DLK-MEIS Dölek Guard Security and Destruction System

Abstract

The invention relates to the field of military security and defense technologies, addressing the evolving needs of the modern battlefield. It is a portable, multi-layered surveillance, detection, identification, and destruction system with an early warning siren that can operate independently of power sources. The system, particularly in base areas, temporary bases, checkpoints, and critical operational areas, detects, identifies, and neutralizes approaching threats from the perimeter towards the center using sensors, tripwires, wired / wireless elimination modules, AI-powered camera systems, and two-way voice communication between the center and the outpost, recording and reporting everything that happens in the field. All these functions are integrated within a single compact main command and control unit. This makes the system an innovative and integrated solution that allows a single operator to manage the work of multiple personnel in a modern battlefield, thereby enhancing safety and minimizing manpower requirements.

Description

1 TARIFF DLK-MEIS Dölek Guard Security and Destruction System TECHNICAL AREA 5 The invention provides military security and solutions that meet the evolving needs of the modern battlefield. It relates to the field of defense technologies. It is portable, multi-layered, and equipped with an early warning siren. It is a surveillance, detection, identification, and destruction system that can operate independently of energy. The system protects against external threats, especially in base areas, temporary bases, police stations, and critical operational areas. Sensors, tripwires, wired / wireless elimination modules detect approaching threats to the center. AI-powered camera systems and two-way voice communication between headquarters and outpost. by identifying, diagnosing, and neutralizing everything that happens in the field, and recording the events. reports. 10 All these functions are integrated within a single compact main command and control device. Thus, the system enables a single person to do the work that multiple personnel would do on a modern battlefield. By enabling management, it is innovative and minimizes labor requirements while increasing security. It is an integrated solution. State of the Art In today's modern battlefield, base areas, temporary base areas, outposts and critical Various technologies are used for security purposes in operational areas. However, these technologies... They are mostly used in fixed main command locations, operate as single solutions, and a 20 It does not form a whole. These systems are typically single-layered and perform only a specific function. For example, Motion sensors only handle the detection task, while camera systems only capture images. This is provided. Destruction systems, on the other hand, are established as a separate mechanism and are usually centrally controlled. No integration is available. 25 The surveillance devices used are not easily portable in the field and have short-range motion detection capabilities. and offers limited logging capabilities; however, these enable multi-layered threat detection, diagnosis, and neutralization. It lacks integrity. Similarly, wired destruction systems used for destruction purposes. They exist, but these systems are generally independent, including Sensor, Camera, and Tripwire destruction. No integration is available. 30 2 Furthermore, existing solutions are mostly energy-dependent and require long-term, uninterrupted operation. It is unable to do so; it is limited in terms of portability and rapid installation on different terrains. Therefore, in the field Integrated security-destruction system capable of operating in both multi-layered and energy-independent ways. systems are needed. Sensor systems only handle the detection task. Camera systems mostly capture the image. 5 It is limited to providing information and is insufficient in identifying and classifying threat elements. Demolition systems (wired detonator assemblies) are generally standalone devices, separate in the field. It requires installation and is often not integrated with central control systems. Therefore, both Using it is complicated and it's a waste of time. Portability is a major drawback of current solutions. Most systems require fixed infrastructure. It is observed that they cannot be quickly installed and commissioned in different terrain conditions. Solutions for communication with personnel are also limited. The threat between the soldiers in the field and the headquarters... an integrated voice communication (intercom) mechanism that instantly indicates direction This is not the case. This situation prolongs the reaction time on the field and increases safety risks. It is increasing. 15 In summary, current technologies offer: *It is unable to provide multi-layered protection. *It is unable to offer energy independence, *Most of them lack quick and practical portability, *It does not offer integrated management capabilities, 20 *It is unable to provide real-time center-position coordination. *A separate user is required for each device. *These shortcomings are serious in the complex and rapidly changing threat environment of the modern battlefield. This creates security vulnerabilities. THE PURPOSE OF THE INVENTION The aim of this invention is to address the challenges encountered in security and defense operations on the modern battlefield. to address shortcomings, maximize personnel safety and increase operational efficiency 30 The goal is to increase [integration]. Current systems are single-function, energy-dependent, lack portability, and are not integrated. Because it offers ineffective solutions, it creates a heavy workload for staff and compromises security. It constitutes. 3 The invention eliminates these shortcomings; • Providing multi-layered protection (detection-diagnosis-neutralization-recording / reporting), • Independent operation with power source, providing uninterrupted service for days thanks to solar-powered batteries. performance of duty, • Portable and quick-to-assemble compact design for different terrains and operations. 5 flexibility in conditions, • AI-powered camera systems for accurate threat diagnosis and false alarms. reducing the rate, • Field camera systems can be integrated into the existing network. Increasing surveillance capabilities, 10 • Early warning system activated in situations such as drone attacks, intrusions, or harassment. by taking the information and immediately alerting the staff, • If desired, commands can be given by projecting images onto large screens from the main device. broader monitoring capabilities at this level, • Multi-screen sharing via mobile app in locations with internet access 15 monitoring and managing cameras by doing so, • The main unit has a 12V power outlet for use in emergencies. thanks to which additional hardware or systems can be powered, • Managing all subsystems through a single command and control device, • Two-way voice communication (intercom) between the center and the outpost allows the direction of the threat to be determined. immediately communicated to the staff, • It saves on personnel costs by performing the work of multiple employees in a single person. making it possible for staff to manage it, • Recording and reporting of events allows for post-operative analysis. presenting, 25  A four-layered security wall covering 360 degrees and extending up to 400 meters from the center. By constructing it, the incoming threat is assessed in the first 3 layers, and its destruction is carried out in the final layer. It is intended to offer the possibility of realization. Innovations, Advantages, and Eliminations of the Invention 30 Innovations; • Multi-layered security structure: Sensor, tripwire (TTIS), wired / wireless destruction. modules, AI-powered camera systems, and two-way audio communication feature all in one. It is integrated into the portable device. 4 • Integration with existing unit cameras: Cameras currently in use in the units. These systems can be integrated into the system by connecting to the main device. • Early warning against drone and similar threats: With a siren that instantly alerts personnel. The alarm system provides deterrence against low-altitude threats. • Multiple display transmission: Mirroring from the main device to larger screens via HDMI 5 Multi-screen sharing is possible in environments with internet access via a mobile application. • Energy independence and additional power output: Uninterrupted power for days with solar panel support. It is able to operate, and thanks to the 12V power output on the main device, additional systems can be powered in an emergency. It is possible to provide nutrition in these situations. • Minimizing staff workload: The system completes the work of multiple employees in a single 10-person operation. It is designed in a way that will enable staff to manage it. Advantages; • Personnel safety: Threats are detected before they approach, correctly identified, and Necessary precautions are taken. 15 • Operational efficiency: Decision-making is easier because all functions are managed from a single center. and the reaction time is shortened. • Portability and quick setup: It can be set up quickly by two people and is easy to install. It can be used in various fields. • Versatility: Integrated sensor, destruction, camera, early warning and communication functions. 20 By offering this, it eliminates the need for separate devices. • Reducing false alarms: AI-powered camera analysis and sensor performance. False alarms are minimized by adjusting the animal sensitivity setting. • Continuous recording and reporting: Events are recorded in real time and analyzed later. It is possible to do so. 25 • Efficiency: Solar-powered battery system for long-term tasks without relying on external power sources. It operates without needing to. • Headquarters-position communication: Threat direction and situation information via two-way intercom. It is immediately communicated to the staff. Disadvantages it eliminates; • Energy dependence: The external power requirement of existing systems is met by solar-powered batteries. It has been eliminated. • Single functionality: Detection, imaging, destruction, and communication systems are separate. While they previously existed in separate devices, this invention presents them integrated into a single device. 5 • Lack of portability: Unlike fixed or heavy systems, they are not easily portable and fast. It is a deployable structure. • Risk of false alarms: Thanks to artificial intelligence and advanced sensor technologies, false alarms can occur. The alarm rate has been significantly reduced. • Communication breakdown: In current solutions, the threat aspect is not communicated to personnel in a timely manner. While it cannot be delivered through other means, in this system it is instantly conveyed through audio and visual notifications. • Increased staffing requirements: Traditional systems require a large number of personnel. Contrary to what one might think, with this system, a single employee can do the work that multiple people would otherwise do. manageable. EXPLANATION OF THE FIGURES Figures designed to better illustrate this invention are presented in the Appendix. The definitions and explanations are as follows: Figure 1 shows the main command and control device with the top cover open. 20 (1) Multi-camera display screen (2) Sensor and tripwire monitoring screen (3) Fuse ignition screen (4) Wi-Fi on / off button (5) Siren button 25 (6) Charging button (7) On / Off button (8) Destruct button (9)Screen image transmission input RJ45 6 Figure 2 shows the front panel connection view of the main command and control device. (10) Screen power input (11) HDMI output 5 (12) 12 Volt output (13) Charging port (14) RJ45 jack input (15) Sensor and tripwire outputs (16) Wired destruction outlets 10 (17) Camera trigger output (18) Siren output (19) Insurance (20) Antenna connection Figure 3 shows the main device in its closed and portable state. 15 (21) Charging status display (22) Pressure valve (23) Closed lock latch (24) Carrying handle Figure 4 shows the Trip Detection and Elimination System. 20 (25) Fixing holes (26) Trigger wire attachment shaft and hole (27) Cover fixing screw (28) Cover (29) Body 25 7 (30) Stumble shaft (31) Spring and Switch (32) Safety pin and hole (33) Spring adjustment drum (34 Socket inputs (1st input: Sensor / Trip line) 5 (35) Socket inputs (2nd input: Sensor line) (36) Socket inputs (3rd input: Fuse / Siren output) (37) Rod fixing hole and clamping place Figure 5 shows the wireless tactical destruction module system. (38) Antenna 10 (39) On / off and fuse control button (40) Detonator entry point (41) Main section connecting screws (42) Main body Figure 6 shows the sensor module system. 15 (43) Sensor connection cable (44) Fresnel lens (45) Microwave sensor window (46) Front body and cover (47) Rear body / Mounting plate 20 Figure 7 shows the camera system. (48) IR LEDs (49) Fixed camera (50) Manual 360 degree camera 8 (51) Connection cable (52) PTZ 360 degree camera Figure 8 shows the image transmission unit. (53) Image Transmission Unit (54) Connection status screen 5 (55) Power cable (56) Camera connection cable (57) Fixing point Figure 9 shows the solar panel power unit. (58) Solar panel 10 (59) Battery (60) Connection cable (61) Fixing Foot Figure 10 shows the early warning siren unit. (62) Siren Main Unit 15 (63) Speaker (64) Fixing Foot (65) Connection Cable Figure 11 shows the Sensor and Trip Wire Control Board. (66) Sensor and Stumble Card PCB drawing 20 (67) Sensor and Stumble Circuit Board Figure 12 shows the description of the wired / wireless detonator control board. (68) Detonator Control Card (69) DC Step Regulator 9 Figure 13 shows the wired / wireless detonator control board. (70) Wired / Wireless Detonator Control Card Figure 14 - What is seen when the top cover of the main command and control device is opened; (71) Camera monitoring screen 5 (72) Shows the sensor and fuse control screens. Figure 15 shows the two-way communication unit between the center and the outpost. (73) Microphone and Speaker (74) On / Off Button (75) Position Talk Unit 10 (76) Two-Way Communication Unit EXPLANATION OF REFERENCES IN THE FIGURES Figure 1 shows the main command and control device of the DLK-MEIS system. This device controls all 15 It acts as the central brain of the system. It contains screens, buttons, and input / output ports. All data from field sensors, cameras, and demolition modules via ports It is processed, recorded and directed according to the operator's commands. Located on the upper panel, number (1) The screen allows simultaneous viewing of live footage from four different cameras installed in the field. The images are stored in the internal NVR recording module, and past recordings can be reviewed when needed. This 20 The screen is not touch-sensitive; it is used only with a mouse or joystick for monitoring and recording. Screen (2) is the section where the Sensor and Tripwire lines are monitored. It is touch-sensitive. And every detection line in the field is shown here, numbered. Which sensor is active, which one is not? The line has generated an alarm, all of which are instantly displayed on this screen. The incoming signals go directly to the sensor and tripwire. It is processed via the control card and displayed here. The operator can disable the line from this screen. 25 They can leave it, change the sensitivity setting, or perform trigger verification. Screen number (3) is the section where the fuse firing operations are carried out. The operator uses a wired or It selects one of the wireless lines. The processor verifies the integrity, power rating, and security of the selected line. It tests the conditions. If everything is suitable, the system first tests the user when it starts the destruction, number (6). It prompts the user to press the charging button; at this point, the power booster circuit is activated and the voltage reaches 54 V 30 It reaches the level (10 sec.). Then the user is asked to press the destroy button number (8). The processor only transfers power to the selected path and initiates the destruction process. The system is completely destroyed at the end of the detonation. Going back to the beginning, it checks the fuses that are supposed to be detonated. If there are any undetonated fuses, it informs the user. It shows. All other lines are isolated, thus eliminating the risk of accidental ignition. The process Once complete, the system enters cooling mode and performs an automatic reset. (4) The Wi-Fi button turns wireless communication on or off. This allows the device to use wireless 5 It communicates with tactical destruction modules. This button is used in areas where the jammer is effective. By switching it off, the device is operated only in wired mode. Siren button number (5), perimeter security It activates the early warning system used for this purpose. The signal is transmitted to the siren unit via the main output line. The signal is sent and both an audible and visual warning is given. Meanwhile, the processor enters safe mode to disable the destruction circuit. It prevents false triggering. The main on / off button (7) reduces the overall power of the system by 10 It checks. When the device is turned on, the processor performs a self-test, then checks the screens, sensors, It activates the cameras and destruction modules respectively. RJ45 input number (9) transmits images. It is the data path between the unit and the main device. All images from the cameras pass through this port. The data is transmitted to the recording unit; data transfer also takes place over this line. In the general workflow, the operator... The system is switched on, the power is turned on, and the sensors and cameras become active. A movement in the field... 15 When detected, a warning appears on screen number (2), and at the same time, that area appears on screen number (1). The image is monitored. When the situation reaches a threat level, a warning is given with the siren button (5), if necessary. The operator selects the destruction line established in the region from which the threat is coming from screen (3), (6) It starts charging with number (8) and performs destruction with number (8). All these operations are processor-based. It is managed by security algorithms; the system does not run in any manual error or incorrect order. 20 Figure 2 shows the front panel connections of the main command and control device. This part of the system It houses the connection ports that enable communication with all external modules and the device's infrastructure. It acts as the backbone. Each connection here provides energy, data, or commands to a component in the field. is responsible for transmitting. 25 Input number (10) is the screen battery supply line. It controls the current it receives from the main power system. It transmits signals to the battery and screens via the circuit board. This line is the first connection to become active when the device is turned on. and ensures power stability. Output number (11) is HDMI connection. If the operator wishes, the image can be sent to an external monitor, control It can transmit it to the central unit or recording system. High-resolution image via HDMI line 30 It is portable and is also used to project the signal from the NVR to the outside environment. The 12-volt outlet (12) is connected to sensor modules, tripwire systems and other low-power devices in the field. It provides power to the equipment and the display. This outlet is isolated from the system's main power line; Thus, in the event of a short circuit or overcurrent, it protects the circuit without affecting the main device. 11 Input number (13) is the charging line of the device. It is powered by a solar panel power unit with a 3.7 V / 14.6 Volt energy input. or it receives power from an external charger. The voltage regulator on the device balances this energy and 2 It safely charges multiple 12-volt, 18-amp battery packs, even if the power source is interrupted in the field. Thanks to this input, the device can operate continuously with solar power. (14) RJ45 jack input is used for data communication. This line is used for both image transmission and sensor 5 It enables communication with both the card and the siren unit. It also handles system software updates and data. Data transfer or connection to the control center over the network is carried out through this port. Output number (15) carries the sensor and tripwire lines. All sensing units in the field are connected to this output. They are connected. Each line is individually numbered and monitored by the Sensor & Tripwire Control Board. When a detection occurs, the signal is transmitted to the processor via this line and an immediate alert appears on the screen. interest. (16) is the output wired detonator line. This connection is the wired / wireless detonator shown in Figure 12. It goes to the control board. When the operator initiates the destruction process, power is transmitted from this output to the detonators. Output number (17) is the camera trigger line. It controls the direction, zoom and position of PTZ cameras. Signals are sent over this line. Furthermore, this connection is coordinated with the image transmission unit. It works by synchronizing the live viewing function of the cameras. (18) is the output siren line. The Early Warning Siren Unit is activated by the command from the main device. This line also serves as the unit's "threat reporting" line. Element (19) is the fuse. It provides protection in the device's power line. Any overcurrent or The line is automatically cut off in case of a short circuit. This protects both the battery and the processor from damage. 20 (20) is the connection antenna line. Wireless destruction in the field with the wireless communication module. It provides data communication with modules and off-center control units. The antenna is connected to the TX480 RF LoRa module. It is connected and operates in the 433 MHz band. Figure 2 shows the point that bridges the gap between the processor inside the device and all the modules in the field. Solar The energy from the panel enters through line (13) and goes to the sensor and destruction cards (15) and (16) 25 The images are distributed and transmitted to the centre via lines (14) and (17). Each connection has separate fuse (19) protection. This arrangement allows the complex structure of the system to be managed centrally in a simple and secure manner. It makes it so. Figure 3 shows the closed and portable state of the main command and control device of the DLK-MEIS system. 30 This design demonstrates the system's rapid deployment in the field, ease of transport, and environmental friendliness. This demonstrates its robust structure resistant to various conditions. The device maintains its energy efficiency even during prolonged operation. It is designed to preserve communication and destruction capabilities; all components are protected by a protective casing. It is transported in a protective case. 12 Section (21) is the charging status display. This small display panel shows the battery charge level, charging It displays the current and voltage values ​​in real time. The operator can see the power even without turning on the device in the field. You can see on this screen whether it's sufficient power. The device draws energy from the solar panel or external charger. If it is receiving power, a charging icon and current direction will appear on the screen. This indicator shows that the energy management unit is receiving power. It is under control and also provides overcharge or low voltage warnings. 5 Element number (22) is the pressure valve. The outer casing of the device is completely sealed against water and dust. This valve balances the pressure difference caused by temperature changes inside or prolonged operation. This prevents condensation or internal air expansion inside the casing. The pressure valve controls the device's electronics. It ensures the longevity of its components and supports the military standard IP65 protection level. Part number (23) is the locking latch. It protects the device covers from external influences by closing them tightly. 10 The latch is made of tough, durable composite plastic and features a ambidextrous locking system. The operator closes this latch before moving the device; this allows the internal screens, circuit boards, and The connection ports are unaffected by impact, dust, or moisture. The locking system also prevents unauthorized opening. It is a mechanical safety measure that prevents this. Component number (24) is the carrying handle. It is ergonomically designed and made of durable composite material. It is manufactured to ensure the portability of the device; one person can operate the device alone or with the help of two people. It can be easily taken to the field. Because the handle is positioned relative to the center of gravity in the direction of pulling, the device The weight is evenly distributed. In addition, the inner surface of the sleeve is rubber coated; it prevents slipping when used with gloves. Figure 3 generally represents the "pre-operation" position of the device. The system is deployed to the field. Before being taken away, the energy status is checked from the screen number (21), valve (22) is in the closed position 20 It is held, the latch (23) is locked and the device is easily carried via the carrying handle (24). This design is DLK- MEIS reveals its biggest difference from classic fixed security systems: the system encompasses all It can be transported in a single suitcase with all its components, and it activates within minutes of being opened. When closed, it becomes completely isolated from the surrounding environment. Figure 4 shows the sub-system of the DLK-MEIS called the Trip Detection and Elimination System (TDIS). It shows the component. This part forms the first line of perimeter security and the approach on the field. It is a unit that detects intrusion or penetration attempts both mechanically and electronically. TTIS, classical Unlike mine or wire alarm systems, it is completely reusable, safe and It operates as an electronically assisted mechanism. (25) The fixing holes numbered 30 allow the system to be attached to the ground. or allows mounting to a fixed surface. Mounting bolts or ground bolts are passed through these holes. Thanks to its pegs, the module does not move during tremors. (26) trip wire attachment shaft, It forms the main connection point of the sensing wire stretched around the environment. The wire is attached to this shaft and connected to a specific point. It is kept under tension; any contact will disrupt the tension in the wire, breaking the system's winding mechanism. 13 activates the cover fixing screw number (27) and the cover number (28) inside the module. It protects its components from dust, water, and impact. When the cover is opened, the cocking spring, safety pin, and Electrical connections become accessible. Body number (29) has all its mechanical components on it. It is the main supporting structure. It is made of impact-resistant composite alloy. The trip shaft numbered (30) is the movable part within the system. It adjusts the tension of the connected wire to 5 When it is lost or there is a sudden pull, this shaft moves backward. The winding spring numbered (31), This is the mechanism that constantly balances this movement. The shaft is normally fixed by a trip wire. It is held in place, and when it moves forward or backward due to external influence, it produces force, and this is mechanical movement. The signal is transmitted to the sensor line as an electrical trigger signal via a latching microswitch. (32) safety pin is the safety fuse of the system. When the device is being moved or placed 10 It locks the movement of the shaft to prevent accidental triggering during operation. The pin is removed when the installation is complete. Removing it activates the system. The spring adjustment drum numbered (33) determines the sensitivity of the system. The tension of the string is adjusted by turning this drum; this allows the string length or terrain conditions to be determined. Accordingly, the detection threshold can be increased or decreased. Electronic connections are made via socket inputs numbered (34), (35) and (36). The first input is 15 The first input is for the sensor or trip line signal, the second input carries the auxiliary sensor line, and the third input is for the detonator. or is connected to the siren output. This allows a single action to activate both the warning system and the destruction circuit. They can be triggered simultaneously. The sockets are selected as waterproof type and are coded with connectors, so There is no risk of mixing them up. (37) The rod fixing hole is for aligning and fixing the module to the ground during installation. It is used. A metal stake passed through this hole ensures that the TTIS remains fixed in the correct position in the field. The working principle of TTIS is simple but effective: an enemy element or foreign person enters the environment. When the wire passes over the drawn wire, the tension in the wire is disrupted, this movement causes the trip shaft (30) to move, The spring (31) is suddenly released and generates an electrical signal through the connected sensor line (34). This The signal first goes to the Sensor and Trip Wire Control Board (Figure 11), then to the main command 25 It appears as a warning in area (2) on the sensor screen of the device. If the operator wishes, the same signal It can also activate the destruction line. This system is much safer than classic mechanical traps because pulling the pin (32) releases the drum. (33) Adjustment and wire tension are controlled systematically. Also, TTIS can be re-established. It is structured; at the end of the task (30) it is re-established and the wire is reconnected and the system is moved to another point 30 It is portable. Therefore, it can be used repeatedly in every task. 14 Figure 5 shows the Wireless Tactical Destruction Module of the DLK-MEIS system. This module, Portable devices that enable wireless and secure demolition operations in the field. It is a subunit. It connects to the main command and control device via RF communication and allows the operator to... When the detonation command is received, it transmits high voltage to the connected fuse, thus carrying out the detonation process. The device is particularly useful in areas where laying cables is risky or impossible; minefields, 5 It provides a wireless elimination advantage in caves, tunnels, and populated areas. Antenna number (38) enables wireless communication of the module. It communicates with the main device at 433 MHz. It contains an RF module (TX480) operating in the band. This antenna ensures the safe transmission of the destruction command. It enables the device to be retrieved and the code to be verified. The device can only be used with a master that has its own ID code. It accepts commands from the device; it does not respond to other signals. Thus, electromagnetic 10 Interference, jammers, or external interference will be ineffective. The on / off and fuse control button numbered (39) is used in the module's power management. Before starting the task, the operator activates this button to prepare the circuit. The same button... The LED light on it flashes briefly, indicating that the fuse is faulty. A long interval indicates the fuse is intact; test firing or energy level check 15 It is for the purpose of doing. (40) numbered fuse inlet is the outlet to which the demolition element is connected. For safety purposes, there are two inlets at this outlet. There are stepped connections: the first is the low-voltage test line, and the second is the ignition line. Main After the command from the device is verified, the processor generates power through the booster and only then... It even directs the flow. This ensures controlled energy transfer to the fuse, preventing current from flowing in the wrong direction. 20 (41) The body screws close the case and ensure that the internal components are not affected by vibration. These screws are made of stainless steel and can be easily removed and installed in field conditions. (42) The main body is the structure in which all components are protected. It is resistant to water, dust and impact. It provides IP65 level protection. The housing contains the processor, regulator, RF module, relay, and battery. It is also located here. In addition, this 25 capacitor bank, which serves as a temporary storage source during power outages, is also present. It is integrated into the body. The wireless tactical destruction module operates as follows: Operator controls the main command and control. The device selects a specific line and sends the destruction command. The command is transmitted to the module via the RF module. It reaches. The antenna (38) receives the signal, the processor performs authentication and opens the power line. Power (39) When confirmed by the button, the power circuit generates power and transmits it to the fuse via line (40). Ignition 30 Once completed, the module automatically enters safe mode, disconnects the power supply, and goes into standby mode. It returns to its original position. The sensor module shown in Figure 6 (43–47) is the first sensing layer in the field and motion, It is the element that alerts the system by detecting temperature changes or microwave-based interference. sensor housing (47) Fresnel lens mounted on (44) wide-angle, distance sensitivity of the PIR detector It provides; the IR change coming through the lens is interpreted as movement. microwave sensor window (45) detects movements of the same volume using the Doppler principle; this pair (PIR + microwave) 5 This combination significantly reduces false alarms that individual sensors might give. sensor connection The module output via cable (43) is controlled by sensor control with water and shock resistant connectors. The signal is transmitted to the card (Figure 11); the signal lines on the cable are prevented from interfering by pre-coded pinning. Thanks to the mounting plate / rear housing (47), the sensor can be easily mounted on a pole or wall; The sensor elements are protected inside the front housing and cover (46); opening the cover is sufficient for maintenance. 10 To reduce the risk of interference / false alarms in field conditions, a short debounce occurs within the sensor. Software and hardware filtering is applied; also, outside temperature, wind, and small animals are considered. Adjustable sensitivity levels are available for its effects. It is usually powered by a 12V line. It is powered; short circuit and reverse current protection are configured on the board. The operation chain works as follows: When the sensor (44 / 45) detects motion, it generates an analog / digital pulse → this pulse connector (43) 15 The signal is transmitted from there to the sensor & tripwire control board → isolated on the board with optocouplers. Evaluated by ATMEGA88 (noise, repetition, simultaneous other sensor checks) → The verified alarm is transmitted to the main command device and appears as a warning on screen (2). Same At that moment the image transmission unit (Figure 8) directs the PTZ camera to the area; from the operator's (1) screen It confirms the live image. This sensor-camera fusion reduces false alarms and gives the operator 20 Provides rapid visual verification. Sensor positioning is critical in field applications: with Fresnel lens. PIRs should be placed at a height of 0.8–2 m, away from direct sunlight, heat sources, or moving vegetation. and positioned at the correct angle; the microwave window should be free of metal reflections in the surrounding area. It must be aligned. For safety reasons, the sensor module is monitored against mechanical damage. can do:(47) when removed from the fixing holes or the cable is cut, “line 25” is sent to the control board. The "disconnection" signal is sent, and the main device automatically marks this line as an alarm and maintenance request. Thus, the sensor not only detects something but also reports its own integrity. Figure 7 shows the camera subsystem used in the DLK-MEIS system. This module is used in the field. It is responsible for image surveillance, recording, and target verification tasks; a 30 of different camera types It is an integrated structure that works in between. IR LED (48) is infrared lighting that enables vision in the dark; it emits light in an invisible wavelength. And it activates automatically when the camera switches to night mode. It also illuminates the environment with white light. It illuminates. The fixed camera (49) is a wide-angle main observation camera that constantly monitors a specific point. 16 It is a camera. In addition, the manual 360° camera (50) can be rotated manually or via joystick. It allows for a panoramic scan of the surrounding area; usually near the center of the base area. The link camera (51) is positioned to connect these two camera groups and transmit images. It is a small-format bridge module that operates synchronously with the unit (Figure 8); it also serves as a backup line. It is used as. The PTZ camera (52) is a main movable camera with optical zoom that can be remotely controlled. It is the camera unit; it performs target tracking, zooming, and automatic scanning functions. The general operation of the camera system works as follows: each camera is powered from its own power line (12 V) and It sends a signal via the RJ45 line to the image transmission unit (Figure 8). This signal comes from the PTZ camera. The signals are processed through the control board before reaching the NVR; this ensures both image and image quality. Directional commands are transmitted over a single line. At night the IR LED (48) is automatically activated. When it enters, the image switches to black-and-white-color mode; with signals from the motion sensors (Figure 6). Simultaneously, the camera is pointed at that area. The cameras in the system are used for both fixed surveillance and event verification. Sensor line When triggered, the main device (Figure 1) receives the alert signal; the processor automatically switches to the relevant camera channel. brings it to the screen. The operator zooms in on the image via the PTZ camera (52) and the movement in the area is 15 It instantly assesses whether there is a real threat. The link camera (51) monitors network traffic. It stabilizes the image, ensuring uninterrupted transmission; it also transmits data to the NVR's backup recording line. It ships. All cameras have metal housings that comply with the IP66 dust and water protection standard. It is located inside. Mounting angles are predetermined; the fixed camera (49) is generally placed in the entrance or approach. The minister is positioned in the direction of the PTZ (52), which will perform a 360° scan. Thanks to this module, 20 DLK-MEIS not only detects the threat but also transmits a real-time snapshot of the event to the center, thus identifying the threat. It also identifies its direction and type. Figure 8 shows the image transmission unit in the DLK-MEIS system. This unit, It establishes a data bridge between the cameras in the field and the main command and control device; that is, the cameras 25 Everything it sees first passes through this module before reaching the center. The system carries both image signals. It also manages energy and control commands over the same line, thus reducing cable clutter. And the image delay is eliminated. (53) numbered transfer module is the basic board of the unit. It has a signal converter chip, ethernet It has an interface and PoE (Power over Ethernet) support. This allows both power and data to be transmitted through a single cable. 30 The data is transmitted via the module. The module converts the analog / digital image from the camera into an IP-based format. It compresses and routes the data to the NVR. It also securely connects with the main device using the system's own network identity. It communicates via the protocol (AES-encrypted). 17 Connection screen number (54) is the control panel that shows whether the module is active or not. LED indicators instantly display signal strength, connection status, and data transfer speed. In the field. When there is a network interruption or weak signal, the lights on this screen change color, providing a visual warning to the operator. Power cable number (55) is the power line of the module. The input section is usually in the range of 12-24 V. It works, but when the system is in PoE mode, power comes directly from the RJ45 line. This cable is 5 It can also be powered by an external power source or solar system when needed. Camera cable number (56) connects the image sources to the module. Each camera connects its own output to this. The signal is fed into the cable, then the module synthesizes this signal and sends it to the center over the network. These cables, It has a twisted pair (Cat-6) structure that provides low latency and is resistant to electromagnetic interference. It is protected. 10 Fixing point (57) allows the module to be mounted on a pole, wall or inside a vehicle. Since the module's position can affect the signal direction, the antenna or connecting cables should be avoided at this point. It is removed in a controlled manner; additionally, air ducts that prevent heat buildup inside the module are also located in this area. It is found. The image transmission unit works as follows in the field: The camera (figure 7) takes the image from the scene (56) 15 It transmits the signal to the transmission module via the line (53). The module processes, compresses and transmits the signal via the data line. It sends the image to the main command device via an RJ45 cable. Area numbered (1) on the main device's screen displays this image. It displays in real time; recording to the NVR is started at the same time. If the operator wishes, from the screen (54) It can monitor connection strength or test network status. Thanks to this structure, DLK-MEİS, 16 It can transmit the image simultaneously to the camera; the delay of each channel is 20 of 150 ms. It is below. In addition, if data loss occurs, the system retrieves the last 3 seconds of footage from the buffer memory. It resends the image. The image transmission unit operates flawlessly in outdoor environments ranging from -30°C to +60°C. It is water and dust resistant with an IP67 rating. It transmits images flawlessly from a distance of 5 km. Figure 9 shows the solar panel power unit of the DLK-MEIS system. This unit represents the system's energy output. It is the most important layer ensuring its independence. When there is no grid electricity in the mission area, this The module is activated and enables the device to operate continuously for 24 hours. The solar panel power unit... It combines energy production, storage, and energy management functions under a single umbrella. Solar panel number (58) is the energy source of the system. It converts sunlight into electrical energy and Manufactured from monocrystalline cells for maximum efficiency. The panel's outer surface is resistant to impact, rain, and 30°C. It is protected against UV rays with tempered glass. It is mounted at the most suitable angle according to the position of the sun. It is installed; its tilt is usually between 35–45 degrees. The panel stores energy in the battery during the day and at night. It switches to passive mode during certain hours. 18 Battery number (59) is the unit where the energy from the solar panel is stored. This battery pack is 12 Volt WATT 27600 mAH features LiFePO4 technology; high cycle life, low temperature. Its tolerance and safety provide an advantage in long-term field missions. The battery pack is DLK- MEIS includes all its modules —camera, sensor, siren, wireless destruction module and main control device— It provides the necessary power. The system includes a BMS (Battery 5) that protects the battery from overcharging and deep discharging. It is equipped with a Management System card. Connection cable number (60) transfers energy between the solar panel, battery and main command device. This cable has been selected for its double insulation, UV resistance, and low resistance properties. (61) Mounting bracket enables the solar panel to be mounted on the ground, wall or vehicle. The base is made of plastic composite and allows for adjustment of direction; thus, it can be positioned perpendicular to the sunlight. Alignment can be done accordingly. Anchoring points can be used to withstand wind loads on the ground. It is supported. Solar power unit: When sunlight hits the panel (58), the cells produce direct current. This The current is transmitted to the battery (59) via the current connection line (60). The BMS board in the battery regulates the current and It prevents overloading. When the main command and control device needs power, it uses power from the battery. First, it passes through voltage regulators, then it is sent to the device's power supply line. The solar power unit is 15. ensuring energy continuity in the field allows DLK-MEİS to operate "completely independently". This makes it possible, especially in border areas, base areas, forward observation points, or reconnaissance zones. It operates the system continuously without the need for electrical infrastructure. In sunny conditions, it lasts for 4-5 hours. The charge is equivalent to an average of 24 hours of duty time. The solar panel power unit shown in Figure 9 is DLK- The MEIS system provides not only energy but also continuity and tactical freedom of movement. The device has at least 20 The foundation for portable energy independence, one of its most important features, is laid thanks to this module; The system continues to function without needing any external resources. Figure 10 shows the early warning siren unit of the DLK-MEIS system. This unit is the system's audible alarm. and creates a visual warning layer; a perceived threat, approach or unauthorized movement in the field 25 When the system detects a threat and alerts the user, the user is immediately notified depending on the level of the threat. By emitting high-decibel sound and light signals into the environment, it creates both a deterrent effect and fulfills its duty. It alerts its personnel. The main unit of siren number (62) is the central part of the system. Inside it is a high-powered The unit includes a speaker, sound amplifier circuit, and module. The siren unit provides both high-pitched audible warnings in 6 different tones. It also produces a red flashing light (120-130 dB) when the light is connected. The sound tone is adjustable by the operator (30). The tones are customizable; three tones are selectable: “warning”, “alarm”, and “threat”. The audible warning frequency is also adjustable. It can be adjusted continuously, intermittently or in a wavy manner.(63) The loudspeaker is located on the front of the siren body. It is located in this part and spreads sound waves over a wide angle. Thanks to its specially designed reflector structure. The sound is distributed homogeneously throughout the area. The speaker diaphragm is made of waterproof material and is resistant to extreme conditions. 19 Even in humid or dusty environments, the sound quality does not deteriorate.(64) Fixing foot, siren It allows the module to be mounted on a pole, wall, or vehicle. The direction can be adjusted; thus... It is possible to concentrate sound or light in a specific area. Vibration-absorbing rubber on the foot. There are wedges which prevent loosening during long-term operation.(65) connection cable, It represents the line between the siren unit and the main command device. This line is numbered 5 (18) in Figure 2. It is connected to the output. The connecting cable carries both power and control signals. The siren sounds when the signal is received. The unit verifies the command via its own microcontroller, then activates the sound and light outputs. The line has overcurrent and short-circuit protection. The general operation of the system is as follows: A sensor (Figure 6) or tripwire (Figure 4) in the field. When triggered, the signal reaches the main command device. After the threat level is verified, the user receives a 10-minute signal. He sends a command by pressing button (5) on the siren line. This command is sent via the connecting cable (65) (62) The siren main unit receives this command, (63) through the loudspeaker It produces a loud alarm. This alerts both personnel in the vicinity and any potential intrusion attempt. It is noticed immediately. The system also has a "silent alarm" mode; in this case, the speaker is off. It remains. It draws its energy from the main device inside. It can operate for a long time with low power consumption. 15 In field conditions, the siren unit serves both as a deterrent and a signal transmission tool. For example... When approaching the border line in a base area, the user automatically activates the siren. Thanks to this warning, the central command and surrounding watchtowers are synchronized. The early warning shown in Figure 10. The warning siren unit in DLK-MEIS's security architecture serves both as a deterrent and a coordinating mechanism. It is a component. It is the most critical link in the field for the audiovisual alarm system; the passive 20 of the system. It represents the transition point from perception to active defense. Figure 11 – Sensor and Trip Wire Control Card (66-67) card, sensor and trip wire in the field It collects, processes and transmits the signals from the lines to the main command device. (67) Components: ATmega88 microcontroller, optocoupler isolation circuits, voltage regulator, fuse 25 and consists of LED indicators. The board is powered through the main fuse number (19) of the main device and In this way it is protected against overcurrent. All signals from the card are displayed on sensor screen (2). is displayed. Whenever a line is connected, the system automatically tests the activity of the line. Sensor (2) On the screen, intact lines appear in green, while broken or short-circuited lines appear in gray. Motion When motion is detected, a "Motion Detected in Sensor" warning appears on the screen, and a red 30 appears next to the corresponding line. A point appears. This card manages the DLK-MEIS's sensor network and tripwire detection and disposal unit. It filters the data from the sensors and transmits it to the processor, undertaking both detection and protection tasks. (67) Basic Components on the Card: 1. 1N4001 Diode: Provides reverse current protection and rectification functions. 2. 3WATT 100R Resistor: Serves as a high-power current limiter and voltage divider. 3. ATMEGA88 Microcontroller: This is the central processor of the board; it also controls the sensors and tripwires. It processes the signals and routes them to the relevant outputs. 5 4. AVX0805Y5V100N Capacitor: Performs power line filtering. 5. B82422T1334K000 Inductor: For noise suppression and power stabilization. It is used. 6. CHIPRES1K / CHIPRES10K: These are resistors for signal processing and current limiting. 7. CONN-SIL4, CONN-SIL5, CONN-SIL6: For sensor and tripwire connections. These are the connectors used. 8. FUSE: Provides overcurrent protection. 9. ICSP Port: Connection for uploading and updating software to the microcontroller. That's the point. 10. LM2575S-ADJ Voltage Regulator: Provides adjustable voltage regulation; 15 It ensures the stable operation of the circuit. 11. PC817 / PC817XNJNIP1 Optocoupler: Transmits input signals via circuit isolation. It transmits securely. 12. PCELEC330U35V440M / PCELEC470U35V550M Capacitors: Energy It serves the function of storing and suppressing voltage fluctuations. 20 13. SS34 Schottky Diode: Used for fast switching and low voltage loss. 14. TBLOCK-I2 / TBLOCK-I4 Terminal Blocks: For field sensors and tripwires. It provides the connection. 15. Veropin Connector Pins: Connectors used for measurement, testing, and maintenance purposes. These are the points. 25 Working Principle (67) The ATMEGA88 microcontroller, located at the center of the board, It processes signals from sensors. The signals, isolated using optocouplers, are then processed by the main unit. The voltage is safely transmitted to the processor or destruction module. Voltage regulator and capacitors. Thanks to this, the power line is stabilized and fluctuations are prevented.(19) The fuse card protects against overcurrent. It protects. Thanks to terminal blocks (TBlock), quick connection and disconnection operations are possible in the field. 30 It is possible. Veropin pins offer testing possibilities during maintenance. This control board is modular for the system. By enabling safe and rapid integration, it combines sensors, tripwires, and destruction circuits into a single system. It allows it to be controlled securely from the center. It operates with 5 volts. Each output(15) sensor and supplies the line to which the tripwire is connected with 12 volts. 21 Figure 12 – Wired / Wireless Detonator Control Card: Card number (68) is the card for both wired and wireless detonator control of the system. It manages wireless destruction operations and works in conjunction with the Detonator Control Screen (3). This screen consists of three separate pages: wired detonation page, wireless detonation page, and charge-destruction page. control page. The operator selects the line from these pages, loads the power, Charge (6) and Destroy (8) destruction. It gives the command.(68) The card has 8 wired ports and 8 Wi-Fi ports that manage wireless. 5 Each line is monitored separately by the microcontroller; power must be supplied to the line before it is activated or approved. The transfer does not occur. The card's main processor is ATmega128, communication module is TX480 RF, power... The part in question is the XL6008 DC-DC step-up circuit numbered (69). This circuit increases the voltage from 12 V to 54 V at the moment of destruction, sending power only to the selected line. The Charge (6) and Destroy (8) buttons are directly connected to this card; they will not be active without processor approval. 10 The system performs short circuit and line integrity tests for each line, then activates only the selected line. It includes relays, power transistors, optocouplers, voltage regulators, and LED indicators on the board. It also includes components such as a buzzer. The card can be reprogrammed via the ICSP port. (68) The basic components on the card are: 1. ATMEGA128 Microcontroller – Main Processor 15 2. TX480 RF Module – Wireless communication 3. ULN2003A – Relay and load driver integrated circuit 4. LM2596, TS78M05CP, XL6008 – Voltage regulators 5. 1N4007, 1N4148, SS34, 1N4733A – Diode group (protection and regulation) 6. PC817 Optocoupler – High voltage isolation 20 7. B82422T1334K000 – Inductor 8. Capacitors: AVX, PCELEC, HITEMP series (filtering and ripple protection) suppression) 9. Resistors: 1K, 10K, 220R, 330R, 100R, etc. 10. Relays: RTD14012F and equivalents 25 11. Buttons, Buzzer, LED indicators – User interface 12. Connectors: TBLOCK-12, TBLOCK-14, CONN-SIL2 / 4 / 5, Veropin pins 13. Crystal Oscillator (CRYSTAL FSM8JH) – Microcontroller clock source 14. ICSP Port – Programming connection Working Principle (68) The user selects which fuse to use via the screen (3) interface. (wired / wireless) selects which to fire. This selection is controlled directly by the microcontroller.(68) It is done. 22 The processor tests the circuit integrity, power level, and safety conditions of the selected line. Wired / wireless fuse control is provided via a single card (68).(3)Screen-based Misfires are prevented by selection and processor confirmation. The system uses independent channel logic for each fuse. He / She manages. Figure 13 – Wireless Detonator Card (70) card, electronic control of wireless destruction module 5 It is a unit. Wireless output line number (4) on the main command device, antenna (20) and number (68). It works via RF communication with the Fuse Control Card.(70) The card has a TX480 transceiver. The module receives the destroy command from the central unit; after the microcontroller authenticates, It only processes commands associated with its own ID. Each line is assigned to a single wireless detonator line, and its ID... It is identified in the system by its number (ID). The power and signal lines operate independently; incorrect command, interference 10 Or, the explosion will not occur due to external signal influence. The card has a low-current test line; When a test signal is sent from the center, only the control LED lights up; ignition does not occur. (Fuses) It is controlled via this card. Thanks to this structure, the wireless detonator card number (70) can be controlled in every field. It enables the separate and secure management of the destruction module. The DLK-MEIS system thus allows, It can perform processor-approved, authenticated destruction remotely without laying cables. 15 The card(70) can be reprogrammed via the ICSP port. The card(70) has 3 x 14500 mAh It runs on AA batteries. The main components on the card are: • 1N4001 → Diode (for reverse current protection, rectification) • ATMEGA88P → Microcontroller (main control unit, manages the entire system) 20 • AVX0805X7R100N → Capacitor (filtering, voltage stabilization) • BC817-40 → Transistor (switching functions) • CHIPRES10K / CHIPRES220R → Resistors (current limiting, logic circuit) determination) • CONN-SIL4 → Connection connector (for external connections) 25 • DIPSW_4 → DIP Switch (setting selection) • ICSP → Programming port (microcontroller software upload) • BOX RELAY → Relay module (high current / voltage switching) • LED → Status indicator • RELAY → Relay 30 • RX480 → Probably the communication module (you may need to check the model code) • TBLOCK-I2 → Terminal block (external ports) 23 • TS78M05CP → 5V Regulator (regulates the supply voltage) • VEROPIN → Pin connections “The control board developed within the scope of the invention consists of a microcontroller (ATMEGA88P), rectifier diode. (1N4001), voltage regulator (TS78M05CP), various resistors (10kΩ, 220Ω), capacitors, relays, LED indicators, transistors (BC817-40), DIP switches, ICSP programming port and 5 It consists of communication modules. Figure 14- (71) Camera Monitoring Screen / NVR: This is the non-touch main monitoring screen. Figure 7 It receives images from the camera modules in and 8, records them with the built-in NVR, and displays the image. It transmits to an external monitor / HDMI output. The monitoring interface can be divided into 4 or 16-segment monitoring; The operator can enlarge the desired channel or activate the automatic scan mode. (71) number 10 The screen is directly connected to the image transmission unit (Figure 8) and the camera system (Figure 7).(72) Sensor and Detonator Control Screens: Full touch interface and includes 3 separate worksheets: left The right side is connected to the sensor / tripwire monitoring page; the right side is connected to the detonator control interface. Sensor The page communicates directly with the Sensor & Trip Wire Control Board shown in Figure 11; the lines are active / passive. The statuses, “Motion Detected” messages, and red dot indicators are visible here. Fuse 15 The control page is linked to the Wired / Wireless Detonator Control Board in Figure 12; this page Access is provided via a password screen (user authentication) for security purposes. The screens are located in the field. Visually tracking any target / object and related modules (cameras, sensors, detonators) (control lines) can be used for single point linking purposes. Data between (71) and (72) and The control line carries image, sensor, and command traffic using secure protocols. 20 Figure-15 Two-way Communication Unit: (73) Microphone and Speaker: Center and field personnel It enables voice communication between them. (74) On / Off Button: Active / passive of the communication unit (75) Position Communication Unit: Provides voice response from field personnel to the center. It is the unit used to give.(76) Two-Way Communication Unit: The central device and the field 25 It enables two-way data and voice communication between personnel. Communication via 4 channels up to 750 meters. It offers the opportunity. 24 Description of the Invention DLK-MEIS (Dölek Guard Security and Destruction System) is a portable box for use in the field. Located within, it was quickly established and provides 360° perimeter security within a 400-meter radius. Energy 5 provides multi-layered sensing, detection, warning, and elimination tasks, all managed from a single center. It is an independent, multi-layered surveillance-detection-destruction security system. The system consists of sensor modules (Figure-6), tripwire units (Figure-4), wired destruction outputs (16), wireless detonator modules (Figure 5), AI-powered camera system (48–52), early warning siren (62) and two-way communication unit (76) and solar power system which provides their energy needs. It consists of (58–60) components. All components are managed by a single Main Command and Control Device 10 It is done through. The device's on-site installation is designed with the system's portability in mind. The user device Holding it by the carrying handle (24), place it on a flat surface. Then, the second box, the connector and He brings the equipment box next to the device. 15 Before installation, the user visually inspects the main device and all equipment. The exterior of the device... It ensures there is no deformation at the connection points, cables, or antennas. The energy level is checked via the charge status display (21) on the front of the device. If the battery level is low, the solar panel (58) is connected to the battery pack (59) via cable (60). An average of four to five hours of charging in sunlight provides twenty-four hours of uninterrupted duty time. 20 After the power connection is made, the device's locking latches (23) are opened, the cover is lifted up and The control panel appears. On this panel are the monitoring screen (1), the sensor control screen (2) and the detonator control. The screen (3) is located. Below the screens are the communication unit (76), processor board (67-68), regulator (69) and It contains a battery pack. The operator activates the system by pressing the on / off button (7). When the device is energized, the main The processor (67-68) tests itself. During this process, which lasts about one minute, the system sequentially tests the sensor card. (67), camera transmission unit (53), communication unit (76) and destruction card (68) bidirectionally activates the communication unit (76). When the test is completed, the system components are displayed on the screens. The status is indicated in green; red means a missing connection or malfunction. 30 After the user sees that the system is working, they open the connection box. Inside the box is a sensor. modules (Figure-6), TTIS units (Figure-4), wireless destruction lines (Figure-5), siren unit (62) and Camera connection cables (53–57) are included. The installation sequence begins with the wireless image transmission unit (53). This unit is located near the main device. It is fixed to a high point. The data line (9) and power line (17) coming out of it connect the main device. It is plugged into the port. When this connection is made, the device's (54) connection status screen gives a green warning. The user then connects four field lines from output number 15 located on the rear of the main device. It pulls. Each line is approximately three hundred meters long. One end of the lines is connected to the main device (15), the other end to 5 It is connected to the TTIS unit (34) in the field. The TTIS unit is fixed to a ground stake. From this unit to the right and is pulled by attaching it to the end of a twenty-meter long trip wire (26) to the left. After the wire is fixed Then the safety pin (32) is removed to activate the system. In this way, the second layer of the system is The environmental detection line is activated. The user then lays seventy-five meters of cable as a continuation of the three hundred meter line, and the line becomes 10 One end connects to the TTIS unit (35). The other end connects to the sensor module (43). The sensor is located in the terrain. Depending on its structure, it is mounted at a height of 0.8–2 meters. Once the sensor connection is complete, the main device The indicator for that line on the screen will turn green. Gray means there is no connection, or a faulty connection. The same process is repeated for the three lines in the other directions. Thus, the system covers a 360° circumference with four lines. It has a directional sensing layer. In this way, the first layer of the system, environmental sensing, is 15 The line is put into operation. The destruction unit setup is the third layer of the system. Eight fuses exit from the fuse output ports (16) The destruction line is laid to the target points in the field. Each line is one hundred meters long. The other end of the cable... When the tip is connected to the fuse module, the line on the screen turns orange. This indicates that the line is intact. and indicates that the detonator circuit is active. In addition to the wired system, wireless destruction modules (Figure-5) are used in areas where it is difficult to lay cables. These modules are placed. After receiving power, their antennas (38) are brought to an upright position and connected to the main device. Identity matching is performed. The module is ready for use. At the fourth layer, the user installs the camera system (48–52). The camera system covers a range of 0–5 km with 25 It is positioned in a way that allows monitoring. The PTZ camera (52) has a 360° rotation angle. The camera A solar panel (58) is attached to it and the image transmission unit (53) is directed to the main device. The operator at the main device turns on the monitoring screen (1), switches to scanning mode and connects the cameras to the system. It introduces the system. When image transmission begins, the camera system also becomes active. Then the communication line is established. The communication unit (76) is the voice line between the center and the position. It enables communication. One end of the line is connected to the port of the main device, the other end to the talk unit (75) in the position. The connection is established. Once the connection is made, two-way voice communication is provided between the center and the outpost. 26 In the final stage, the user connects the siren unit (62) to the main device with the connection cable (65). The siren is activated for everyone. It is mounted at a height that can be heard. In test mode, the siren button (5) is pressed to activate the sound and light. The warning will be checked. Once the entire installation is complete, the system enters “Mission Mode”. 5 When a sensor or tripwire is triggered: 1. Sensor & Stumble card (67) processes the signal. 2. The corresponding line will light up red on the main device's (2) screen, and the alarm sound will be activated. 3. The camera (52) automatically turns to that area; (1) live view is displayed on the screen. 4. If the operator confirms the threat, he activates the siren with button (5). 10 5. If necessary, the destruction line is selected from screen (3); with the (6) charge and (8) destruction buttons. The threat is neutralized. 6. The incident is recorded on the NVR, and a report file is created. This process is entirely processor-controlled; incorrect ordering of commands is prevented. 15 The final assembly process is the exact opposite of the setup. First, the destruction lines are disabled, Then the siren, cameras, communication units, and screens are switched off. Sensor and TTIS lines are disconnected. The trip wires (26) are loosened, the pins (32) are inserted and the cables are gathered and placed in the junction box. Finally, the main device cover is closed, the locking latches (23) are closed and the pressure valve (22) is tightened. The device is made portable. System; • Provides 360° security within a 400-meter radius. • It carries out the detection-diagnosis-neutralization process in 4 layers, • Records and reports events to the NVR, 25 • It enables the effective use of early warning communication units up to 750 meters. • It transmits real-time images to the command center. • Powered by solar energy, it operates continuously for days. The system consists of 6 parts and has a total weight of 85 kg. DLK-MEİS brings the concept of "portable base protection architecture" to the field, unlike fixed systems. 30 and combines multiple security tasks in a single device for the modern battlefield. DLK-MEİS is thus an energy-independent, multi-layered system that can be installed and operated by a single employee. The base area is a security and destruction system. 27 How the invention can be applied to industry. DLK-MEİS (Dölek Guard Security and Destruction System) is used in the defense, security, and energy sectors. It is a portable and energy-independent security system developed for use in the field. Military units requiring rapid deployment, temporary base areas, border posts, radar and communication 5 for the protection of facilities, ammunition depots, critical power plants and strategic facilities applicable. The system includes sensor modules, tripwire units, wired and wireless demolition modules, and a camera system. It consists of components such as a siren and communication unit, all under a single main command and control. It is managed via the device. 10 Thanks to its portable design, the device can be installed quickly by a single person, 400 It can provide 360° perimeter security within a radius of one meter. DLK-MEİS is suitable for industrial application in terms of production. All its parts are modular and It has a replaceable structure. The electronic boards, power units, and outer casing are made using domestic industrial infrastructure. It has been designed to be suitable for mass production using high-strength composite materials. It is manufactured with high-quality materials, and its electronic components have an IP65 protection standard. The energy needs are met by a solar panel and battery pack, thus eliminating dependence on external energy sources. Long-term operations are possible. City electricity or vehicle power supply can be used when necessary. It can also be operated via [link / website]. It requires little maintenance, and each part can be easily removed and reinstalled in the field. 20 DLK-MEIS, unlike existing fixed systems, is a mobile base protection architecture with its portable structure. It brings this understanding to the field. Because the system carries out detection, identification, warning, and elimination tasks from a single center, it saves on manpower. It also saves energy. Thanks to these features, it is used in the defense industry, border security, critical facility protection, disaster areas and 25 It can be used effectively to enhance security in temporary operational areas. The invention can be mass-produced using domestic manufacturing capabilities, and maintenance and logistical support can be easily provided. It is of a certain quality. DLK-MEIS is an economical, portable, energy-efficient system that can be used in military and civilian security applications. As an independent and multi-layered security system, it demonstrates full applicability to industry.

Claims

28 REQUESTS Claim 1: The invention relates to the construction of base areas, temporary bases, outposts, and critical structures in the modern battlefield. It is a portable main command and control device for the protection of operational areas; multi-camera display screen (1), sensor and tripwire tracking screen (2), detonator Ignition screen (3), Wi-Fi on / off button (4), siren button (5), charging button (6), 5 ON / OFF button (7), destroy button (8) and screen display transmission input RJ45 (9)It includes a multifunctional panel with a two-way communication unit(76); its feature is that All the components are integrated into a single portable box. It is a matter of working independently or as an employee. Claim 2: The device in Claim 1; sensor and tripwire statuses are displayed on screen (2) 10 It is monitored over time. Request 3: The device in Request 1; wired / wireless detonator modules via screen (3). The ignition is controlled by selection. Request 4: The device in Request 1; fixed, manual and PTZ cameras via screen (1) The images are viewed. 15 Requirement 5: This is the device from Requirement 1; the on / off button (7) controls the power of the device. Request 6: The device in Request 1; the destroy button (8), only the charge button (6) is activated. Once delivered, it is protected by a two-stage security procedure to ensure it is operational. Request 7: The device in Request 1; button (4) activates the wireless communication (Wi-Fi) module. takes / subtracts. 20 Request 8: The device in Request 1; button (5) controls the early warning siren. Request 9: The device in Request 1; (9) Screen image via RJ45 video transmission input. It is transferred to external systems. Request 10: The device in Request 1; it has a display power input (10), HDMI output (11), 12V outlet (12), charging input (13), RJ45 jack input (14), sensor and tripwire outputs (15), wired 25 destruction outputs (16), camera trigger output (17), siren output (18), fuse (19) and antenna connection It includes a rear panel (20). Request 11: The device in Request 10; panel displays via display power input (10) They are provided with food. Request 12: The device in Request 10; the image is displayed to external screens via HDMI output (11) 30 is transferred. 29 Request 13: The device in Request 10; 12V output (12) for powering external devices. It is used. Claim 14: The device in Claim 10; charging input (13) and battery via mains or vehicle. It is charged. Request 15: The device in Request 10; RJ45 jack input (14) internet, network and image transmission 5 It is a purpose-built connection port. Request 16: The device in Request 10; sensor and trip outputs (15) transmit data to the units in the field. and enables energy transfer. Claim 17: The device in Claim 10; detonator modules via wired destruction outlets (16). It is triggered. 10 Claim 18: The device in Claim 10; camera trigger output (17) in external camera systems It starts simultaneous recording. Claim 19: The device in Claim 10; siren output (18) drives external siren units. Claim 20: The device in Claim 10; fuse (19) provides electrical protection for the device. Claim 21: The device in Claim 10; antenna connection (20) wireless communication antennas 15 It is the point where it connects. Claim 22: The device in Claim 1, a portable device with a battery status display (21). It includes a power system. Claim 23: The device in Claim 22; by balancing the internal pressure with the pressure valve (22) safe It provides work. 20 Claim 24: The device in Claim 22; the device cover is securely fastened with the locking latch (23). Claim 25: The device in Claim 22; the device can be easily transported in the field with the carrying handle (24). Claim 26: Device from Claim 1; Trip Detection and Elimination System (TDS) module (25–37) It identifies environmental threats. Claim 27: The device in Claim 26; tripwire module (25) via flat ground tree 25 It is secured to the body. Claim 28: This is the device described in Claim 26; it processes trip detection via an electronic control unit. Request 29: This is the device in Request 26; data is transmitted to the center via the wireless communication unit (34). Request 30: This is the device in Request 26; the destruction module is triggered via the fuse outlets (36). Claim 31: The device in Claim 26; multiple detection is performed with tripwire inputs (26). Claim 32: This is the device from Claim 26; it operates independently with the battery module (34,36). Claim 33: The device in Claim 26; siren linkage (36) gives early warning. Claim 34: The device in Claim 26; communicates wirelessly via antenna (34). Claim 35: The device in Claim 26; it is powered via the charging port (34). 5 Claim 36: The device in Claim 26; fuse (34) provides electrical protection. Claim 37: The device in Claim 26; it is transported safely on site in its housing (29). Claim 38: The device in Claim 1; includes wireless tactical destruction module (38–42). Claim 39: This is the device in Claim 38; it provides wireless communication via antenna (38). Request 40: This is the device in Request 38; the destruction module is triggered by the fuse link (40). 10 Claim 41: The device in claim 38; the power input (42) provides independent power. Claim 42: The device in claim 38; fuse (42) provides electrical safety. Claim 43: This is the device described in Claim 38; the device is activated via the on / off and fuse control button. It is checked and verified. Claim 44: The device in Claim 1; motion with PIR and microwave sensor module (43–47) 15 perceptions. Claim 45: This is the device described in Claim 1; it provides 360° surveillance with camera systems (48–52). Claim 46: The device in Claim 1; image transmission unit (53–57) and wireless / wired It transmits images. Claim 47: The device described in Claim 1; it generates its own energy using solar energy units (58–61). 20 Claim 48: The device in Claim 1; it gives a deterrent warning in the field with an early warning siren (62–65). Claim 49: This is the device described in Claim 1; it detects drones and identifies mini-UAVs. Claim 50: The device described in Claim 1; a wireless sensor for tunnel and cave operations. It facilitates spread. Claim 51: The device described in Claim 1; electronic warfare module and enemy signal jamming 25 It works against the grain. Claim 52: This is the device described in Claim 1; it includes secure software and encryption to protect against cyberattacks. 31 Claim 53: The device described in Claim 1; it determines the direction of fire using an acoustic detection system. Claim 54: The device described in Claim 1; equipped with mine / IED detection sensors to detect explosives in the field. perceptions. Claim 55: The device described in Claim 1; satellite-assisted communications and network-centric warfare. It is connected to the integration. 5 Claim 56: According to Claim 1; the solar panel and charge controller (58) and the external system Energy-independent nutrition. Claim 57: The device is connected to Claim 55; the energy stored in the battery pack (59) is supplied to the system. Transfer to its components. 10 Request 58: In accordance with Request 1; incident reporting infrastructure to central headquarters in real time. sending the logs (sensor ID, timestamp, location, AI result) in encrypted form and archiving. Request 59: A device connected to Request 1; operating on multiple communication channels. (Wi-Fi / 4G / 5G / mesh / satellite) multipath transmission and automatic channel 15 in case of connection drop. Failover operation. Claim 60: According to Claim 1; for use by being fixed to the vehicle or while in motion. assembly / power units including vibration / shock filtering and power surge isolation ensuring. Claim 61: According to Claims 1 and 2; independent TTIS (25–37) vehicle / base / cave applications 20 remote secure arming, safe disarming and GPS-based location / speed verification. Ensuring safe use on mobile platforms. Claim 62: This is the device described in Claim 1, characterized by its software interface having multilingual support. It is to present. Claim 63: This is the device from Claim 1, and its feature is automatic fail-safe in case of connection interruption. It is possible to initiate the destruction procedure. Claim 64: The device described in Claim 1, characterized by its ability to record images using artificial intelligence algorithms. Prioritization allows for automatic zooming and recording upon detecting people or weapons. is the ability to do it. Claim 65: The device described in Claim 1, characterized by its chemical and biological sensor modules and gas 30 or its ability to detect toxic substances. 32 Claim 66: This is the device described in Claim 1, and its characteristic is to store event logs in an immutable manner. It is possible to use a blockchain-based record system. Claim 67: The device described in Claim 1, whose characteristic is; all via mobile application. Its purpose is to enable the management of its functions. Claim 68: The device described in Claim 1, which is an alternative to wind turbine or fuel cell. It is able to operate using energy sources. Claim 69: The device described in Claim 1, characterized by its power generation via foldable portable solar panels. its ability to produce. Claim 70: This is the device from Claim 1, and its feature is that it automatically tests its own sensors and outputs upon startup. It includes a self-diagnosis module. 10 Claim 71: The device described in Claim 1, characterized by its direct integration into the power system of military vehicles. It is the ability to function by being able to do so. Claim 72: The device described in Claim 1, whose feature is virtual reality (VR) or augmented reality. It works in conjunction with (AR) glasses, enabling the operator to visualize the field. It is a verification. 15 Claim 73: The device described in Claim 1, comprising a thermal camera module, sensor, and tripping system. targeting via heat signatures and movements in night, foggy and low visibility conditions. It is the ability to perceive. Claim 74: The device described in Claim 1, characterized as a remotely controlled or automatic weapon. It can be integrated with the towers. 20 Claim 75: This is the device from Claim 1, and its feature is biometric security for user authentication. It includes systems such as fingerprint and iris recognition. Claim 76. According to Claim 1; the device must have a touchscreen and the operator... Menus, camera images, sensor data, and destruction modules are controlled directly by touch. It can be managed via the interface. 25 Claim 77. According to Claim 66; the touchscreen on the device allows multiple page switching. support and operator's different function screens (camera, sensor, destruction, energy) equipped with an interface that allows for quick switching between (management, etc.) being. Claim 78. According to Claim 67; the touch screens on the device can be accessed by the user on demand for 30 days. It has customizable interfaces and allows the operator to customize the menu layout and functions. It can configure icons and screen arrangements to suit needs. 33 Claim 79. The device in Claim 1, and the camera monitoring panel screen (1) located on the device. Images from fixed, manual, and PTZ cameras are monitored in real-time via this system, and at least Recording is done via an NVR unit with a 320 GB hard disk capacity. Claim 80. The device in Claim 1, and the sensor control screen (2) on the device. The real-time status of seismic, infrared, microwave, and tripwire sensors is displayed, and 5 Alarm / warning information is transmitted to the user. Claim 81. The device in Claim 1, and the detonator control screen (3) on the device. Security verification by the processor by selecting wired and / or wireless fuses. Then the ignition process is carried out. Claim 82. The camera monitoring panel display in Claim 79 is a non-touch panel. 10 It is of a type that allows for retrospective viewing of recordings and comparison of different camera images. It enables the transition. Claim 83. The sensor control screen in Claim 80 is touch-sensitive and can be accessed with gloves. Provides precision optimized for use. Request 84. The detonator control screen in Request 81 is only available after user authentication. then it becomes active and the processor-based safety software prevents accidental firing. has. Request 85: The device in Request 1; with central-site two-way voice communication (73-76). It establishes communication between the operator and the soldier. Request 86: Request 1 is a connected device; 20 location-specific lines over addressable lines. The ability to make announcements and for the operator to speak directly with field personnel.