Intelligent portable catcher capable of containing stray animals

Abstract

The utility model discloses an intelligent portable catcher capable of containing stray animals, which comprises an enclosure cage and an animal containing bag, and the tail end of the enclosure cage is connected with the front end of the animal containing bag through a buckle; the enclosure cage is rectangular, an animal inlet is formed in the front end of the enclosure cage, the enclosure cage is connected with a cover through a spring hinge, a food inducing box and a touch pedal are sequentially arranged at the front position of the bottom of the enclosure cage from back to front, and the touch pedal is arranged at the front end of the food inducing box, namely the position close to the food inducing box; infrared sensors are arranged on stand columns on the two sides of the front end of the enclosure cage respectively, and a camera is fixedly arranged on the outer surface of the upper portion of the front end; the side, connected with the surrounding cage, of the containing bag is provided with a drawing belt, and the other side of the containing bag is connected with an Elizaban ring through a buckle. Safe accommodation can be realized; remote monitoring can be realized; and data analysis and optimization are carried out.

Description

TECHNICAL FIELD

[0001] The utility model relates to a kind of vagrant animal catching tools, in particular to a kind of intelligent portable containment vagrant animal's catcher. BACKGROUND

[0002] With the rapid development of China's social economy, urbanization process is accelerating, and the problem of vagrant animals is becoming increasingly serious, which has brought challenges to urban environment, residents' life and the survival of animals themselves.

[0003] Due to the fear and vigilance of vagrant animals to humans, traditional vagrant animal catching methods often have low efficiency, complex operation, unnecessary harm to animals and other problems. During the transfer process, animals and workers are easily injured, which has significant safety hazards. UTILITY MODEL CONTENT

[0004] To solve the above problems, the utility model provides a kind of intelligent portable containment vagrant animal's catcher machine, which realizes efficient and safe catching of vagrant animals by integrating multiple modern technologies, and has remote monitoring and data analysis functions.

[0005] The technical scheme of the utility model is as follows:

[0006] An intelligent portable containment vagrant animal's catcher includes a cage and an animal containment bag, the tail end of the cage is connected to the front end of the animal containment bag through a buckle;

[0007] The cage is rectangular, the front end is an animal entrance, and a cover is connected through a spring hinge, an attractant box and a touch pedal are sequentially arranged from back to front at the front position of the bottom of the cage, the touch pedal is arranged at the front end of the attractant box, i.e. close to the attractant box; infrared sensors are arranged on both sides of the front end of the cage, and a camera is fixedly arranged on the outer surface of the upper part of the front end;

[0008] The side of the containment bag connected to the cage is provided with a drawstring, and the other side is connected to an Elizabeth ring through a buckle;

[0009] The top of the cage is provided with a control system, the control system is connected to the camera, infrared sensor, touch pedal and cover through lines and controls them; a solar panel, a battery and a Wi-Fi or 4G module are arranged on the control system.

[0010] The middle part of the cage is provided with a telescopic part.

[0011] The containment bag is a scratch-resistant nylon containment bag, and a zipper is arranged on the upper part of the containment bag; the Elizabeth ring has a small opening on one side facing the cage and a large opening on the other side away from the cage.

[0012] Compared with the prior art, the utility model has the beneficial effects of:

[0013] 1. High efficiency of capture: by integrating multiple modern technologies, the utility model realizes efficient capture of stray animals, reduces operation complexity and unnecessary harm to animals.

[0014] 2. Safe containment: the design of the anti-bite nylon containment bag and the Elizabeth ring ensures the safety of the animals during the containment process.

[0015] 3. Remote monitoring: the device is remotely monitored and data is transmitted through Wi-Fi or 4G modules, which facilitates real-time monitoring and instruction sending by operators.

[0016] 4. Simple structure, reusable, cost and labor saving. BRIEF DESCRIPTION OF DRAWINGS

[0017] Figure 1 The structure diagram of the utility model. DETAILED DESCRIPTION

[0018] As Figure 1 shown: a kind of intelligent portable can contain stray animal's capture, including the cage 1 and animal containment bag 2, the tail end of the cage 1 is connected with the front end of the animal containment bag 2 by buckle 3;

[0019] The cage 1 is rectangular, the front end is animal entrance, is provided with cover 15 by spring hinge connection, the front position of the bottom of the cage 1 is sequentially provided with bait box 14, touch pedal 16 from back to front, touch pedal 16 is arranged at the front end of bait box 14, i.e. the position close to bait box 14;The infrared sensor 12 is arranged on the upper surface of the front end of the cage 1;

[0020] The side of containment bag 2 connected with cage 1 is provided with drawstring 31, and the other side is connected with Elizabeth ring 24 by buckle 3;

[0021] The top of the cage 1 is provided with control system 4, and the control system 4 is connected with camera 13, infrared sensor 12, touch pedal 16 and cover 15 by wire and controlled.

[0022] The middle part of the cage 1 is provided with telescopic part 11. During use and transportation, it can be expanded or reduced according to needs.

[0023] The containment bag 2 is an anti-bite nylon containment bag 2, and the upper part of the containment bag 2 is provided with zipper 25;The Elizabeth ring 24 is small on one side and large on the other side, and the direction of the cage 1 is away from the cage 1.

[0024] A control method for an intelligent portable catcher capable of catching stray animals is as follows:

[0025] Step 1: Initialization and Standby

[0026] Device startup: When the capture device is connected to the power supply (such as through solar panel charging), the control system automatically initializes and checks the working status of each component, such as the camera, infrared sensor, and touch pedal.

[0027] Standby mode: After initialization, the catcher enters standby mode and waits for the animal to approach;

[0028] Step 2: Animal Detection and Identification

[0029] Camera capture: When an animal approaches the enclosure, the camera begins to capture image information of the animal;

[0030] Information transmission: The camera transmits the captured animal information to the control system;

[0031] Animal identification: The control system compares and identifies captured animal information based on a pre-set animal information database, including the animal's species, size, and characteristics;

[0032] Determine whether capture is necessary: ​​If the animal is within the capture range, the control system proceeds to the next step; if the animal is not within the capture range, the cage cover remains open to avoid accidental injury.

[0033] Step 3: Trigger the arrest mechanism

[0034] Infrared sensor detection: If an animal is identified as a target to be captured, the infrared sensor continues to detect whether the animal has entered the enclosure.

[0035] Touch pedal trigger: When an animal steps on the touch pedal, a trigger signal is sent to the control system;

[0036] Cage lid closing: After receiving a trigger signal, the control system immediately controls the cage lid to close, trapping the animal inside the cage;

[0037] Step 4: Remote Confirmation and Containment

[0038] Information transmission: The control system sends animal information and videos to a mobile client for operators to view and confirm; if the captured stray animal is the target animal, personnel will quickly go to handle it; if it is not the target animal, the cage door can be opened remotely.

[0039] Step 5: Animal restraint and safety

[0040] Elizabeth circle fixation: After the animal's head enters the Elizabeth circle, the veterinarian can fix the size of the circle according to the size of the animal and the size of the mouth, ensuring that the animal cannot bite or injure itself;

[0041] Safety monitoring: The control system continuously monitors the animal's state to ensure its safety and comfort in the holding bag;

[0042] Step six, record and analysis

[0043] Information recording: The control system records the time, location, animal species, success / failure status of each capture, and the triggering information of the infrared sensor and touch pedal, and saves it to the database for classification and induction;

[0044] Data analysis: The operator can analyze the recorded information,

[0045] Clean and organize the collected data, remove invalid or incorrect data; optimize the capture strategy, use the animal images and videos captured by the camera for subsequent animal behavior analysis; record the triggering of the infrared sensor and touch pedal to understand the triggering behavior and pattern of the animal.

[0046] The data analysis is:

[0047] Step one, data analysis and mining

[0048] Behavior pattern analysis:

[0049] By analyzing the animal images and videos captured by the camera, identify the animal's behavior patterns, such as walking route, stay time, triggering behavior; combined with the triggering records of the infrared sensor and touch pedal, further verify and refine the animal's behavior patterns;

[0050] Capture efficiency evaluation: According to the success / failure status of the capture, evaluate the capture efficiency under different time, location, animal species;

[0051] Analyze the reasons for capture failure, such as animal escape, equipment failure;

[0052] Correlation analysis: Mine the correlation between animal behavior patterns and capture efficiency, such as certain behavior patterns may lead to higher capture success rate;

[0053] Analyze the impact of different environmental factors (such as weather, season, light, etc.) on capture efficiency;

[0054] Step two, learning and optimization

[0055] Model training: Use machine learning or deep learning algorithms to train the collected data to build an animal behavior prediction model; through the model to predict the animal's behavior pattern and capture efficiency, provide scientific basis for subsequent capture strategy;

[0056] Strategy optimization: Based on data analysis results, optimize the capture strategy, such as adjusting the position and type of bait box, improving the sensitivity of touch pedal, etc.; for different types of animals, develop personalized capture plan to improve the success rate of capture;

[0057] Step three, continuous monitoring and feedback

[0058] Real-time monitoring: During the capture process, real-time monitoring of the working state of the system and the behavior pattern of the animal is carried out to ensure the smooth progress of the capture process;

[0059] Feedback adjustment: According to the real-time monitoring results and the capture effect, timely adjustment of the capture strategy and equipment parameters is carried out to ensure the stable improvement of the capture efficiency;

[0060] Continuous learning: new capture data and analysis results are incorporated into the system for continuous learning and optimization of capture strategy to adapt to changes in different environments and animals.

[0061] The tail end of the enclosure is connected to the front end of the animal holding bag through a buckle, which can facilitate the removal and installation of the holding bag. Embodiment

[0062] I. Device startup and standby

[0063] Device startup: when the trap is powered on (such as charged by solar panel), the control system automatically initializes. During this process, the control system will check the working state of the camera, infrared sensor, touch pedal and key components to ensure that they are in normal state.

[0064] Standby mode: after initialization, the trap enters standby mode. At this time, the enclosure cover remains open, the camera and infrared sensor are in low-power monitoring state, and the animal is waiting for the animal to approach.

[0065] II. Animal detection and identification

[0066] Camera capture: when the animal approaches the enclosure, the camera starts to capture the image information of the animal. These image information will be used for subsequent animal identification and behavior analysis.

[0067] Information transmission: the animal information captured by the camera is transmitted to the control system through wireless mode. After receiving these information, the control system will carry out preliminary processing and storage.

[0068] Animal identification: The control system compares and identifies the captured animal information based on the preset animal information library (including the species, size, characteristics, etc. of the animal). If the animal is within the capture range (such as stray cats and dogs), the control system will enter the next capture process; if the animal is not within the capture range (pet cats and dogs), the control system will keep the enclosure cover open to avoid injury.

[0069] Three, trigger capture mechanism

[0070] Infrared sensor detection: If the animal is identified as a target that needs to be captured, the infrared sensor will continue to detect whether the animal has entered the enclosure. The infrared sensor has high precision and low power consumption characteristics, and can accurately detect the position and movement trajectory of the animal.

[0071] Touch pedal trigger: When the animal steps on the touch pedal, a trigger signal is sent to the control system. The touch pedal is designed to be sensitive and durable, and can accurately identify the stepping action of the animal and trigger the capture mechanism.

[0072] Enclosure cover closing: After receiving the trigger signal, the control system immediately controls the enclosure cover to close. The enclosure cover is made of high-strength material and has sufficient strength and stability, ensuring that the animal cannot escape during the capture process.

[0073] Four, remote confirmation and accommodation

[0074] Information sending: The control system sends animal information and video to the mobile client for the operator to view and confirm. The mobile client has functions such as real-time viewing and remote control, making it easy for operators to monitor and manage the capture process.

[0075] Remote instructions: The operator sends remote instructions through the mobile client to control the next operation of the capture device. These instructions include releasing the enclosure cover.

[0076] Five, animal fixation and safety

[0077] Elizabeth circle fixation: After the animal's head enters the Elizabeth circle, the staff automatically adjusts and fixes the Elizabeth circle according to the animal's neck condition. The design of the Elizabeth circle can prevent the animal from biting or self-injury, ensuring the safety of the operator and the comfort of the animal.

[0078] The worker can drive the animal into the holding bag, then pull the drawstring, which is made of high-strength material, has enough pulling force and wear resistance, can transfer the animal from the enclosure to the holding bag, prevent the animal from returning to the enclosure, the holding bag is made of soft and breathable material, can ensure that the animal feels comfortable and safe during the holding process. The worker can open the zipper on the upper part of the holding bag to take out the animal and transfer it to the next place where it needs to be transferred. Safety monitoring: the control system continuously monitors the animal's state, including heart rate, respiration, and other vital signs. If the animal appears abnormal, the control system will immediately issue an alarm and notify the operator to handle it.

[0079] Six, record and analysis

[0080] Information recording: the control system records the time, location, animal species, capture success / failure status, and infrared sensor and touch pedal trigger record information of each capture. These information will be saved to the database for classification and induction.

[0081] Data analysis:

[0082] Behavior pattern analysis: by analyzing the animal images and videos captured by the camera and the trigger record information of the infrared sensor and touch pedal, the animal's behavior patterns such as walking route, stay time, trigger behavior, etc. These behavior patterns will be used for subsequent capture strategy optimization and behavior prediction.

[0083] Capture efficiency evaluation: according to the capture success / failure status, evaluate the capture efficiency under different time, location, animal species. Analyze the reasons for capture failure such as animal escape, equipment failure, etc., and take corresponding measures to improve.

[0084] Correlation analysis: dig the correlation between animal behavior patterns and capture efficiency such as some behavior patterns may lead to higher capture success rate, etc. At the same time, analyze the influence of different environmental factors (such as weather, season, light, etc.) on capture efficiency.

[0085] Learning and optimization: model training: use machine learning or deep learning algorithm to train the collected data to build animal behavior prediction model. Through model prediction of animal behavior patterns and capture efficiency, provide scientific basis for subsequent capture strategy.

[0086] Strategy optimization: according to the data analysis results, optimize the capture strategy such as adjusting the position and type of bait box, improving the sensitivity of touch pedal, etc. Formulate individualized capture scheme for different types of animals to improve the capture success rate.

[0087] Continuous monitoring and feedback

[0088] Real-time monitoring: Real-time monitoring of the working state of the system and the behavior pattern of the animal during the capture process ensures the smooth progress of the capture process. If the system fails or is in an abnormal state, the control system will immediately issue an alarm and notify the operator to handle it.

[0089] Feedback adjustment: According to the real-time monitoring results and the capture effect, the capture strategy and equipment parameters are adjusted in time to ensure the stable improvement of the capture efficiency. At the same time, new capture data and analysis results are collected and put into the system for continuous learning and optimization.

[0090] The tail end of the cage is connected with the front end of the object storage bag through a buckle, so that the storage bag can be conveniently taken out and installed.

[0091] The intelligent portable capture device for capturing stray animals can realize efficient and safe capture of stray animals by comprehensively using camera, infrared sensor, touch pedal and other key components, remote control and data analysis and other technical means. At the same time, the capture device also has the functions of learning optimization, continuous monitoring and feedback, which can continuously adapt to the changes of different environments and animals to improve the capture efficiency and success rate.

[0092] The above is only the preferred embodiment of the present application, any modification, equivalent replacement, improvement, etc. made within the spirit and principles of one or more embodiments of the present application shall be included in the protection scope of one or more embodiments of the present application.

Claims

1. A smart portable trap for containing stray animals comprising an enclosure cage (1) and an animal containing bag (2), characterized in that: The tail end of the enclosure (1) is connected with the front end of the animal receiving bag (2) through the buckle (3); The enclosure (1) is rectangular, the front end is an animal entrance, a cover (15) is arranged through a spring hinge connection, a bait box (14) and a touch pedal (16) are arranged in sequence from back to front at the front position of the bottom of the enclosure (1), the touch pedal (16) is arranged at the front end of the bait box (14), that is, the position close to the bait box (14); the two side columns of the front end of the enclosure (1) are respectively provided with infrared sensors (12), and the upper outer surface of the front end is fixedly provided with a camera (13); One side of the receiving bag (2) connected with the enclosure (1) is provided with a drawstring (31), and the other side is connected with the Elizabeth ring (24) through the buckle (3); The top of the enclosure (1) is provided with a control system (4), the control system (4) is connected with the camera (13), the infrared sensor (12), the touch pedal (16) and the cover (15) through lines respectively, and controls the same; the control system (4) is provided with a solar panel, a storage battery and a Wi-Fi or 4G module.

2. A smart portable trap for containing a stray animal as claimed in claim 1 wherein: The middle part of the enclosure (1) is provided with a telescopic part (11).

3. The intelligent portable trap for containing stray animals of claim 1, wherein: The receiving bag (2) is a scratch-resistant nylon receiving bag (2), and the upper part of the receiving bag (2) is provided with a zipper (25); the Elizabeth ring (24) is provided with a small opening on one side, which is directed to the enclosure (1), and a large opening on the other side, which is directed away from the enclosure (1).

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