TWI896483B - Security devices and system for security equipment - Google Patents

Abstract

The security device and system of the insurance equipment in this creation combines a heat source sensor, door switch sensor, camera, and weight sensor. It integrates data through the security main unit and transmits activation signals, environmental images, and weight change information to a server, where it is stored and processed. The server then generates security status messages and notifies mobile devices. In other words, the system enables real-time monitoring, anomaly alerts, and data management when someone approaches the safe unit. It also allows for the management of weight change information of the contents within the safe, enhancing both the security and management efficiency of the safe.

Description

Safety devices and systems for insurance equipment

The present invention relates to a safety device and system, in particular to a safety device and system for insurance equipment.

Most private safes used to store valuables rely solely on simple mechanical or electronic locks for security. If the key or combination is stolen, the safe provides no secondary protection. Once theft or damage occurs, the owner often only discovers the theft when they attempt to retrieve their belongings. By this time, a significant amount of time has passed, making recovery inefficient and limiting the success rate.

In one embodiment, a safety device is provided. The safety device is connected to a safe unit, which includes a safe body and a safe door. The safety device primarily comprises a heat source sensor, a door switch sensor, a camera, a weight sensor, and a security host. The heat source sensor senses the thermal energy surrounding the safe unit and generates an activation signal when it senses heat. The door switch sensor is connected to the heat source sensor and, based on the activation signal, senses whether the safe door is open or closed. If the sensing result is an open state, it generates a door opening signal; if the sensing result is a closed state, it generates a door closing signal. The camera is connected to the heat sensor and captures images of the safe's surroundings in response to a trigger signal. The weight sensor is connected to the heat sensor and, when activated by a trigger signal or a door-opening signal, continuously senses the safe's weight and generates weight change information based on the sensing results. The security host is connected to the heat sensor, camera, and weight sensor. The security host receives the trigger signal, the surrounding images, and the weight change information, and transmits the images and weight change information to the server.

In one embodiment, a safety system for a security device is provided. The safety system primarily comprises the aforementioned safety device, a safe unit, and a server. The server may include a communication module, a storage module, and a processing module. The communication module receives activation signals, environmental images, and weight change information from the safety device. The storage module is connected to the communication module and stores the activation signals, environmental images, and weight change information transmitted by the safety device. The processing module is connected to the storage module and processes the activation signals, weight change information, and environmental images to generate security status information.

The present invention's safety device and system integrates heat sensors, door switch sensors, cameras, and weight sensors. Data is integrated through a security host computer, and activation signals, environmental images, and weight change information are transmitted to a server for storage and processing. The server ultimately generates a security status message and notifies a mobile device. This allows for real-time monitoring, abnormality warnings, and data management when someone approaches the safe unit. It also manages weight change information for the safe's contents, improving both safety and management efficiency.

The following detailed description of the features and advantages of the present invention is provided in detail in the following embodiments. The description is sufficient to enable anyone skilled in the relevant art to understand the technical content of the present invention and implement it accordingly. Furthermore, based on the disclosure, patent application scope, and drawings in this specification, anyone skilled in the relevant art can easily understand the relevant objectives and advantages of the present invention.

100: Safety equipment safety system

1: Safety equipment and devices

11: Heat source sensor

111: Camera Module

12: Door switch sensor

13: Camera

14:Weight sensor

15: Security Host

151: List storage module

152: Facial Recognition Module

16: Control unit

17: Alarm Module

18: Fire sensor

2: Safe unit

21: Safe body

22: Safe Door

3: Server

31: Communication Module

32: Storage Module

33: Processing module

4: Mobile devices

41: Search Program

42: Operation Procedure

Figure 1 is a schematic diagram of the safe unit of the present invention.

Figure 2 is a schematic diagram of the safety device and system of the safety equipment of the present invention.

Figure 3 is a block diagram of the safety device of the present invention.

Figure 4 is a block diagram of the safety device safety system of the present invention.

The following provides specific embodiments to illustrate the present invention in detail, with accompanying drawings as supporting illustrations. For symbols used in this specification, please refer to the symbol descriptions.

Please refer to Figures 1 to 3. Figure 1 is a schematic diagram of the safe unit of the present invention, Figure 2 is a schematic diagram of the safety device and system of the safe device of the present invention, and Figure 3 is a block diagram of the safety device of the safe device of the present invention. The safety device 1 of the present invention is connected to the safe unit 2. The safe unit 2 includes a safe body 21 and a safe door 22. The safety device 1 mainly includes a heat source sensor 11, a door switch sensor 12, a camera 13, a weight sensor 14, and a security host 15. Here, the safe unit 2 may be, but is not limited to, a safe, a safe, a vault, or other safety equipment capable of storing and insuring items; the safety device safety device 1 may be a safety device for a safe, a safe, a vault, etc., but the foregoing description is only an example and is not limited thereto.

The heat sensor 11 senses the thermal state around the safe unit 2 and generates an activation signal when it senses heat. The heat sensor 11 can be any sensor mounted on the safe body 21 and used to sense the thermal state around the safe unit 2. In other words, it can sense thermal energy (such as body temperature) around the safe unit 2, such as infrared sensors or microwave thermal sensors. However, the above description is for illustrative purposes only and is not intended to be limiting.

The door switch sensor 12 is connected to the heat source sensor 11 and, based on the activation signal, detects whether the safe door 22 is open or closed. If the sensing result indicates an open state, it generates a door opening signal; if the sensing result indicates a closed state, it generates a door closing signal. The door switch sensor 12 can be any sensor installed within the safe unit 2 that detects whether the safe door 22 is open or closed, such as a door magnetic sensor or a vibration sensor. However, the above description is for illustrative purposes only and is not intended to be limiting.

The camera 13 is connected to the heat sensor 11 and captures images of the environment within the safe unit 2 based on the activation signal. The camera 13 can be any camera mounted on the safe body 21, such as a digital camera, a surveillance camera, a wireless network camera, or a hidden miniature camera. However, the above description is for illustrative purposes only and is not intended to be limiting.

The weight sensor 14 is connected to the heat source sensor 11. It is activated by a start signal or a door opening signal, continuously sensing the weight of the safe unit 2 and generating weight change information based on the sensing results. Here, the weight sensor 14 can be a scale installed in the safe unit 2, a wireless scale, or any other sensor that can be used to measure weight. However, the above description is for illustrative purposes only and is not intended to be limiting.

The security host 15 is connected to the heat sensor 11, camera 13, and weight sensor 14. The security host 15 receives the activation signal, environmental images, and weight change information, and transmits the environmental images and weight change information to the server 3. Here, the security host 15 can be a small computer with a microcontroller (MCU) or various processors. However, the above description is for illustrative purposes only and is not intended to be limiting.

For example, the safety device 1 provided by the present invention operates as follows: When there is a change in thermal energy in the environment surrounding the safe unit 2 (e.g., someone approaching), the heat source sensor 11 senses this heat and generates an activation signal. After receiving the activation signal, the door switch sensor 12 further senses whether the safe door 22 is open or closed. If the door 22 is detected to be open, it generates a door opening signal. Simultaneously, the camera 13, in response to the activation signal, begins capturing images of the environment surrounding the safe unit 2 to record the current situation. The weight sensor 14, activated by a start-up signal or door-opening signal, continuously monitors changes in the weight of items within the safe unit 21 and generates corresponding weight change information. Both the environmental image and weight change information are processed by the security host 15 and transmitted to the server 3 for immediate review by the owner of the safe unit 2 or security personnel. This safe device 1 effectively detects abnormal events in real time and integrates weight sensing functionality to enhance the safety device's protective capabilities.

In some embodiments, the security host 15 includes a list storage module 151 and a facial recognition module 152. List storage module 151 stores facial feature data of a security list, and facial recognition module 152 is connected to list storage module 151. Facial recognition module 152 receives environmental images and recognizes facial feature data. It then compares the recognized facial feature data with the facial feature data of the security list stored in list storage module 151. If the comparison does not match, facial recognition module 152 generates a match failure signal. If the comparison does match, facial recognition module 152 generates a match success signal. The security host 15 transmits the match failure signal or the match success signal to server 3. In other words, based on the facial recognition module 152's comparison results, the security host 15 will send a corresponding signal (match or mismatch) to the server 3 for server 3 to record or trigger other processes.

For example, an administrator (e.g., Mr. Zhang) approaches a safe. Security host 15 receives an activation signal, and facial recognition module 152 captures the administrator's facial image from camera 13. It extracts facial feature data (such as eye position and mouth shape). Facial recognition module 152 compares the extracted facial feature data with the facial features on the security list stored in list storage module 151. A match is found when any of the facial features on the security list are matched. Facial recognition module 152 generates a match signal and transmits it to server 3. Security host 15 then allows administrator Mr. Zhang to access safe unit 2 and records the time and identity of the operator. This is an example of an authorized person opening the safe unit 2. However, the above description is for illustration only and is not intended to be limiting.

For another example, an unauthorized person (such as a thief) approaches the safe. The security host 15 receives the activation signal, and the facial recognition module 152 captures the image and extracts facial features. The facial recognition module 152 compares the extracted facial feature data with the facial features on the safety list stored in the list storage module 151. If no facial features on the safety list are matched, the facial recognition module 152 generates a match failure signal and transmits it to the server 3. This is an example of an unauthorized person attempting to approach the safe unit 2. However, the above description is for illustrative purposes only and is not intended to be limiting.

In some embodiments, the security host 15 has a security state and a non-security state. In the non-security state, an alarm event signal is generated based on a mismatch signal. In the security state, an alarm event signal is generated based solely on an activation signal. In other words, the operating logic of the security host 15 varies depending on its state, and accordingly determines which signals trigger an alarm event signal. For example, in the security state, if the safe unit 2 is in a high-alert state, the activation signal may indicate an abnormal condition, requiring an alarm. However, the foregoing description is for illustrative purposes only and is not intended to be limiting.

In some embodiments, the security device 1 further includes a control unit 16. The control unit 16 is connected to the security host 15 and generates and transmits control signals to the security host 15. The security host 15 then has a secure state and a non-secure state. The security host 15 can switch from the secure state to the non-secure state, or vice versa, based on the control signals. The control unit 16 is, for example, but not limited to, a card reader. That is, the control unit 16 is used to control the security host 15's secure state or non-secure state. However, the above description is for illustrative purposes only and is not intended to be limiting.

In some embodiments, the safety device 1 further includes an alarm module 17 . Alarm module 17 is connected to the security host 15 . The security host 15 generates an alarm signal based on the activation signal and an abnormality signal based on the weight change information. The alarm module 17 generates a warning tone based on the alarm signal and an alarm based on the abnormality signal. Here, the alarm module 17 may be, for example, but not limited to, a buzzer or an alarm. However, the above description is for illustrative purposes only and is not intended to be limiting.

In some embodiments, the safety device 1 further includes a fire sensor 18 connected to the security host 15. Upon detecting fire characteristics, the fire sensor 18 generates a fire message and transmits it to the server 3. Here, the fire sensor 18 can be a smoke, flame, or any other sensor capable of detecting fire characteristics (such as smoke or high temperature) installed on the safe unit 2. However, the above description is for illustrative purposes only and is not intended to be limiting.

In some embodiments, the weight sensor 14 has an active state and a dormant state. The weight sensor 14 enters the active state in response to a start signal or a door-opening signal, continuously sensing the weight of the safe unit 2, and enters the dormant state in response to a door-closing signal. In other words, the weight sensor 14 can switch states based on the usage of the safe unit 2 to conserve energy. The activation signal can be triggered in a variety of ways, such as a user command, an internal system timing schedule, or a startup command from an external control device. However, the foregoing description is for illustrative purposes only and is not intended to be limiting.

In some embodiments, the heat source sensor 11 has an active state and a sleep state. When it senses heat energy, it enters the active state and continues to sense the heat energy. When it no longer senses heat energy, it enters the sleep state. However, the above description is for illustrative purposes only and is not intended to be limiting.

In some embodiments, the heat sensor 11 includes a camera module 111. When heat is sensed, the camera module 111 is activated to take a picture. Furthermore, the camera module 111 takes pictures in response to a camera command from a host device. In other words, the camera module 111 of the heat sensor 11 has a dual activation mechanism: it can automatically initiate a picture-taking action based on the sensed heat, and it can also manually initiate a picture-taking action based on a command from a host device. When the heat sensor 11 detects heat in the environment (e.g., from a human body or other heat source), the camera module 111 automatically activates. Furthermore, the camera module 111 can also receive a camera command from a host device to take a picture. Here, the host device can be an electronic device such as a computer, mobile phone, or tablet. The electronic device transmits a message to the security host 15 to trigger the camera module 111 to take a photo. However, the above description is for illustrative purposes only and is not intended to be limiting.

As shown in Figure 4, Figure 4 is a block diagram of the safety device security system of the present invention. The safety device security system 100 of the present invention primarily comprises any of the aforementioned safety device security devices 1, a safe unit 2, and a server 3. The components of the safety device security device 1 and their interconnections have been previously described and will not be elaborated upon here. Here, the safety device security device 1 is connected to the safe unit 2 to sense the status of the safe unit 2 and its surroundings. The safety device security device 1 and the server 3 may utilize wireless technology, such as Wi-Fi wireless signals, for data transmission. However, the above description is for illustrative purposes only and is not intended to be limiting.

In some embodiments, server 3 is connected to security device 1 and may include a communication module 31, a storage module 32, and a processing module 33. Communication module 31 receives activation signals, environmental images, and weight change information from security device 1. Storage module 32 is connected to communication module 31 and stores activation signals, environmental images, and weight change information transmitted by security device 1. Processing module 33 is connected to storage module 32 and processes activation signals, weight change information, and environmental images to generate security status information. Server 3 may be a server, cloud server, or embedded system with a dedicated CPU, memory, and hard drive, but the foregoing description is for illustrative purposes only and is not intended to be limiting.

In some embodiments, the environmental image may include images or image data of the environment surrounding the safe unit 2 captured by the camera 13. Such images or image data may be combined with a timestamp or spatial location information. In other words, the environmental image may include dynamic image clips or still images combined with time or location information. However, the above description is for illustrative purposes only and is not intended to be limiting.

In some embodiments, weight change information may include data reflecting changes in the weight of a load or object, such as specific increases or decreases, trends over time, triggering condition signals (such as exceeding a preset threshold), cumulative changes, and abnormal detection results. However, the foregoing descriptions are for illustrative purposes only and are not intended to be limiting.

In some embodiments, the processing module 33 can analyze the activation signal, environmental image, and weight change information transmitted by the safety device 1 according to preset rules or algorithms and generate corresponding security status messages. For example, when an unauthorized person is detected in the activation signal or environmental image, a security status message regarding an intrusion warning can be generated. When the activation signal indicates that the safe unit 2 is activated but the environmental image or weight change does not meet expectations, a security status message regarding an abnormal operation warning can be generated. However, the above description is for illustrative purposes only and is not intended to be limiting.

In some embodiments, the insurance device security system 100 further includes a search program 41 installed on a mobile device 4. When the mobile device 4 is connected to the server 3, the search program 41 may include a query interface for querying security status information. In some embodiments, the server 3 proactively transmits security status information to the mobile device 4 based on one of an activation signal, environmental images, and weight change information. The search program 41 is, for example, but not limited to, an application program (APP). In other words, the search program 41 can proactively search for security status information from the server 3 via wireless communication such as mobile networks or Wi-Fi. Alternatively, the server 3 can proactively transmit security status information to the search program 41 via wireless communication such as mobile networks or Wi-Fi. However, the above description is for illustrative purposes only and is not intended to be limiting.

For example, a user can use a search program 41 installed on a mobile device 4 to query the security status information of the safe unit 2 stored on the server 3. Alternatively, based on an activation signal received from the security device 1, the server 3 can proactively transmit an intrusion warning security status message to the mobile device 4. In other words, if someone approaches the safe unit 2 without permission, the server 3 can immediately transmit a security status message to the mobile device 4 via the wireless network, warning of abnormal operation.

In some embodiments, the safety device security system 100 further includes an operating program 42 installed on the mobile device 4. The operating program 42 provides an interface for the mobile device user to manually input commands. The commands are then transmitted to the security host 15 via the server 3, allowing the security host 15 to control the safe unit 2 according to the activation commands. The operating program 42 is, for example, but not limited to, an application program (APP). In other words, the mobile device 4 can remotely control the opening or closing status of the safe door 22. However, the above description is for illustrative purposes only and is not intended to be limiting.

For example, a user can use the operating program 42 to send a door-closing command to the server 3. The server 3 then transmits the door-closing command to the security host 15. The security host 15 can then control the closing of the safe door 22. In other words, the opening or closing status of the safe door 22 can be remotely controlled through the operating program 42 to ensure the safety of the safe unit 2.

In summary, the safety device and system of the present invention integrates heat sensors, door switch sensors, cameras, and weight sensors. Data is integrated through a security host computer, and activation signals, environmental images, and weight change information are transmitted to a server for storage and processing. The server ultimately generates security status messages and notifies mobile devices. This invention provides real-time monitoring, abnormality warnings, and data management capabilities, enhancing the safety and management efficiency of safety equipment.

The detailed description above fully demonstrates that this invention's purpose and efficacy represent advancements in practical application, possess significant industrial value, and represent a novel invention not previously available on the market. Therefore, we fully meet the patent requirements and therefore file this application in accordance with the law. However, the foregoing description represents only preferred embodiments of this invention and should not be construed as limiting the scope of its implementation. In other words, all equivalent variations and modifications within the scope of this invention are fully covered by this patent. We sincerely request the careful consideration of the Review Committee and the gracious approval of this application. We sincerely pray for your sincere approval.

15: Security Host

2: Safe unit

3: Server

Claims (13)

A safety device for a safe is connected to a safe unit, the safe unit including a safe body and a safe door. The safety device for a safe comprises: a heat source sensor for sensing the heat state around the safe unit and generating a start signal when heat is sensed; a door switch sensor connected to the heat source sensor for sensing an open state or a closed state of the safe door according to the start signal, and generating a door opening signal when the sensing result is the open state, and generating a door closing signal when the sensing result is the closed state. signal; a camera connected to the heat source sensor, capturing an environmental image of the safe unit according to the activation signal; a weight sensor connected to the heat source sensor, activated according to the activation signal or the door opening signal to continuously sense the weight of the safe unit, and generating weight change information according to the sensing result; and a security host connected to the heat source sensor, the camera and the weight sensor, receiving the activation signal, the environmental image and the weight change information, and transmitting the environmental image and the weight change information to a server. A security device for security equipment as described in claim 1, wherein the security host includes: a list storage module, storing facial feature data of a security list; and a facial recognition module, connected to the list storage module, receiving the environmental image and identifying facial feature data, comparing the facial feature data with the facial feature data of the security list, generating a mismatch signal when the comparison does not match, and generating a match signal when the comparison does match, and the security host transmits the mismatch signal or the match signal to the server. A security device for security equipment as described in claim 2, wherein the security host has a security state and a non-security state. In the non-security state, an alarm event signal is generated based on the comparison mismatch signal, and in the security state, the alarm event signal is generated only based on the activation signal. The security device of the security equipment as described in claim 1 further includes a control unit connected to the security host, generating a control signal and transmitting it to the security host, the security host having a security state and a non-security state, and switching from the security state to the non-security state according to the control signal, or switching from the non-security state to the security state according to the control signal. The safety device of claim 1 further includes an alarm module connected to the security host, the security host generates an alarm signal according to the activation signal, generates an abnormal signal according to the weight change information, the alarm module generates a warning voice according to the alarm signal, and generates an alarm according to the abnormal signal. The safety device of claim 1 further comprises a fire sensor connected to the security host, which generates a fire message and transmits it to the server when a fire characteristic is detected. The safety device of claim 1, wherein the weight sensor has an active state and a sleep state. The weight sensor enters the active state in response to the active signal or the door opening signal and continuously senses the weight of the safe unit, and enters the sleep state in response to the door closing signal. The safety device of claim 1, wherein the heat source sensor has an active state and a sleep state. When the heat energy is sensed, the sensor enters the active state and continues to sense the heat energy. When the heat energy is not sensed, the sensor enters the sleep state. The safety device of the safety equipment as described in claim 1, wherein the heat source sensor includes a camera module, which is activated to take pictures when the heat energy is sensed, and the camera module takes pictures according to a camera command from a host device. A safety equipment security system comprises: a safe unit, the safe unit comprising a safe body and a safe door; a safe equipment security device as described in any one of claims 1 to 9, connected to the safe unit; and a server, connected to the safe equipment security device, comprising: a communication module, receiving the activation signal, the environmental image, and the weight change information; a storage module, connected to the communication module, storing the activation signal, the environmental image, and the weight change information; and a processing module, connected to the storage module, processing the activation signal, the weight change information, and the environmental image to generate a security status message. The security equipment safety system as described in claim 10 further includes a retrieval program installed on a mobile device. When the mobile device is connected to the server, the retrieval program provides a query interface for querying the security status information. The security equipment safety system as described in claim 10, wherein the server actively transmits the security status message to an active device based on one of the activation signal, the environmental image, and the weight change information. The security equipment safety system as described in claim 10 further includes an operating program installed on a mobile device connected to the server, and the operating program provides an operating interface for a user to manually input commands for remotely controlling the open state or the closed state of the safe door.