermal detector, telephoto lens focusing motor, and Pan-Tilt mechanism. The RJ45 output port (19) is configured to provide combined power and gigabit data transmission compliant with IEEE 802.3af/at Power over Ethernet standards. The port includes integrated magnetics, signal conditioning circuits, and surge protection modules to maintain transmission integrity and device safety.

The Pan-Tilt control mechanism (18) comprises brushless DC motors for both azimuthal rotation and elevation tilting. Each motor is coupled with a position feedback encoder, enabling precise angular positioning. The control system includes programmable motion profiles stored within onboard memory, allowing synchronised speed adjustments based on field of view and telephoto zoom positions. This ensures that camera movements remain stable and smooth, particularly when tracking moving targets.

Referring to Figure 2, the block diagram illustrates the interconnection of system components and data flow during operation. The visible light lens, thermal imaging detector, and low-light CCD imaging component feed their respective image streams to the control interface. The telephoto lens module interfaces with the control interface for motor actuation and focus control. The laser rangefinder connects to the embedded microcontroller, which performs time-of-flight calculations and atmospheric compensation, forwarding distance data to the control interface for overlay on imaging feeds.

The Pan-Tilt control mechanism receives control commands from the control interface based on operator input or automated tracking routines. Power is supplied via the aviation plug, and PoE power is extracted through the RJ45 output port. System firmware includes initialisation algorithms that check the operational status of each subsystem before enabling standard imaging and tracking modes. The software interface accessible via the RJ45 network connection allows users to configure network parameters, set intrusion detection zones, adjust imaging settings, and initiate system diagnostics.

During operation, the system boots into a diagnostic self-test mode, verifies connectivity of all modules, activates the thermal cooling module to reach operational temperature, and calibrates the laser rangefinder for baseline atmospheric conditions. The autofocus mechanism sequentially scans focal positions and locks onto the target with maximum image sharpness detected by internal contrast evaluation algorithms. The low-light CCD automatically configures its gain and mode, while the Pan-Tilt system is set to its default parked position, ready for manual or automated movement commands.

APPLICATIONS
The remote monitoring camera system (100) is applicable in various operational scenarios. In perimeter security installations for critical infrastructure such as airports and power plants, the visible light lens (2) combined with the telephoto lens module (14) enables detailed identification of persons or objects at significant distances, while the cooled thermal imaging detector (4) provides infrared imaging for detection under darkness or fog. In defence surveillance applications, the integrated laser rangefinder (8) enables accurate distance measurement to targets, supporting threat assessment and targeting operations. For industrial process monitoring, such as furnace or pipeline inspections, the cooled thermal imaging detector (4) detects thermal anomalies, whereas the low-light CCD imaging component (16) ensures visibility in low-illumination operational zones. The system is also applicable in UAV payload integration, where the compact aviation plug (6), RJ45 output port (19), and Pan-Tilt control mechanism (18) enable stable mounting, power/data integration, and dynamic field-of-view control for aerial reconnaissance missions.

ADVANTAGES
The camera system (100) provides several distinct advantages over existing surveillance solutions. The integration of the cooled thermal imaging detector (4) with thermoelectric cooling ensures high infrared sensitivity and minimal thermal noise even in high-temperature environments, enhancing detection accuracy. The telephoto lens module (14) with its autofocus mechanism driven by a stepper motor and optical encoder allows rapid and precise focusing adjustments without manual intervention. The auto-gain controlled low-light CCD imaging component (16) dynamically adapts to illumination conditions, ensuring clear imaging across day-night transitions. The laser rangefinder (8) provides reliable atmospheric-compensated distance measurement data. The aviation plug (6) with gold-plated contacts and IP67 sealing ensures long-term environmental resilience. The RJ45 output port (19) enables combined gigabit data and PoE power transmission, simplifying installation. The Pan-Tilt control mechanism (18) with programmable speed profiles and encoder feedback ensures precise and stable camera orientation adjustments, supporting automated tracking and surveillance tasks with minimal mechanical drift.

TEST STANDARDS
The remote monitoring camera system (100) was tested for operational compliance and performance validation under standard protocols. The thermal imaging detector (4) was evaluated under IEC 60068-2-1 for low temperature and IEC 60068-2-2 for high temperature operational ranges. Vibration and shock resistance tests were conducted for the fixed pins (12), aviation plug (6), and handle (10) as per MIL-STD-810G standards to validate structural stability under field deployment conditions. The Pan-Tilt control mechanism (18) underwent endurance testing for rotational accuracy and tilt positioning, evaluated over 100,000 operational cycles without degradation in positional feedback accuracy. The RJ45 output port (19) was tested under IEEE 802.3af/at compliance standards for consistent PoE delivery with integrated magnetics and surge protection validation. The autofocus performance of the telephoto lens module (14) was evaluated using ISO 12233 slanted edge analysis to confirm focusing accuracy and response time under variable lighting conditions. The laser rangefinder (8) was calibrated using standard optical bench setups to confirm time-of-flight accuracy within ±5 cm tolerance over the specified measurement range with atmospheric compensation enabled.

RESULTS
Test results confirmed the superior operational capabilities of the system (100). The cooled thermal imaging detector (4) maintained operational temperatures at least 10°C below ambient, enabling high-contrast thermal imaging in both high and low ambient temperatures. The autofocus mechanism of the telephoto lens module (14) consistently achieved optimal focus within 2 seconds across target distances ranging from 5 meters to 1 kilometre. The auto-gain control in the low-light CCD imaging component (16) successfully switched modes at a luminance threshold of 20 lux, maintaining image clarity without operator intervention. The laser rangefinder (8) provided accurate distance readings within the design tolerance across temperature variations between -10°C and +55°C. The Pan-Tilt control mechanism (18) demonstrated repeatable rotational and tilt positioning with less than 0.1-degree deviation over continuous operation cycles. PoE data and power transmission via the RJ45 output port (19) remained stable under peak operational loads with no packet loss or power dropouts recorded.
,CLAIMS:5. CLAIMS
We claim
1. A remote monitoring camera system (100), comprising:
a visible light lens (2) configured to capture high-resolution images within the visible light spectrum and comprising multi-layer optical coatings configured to reduce chromatic aberration;
an aviation plug (6) configured for electrical power connection and data transmission, the aviation plug comprising gold-plated contacts and a locking mechanism to ensure secure coupling and environmental sealing;
a laser rangefinder window (8) configured to house a laser rangefinder for measuring distances to target objects, the laser rangefinder including an embedded microcontroller for processing time-of-flight calculations;
a handle (10) ergonomically designed with thermoplastic elastomer over-moulding to facilitate manual handling and positioning during installation and maintenance;
a plurality of fixed pins (12) fabricated from corrosion-resistant stainless steel and including vibration-dampening inserts, configured for securely mounting the camera system to various surfaces and orientations;
a telephoto lens module (14) comprising a variable focal length optical assembly and a focusing mechanism driven by a precision stepper motor with an integrated encoder for long-range focusing;
a low-light color-to-black CCD imaging component (16) configured to capture images under low illumination, including an auto-gain control circuit to analyse frame luminance and switch between color and monochrome modes based on ambient light conditions;
a cooled thermal imaging detector (4) comprising a thermoelectric Peltier cooling module coupled with heat sinks and forced-air convection pathways to maintain the detector temperature below ambient for reduced thermal noise and enhanced infrared sensitivity;
a control interface (17) configured to manage data communication and system configurations between the camera system and an external computing device;
an RJ45 output port (19) configured to transmit integrated video and control signals and to support IEEE 802.3af/at Power over Ethernet (PoE) standards for combined power and data transmission over a single cable; and
a Pan-Tilt control mechanism (18) comprising brushless DC motors with position feedback encoders and programmable speed control, configured to provide remote-controlled rotational and tilting movements of the camera system;
Characterized in that,
the cooled thermal imaging detector (4) is integrated with the camera system (100) to operate in conjunction with the visible light lens (2) and low-light CCD imaging component (16) for adaptive multi-spectral imaging under varying environmental lighting conditions;
the telephoto lens module (14) comprises an autofocus mechanism configured to determine optimal focus positions for target objects without manual intervention;
the laser rangefinder (8) is configured to perform atmospheric compensation for distance measurements using data from integrated ambient temperature and humidity sensors processed by the embedded microcontroller; and
the Pan-Tilt control mechanism (18) is configured to synchronise its rotational and tilting operations with the field of view adjustments of the telephoto lens module (14), enabling precise alignment and tracking of distant targets.

2. The system (100) as claimed in claim 1, wherein the cooled thermal imaging detector (4) further comprises non-uniformity correction circuitry configured to compensate pixel response variations and defective pixel replacement modules to maintain imaging integrity.

3. The system (100) as claimed in claim 1, wherein the low-light color-to-black CCD imaging component (16) includes a real-time luminance analysis module configured to switch between color and monochrome imaging modes automatically based on ambient illumination thresholds.

4. The system (100) as claimed in claim 1, wherein the telephoto lens module (14) further comprises an optical encoder coupled to the stepper motor, configured to provide position feedback for precise focal length adjustments during zoom and focus operations.

5. The system (100) as claimed in claim 1, wherein the laser rangefinder (8) comprises a near-infrared laser diode emitter and a photodiode receiver assembly, configured to emit laser pulses and measure target distance using time-of-flight calculations processed by the embedded microcontroller with atmospheric compensation inputs from integrated temperature and humidity sensors.

6. The system (100) as claimed in claim 1, wherein the aviation plug (6) includes a sealing gasket and a threaded locking ring, configured to maintain IP67-rated environmental sealing during outdoor operations.

7. The system (100) as claimed in claim 1, wherein the RJ45 output port (19) is further configured with integrated magnetics and surge protection circuitry to ensure stable Power over Ethernet (PoE) data and power transmission.

8. The system (100) as claimed in claim 1, wherein the plurality of fixed pins (12) includes adjustable locking mechanisms and rubberised vibration dampeners configured to absorb mechanical vibrations when mounted on poles, towers, or vehicle masts.

9. The system (100) as claimed in claim 1, wherein the Pan-Tilt control mechanism (18) further comprises programmable motion profiles stored in onboard memory, configured to synchronise panning and tilting speeds with the telephoto lens module (14) field of view for stabilised target tracking.

10. A method of operating the remote monitoring camera system (100) as claimed in claim 1, comprising:
verifying operational conditions of components including the visible light lens (2), cooled thermal imaging detector (4), aviation plug (6), laser rangefinder window (8), handle (10), fixed pins (12), telephoto lens module (14), low-light CCD imaging component (16), control interface (17), RJ45 output port (19), and Pan-Tilt control mechanism (18);
mounting the system (100) on a stable platform using the fixed pins (12);
connecting electrical power and data interfaces via the aviation plug (6) and RJ45 output port (19);
configuring network parameters including IP address, subnet mask, and port assignments;
initialising the cooled thermal imaging detector (4) and low-light CCD imaging component (16);
activating the laser rangefinder (8) for distance measurement;
adjusting focus using the telephoto lens module (14);
and controlling camera orientation using the Pan-Tilt control mechanism (18) for targeted surveillance monitoring.