Ribbon label

Abstract

The invention discloses a ribbon label. The ribbon label comprises a main body 11, a ribbon 12 connected with the main body and an insertion hole 111, the main body 11 is provided with an RFID circuit 112, and the ribbon 12 is provided with a metal piece 121; one end of the RFID circuit 112 is communicated with the jack 111, and the other end of the RFID circuit 112 is communicated with one end of the metal piece 121; and when the ribbon 12 is inserted into the jack 111, the other end of the metal piece 121 is communicated with the RFID circuit 112, so that the RFID circuit 112 forms a closed loop. The state of the ribbon tag is matched through the state of the RFID circuit, so that the state of the ribbon tag is identified, and the identification function of the ribbon tag is expanded. And meanwhile, the safety performance of the ribbon label is also improved.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of labels, in particular to a kind of cable tie label applicable to the field such as commodity identification. BACKGROUND

[0002] Cable tie label generally has cable tie and label body, and identification function is realized by being bound on specific commodity by cable tie.The existing cable tie label generally has waterproof, anti-disassembly or the function of binding article, and identification function is realized by label body.However, the existing cable tie label generally only has the identification function such as the commodity information of the commodity bound by identification cable tie, and cannot identify the state identification function of the state of identification cable tie itself.How to provide a kind of cable tie label capable of realizing state identification function, improve the security of cable tie label, then the technical problem to be solved by the present application. SUMMARY

[0003] To solve the above technical problem, a new type of cable tie label is designed.

[0004] The present application provides a kind of cable tie label, including main body 11, with the cable tie 12 and the jack 111 of main body connection;The main body 11 is equipped with RFID circuit 112, and the cable tie 12 is equipped with metal piece 121;RFID circuit 112 one end with the jack 111 intercommunication, and the other end of RFID circuit 112 with the one end of metal piece 121 intercommunication;When the cable tie 12 is inserted into the jack 111, the other end of the metal piece 121 with the RFID circuit 112 intercommunication, makes the RFID circuit 112 form closed loop.

[0005] Further, the jack 111 is equipped with spring needle 113, and the spring needle 113 with the one end of RFID circuit 112 intercommunication.

[0006] Specifically, the cable tie 12 is also equipped with wire 123, and the wire 123 one end is connected with the metal piece 121, and the other end of the wire 123 is connected with the one end of RFID circuit 112.

[0007] Alternatively, the metal piece 121 is long strip metal piece, and one end of the long strip metal piece is connected with the one end of RFID circuit 112 through main body 11.

[0008] Specifically, when the cable tie 12 is inserted into the jack 111, the spring needle 113 abuts against the metal piece 121.

[0009] Further, the needle head 1131 of the spring needle 113 is inverted tooth needle head;The metal piece 121 is equipped with recess corresponding to the inverted tooth needle head 1131 abutment.

[0010] Further, the metal contact 115 is arranged in the insertion hole 111 and is in communication with one end of the RFID circuit 112.

[0011] Further, the metal piece 121 is a long strip metal piece, one end of which is in communication with one end of the RFID circuit 112 through the main body 11.

[0012] Alternatively, the cable tie 12 is further provided with a wire 123, one end of which is connected to the metal piece 121 and the other end of which is connected to one end of the RFID circuit 112.

[0013] Specifically, when the cable tie 12 is inserted into the insertion hole 111, the metal contact 115 abuts against the metal piece 121.

[0014] Further, the other side of the cable tie 12 relative to the metal piece 121 is provided with a reverse tooth 122 or a reverse tooth strip.

[0015] Further, the insertion hole 111 is provided with a buckle 114, which clamps the reverse tooth 122 when the cable tie 12 is inserted into the insertion hole 111, so that the cable tie label is in a locked state.

[0016] Further, the main body 11 is provided with a PCB 14, and the RFID circuit 112 is arranged on the PCB.

[0017] Further, the long strip metal piece 121 is welded with the PCB in the main body.

[0018] Further, the long strip metal piece 121 is an aluminum-nickel piece.

[0019] Further, the long strip metal piece 121 has a width smaller than that of the cable tie 12 and a thickness ranging from 0.1 to 0.3 mm.

[0020] Further, the insertion hole 111 is arranged on the main body 11.

[0021] Further, the cable tie 12 is integrally arranged with the main body 11.

[0022] Further, one side of the cable tie 12 is provided with a groove, and the metal piece 121 is embedded in the groove.

[0023] Further, the metal piece 121 is further provided with a groove on the surface, so that the spring needle 113 abuts against the groove to contact the metal piece 121.

[0024] As a more specific case, a cable tie label, comprising a main body 11, a cable tie 12 connected with the main body and a socket 111; the main body 11 is provided with an RFID circuit 112, the cable tie 12 is provided with a metal piece 121; one end of the RFID circuit 112 is in communication with the socket 111, the other end of the RFID circuit 112 is in communication with one end of the metal piece 121; when the cable tie 12 is inserted into the socket 111, the other end of the metal piece 121 is in communication with the RFID circuit 112, so that the RFID circuit 112 forms a closed loop; the socket 111 is provided with a spring needle 113, the spring needle 113 is in communication with one end of the RFID circuit 112; the metal piece 121 is a long strip-shaped metal piece, one end of which is in communication with one end of the RFID circuit 112 through the main body 11; the cable tie 12 is also provided with a wire 123, one end of the wire 123 is connected with the metal piece 121, and the other end of the wire 123 is connected with one end of the RFID circuit 112; when the cable tie 12 is inserted into the socket 111, the spring needle 113 abuts against the metal piece 121; the needle head 1131 of the spring needle 113 is a reverse tooth-shaped needle head; the metal piece 121 is provided with a groove corresponding to the abutment of the reverse tooth-shaped needle head 1131; the socket 111 is provided with a metal contact 115, which is in communication with one end of the RFID circuit 112; the metal piece 121 is a long strip-shaped metal piece, one end of which is in communication with one end of the RFID circuit 112 through the main body 11; or, the cable tie 12 is also provided with a wire 123, one end of the wire 123 is connected with the metal piece 121, and the other end of the wire 123 is connected with one end of the RFID circuit 112; when the cable tie 12 is inserted into the socket 111, the metal contact 115 abuts against the metal piece 121; the other side of the cable tie 12 opposite to the metal piece 121 is provided with a reverse tooth 122 or a reverse tooth strip; the socket 111 is provided with a buckle 114, when the cable tie 12 is inserted into the socket 111, the buckle 114 clamps the reverse tooth 122, so that the cable tie label is in a locked state; the main body 11 is provided with a PCB, and the RFID circuit 112 is arranged on the PCB; the long strip-shaped metal piece 121 is welded with the PCB in the main body; the long strip-shaped metal piece 121 is an aluminum-nickel sheet; the width of the long strip-shaped metal piece 121 is smaller than the width of the cable tie 12, and the thickness thereof ranges from 0.1 to 0.3 millimeters; the socket 111 is arranged on the main body 11; the cable tie 12 is integrally arranged with the main body 11; one side of the cable tie 12 is provided with a groove, and the metal piece 121 is embedded in the groove; the surface of the metal piece 121 is also provided with a groove, so that the spring needle 113 abuts against the groove to contact the metal piece 121.

[0025] Furthermore, as a new embodiment, the present invention also provides a cable tie tag, the cable tie tag including a main body 11, a cable tie 12 connected to the main body, and an insertion hole 111; the main body 11 is provided with an RFID circuit 112, the cable tie 12 is provided with a metal toothed rack 13, and the insertion hole 111 is provided with a metal buckle 131; one end of the RFID circuit 112 is connected to the metal buckle 131, and the other end of the RFID circuit 112 is connected to one end of the metal toothed rack 13; when the cable tie 12 is inserted into the insertion hole 111, the metal toothed rack 13 engages with the metal buckle 131, so that the RFID circuit 112 forms a closed loop.

[0026] Furthermore, when the cable tie 12 is inserted into the socket 111, the metal buckle 131 engages the metal rack 13, thereby locking the cable tie label.

[0027] As an extension, the reverse teeth of the metal reverse rack 13 may also be provided with protrusions, so that the metal reverse rack 13 is tightly engaged with the metal buckle 131.

[0028] Furthermore, the insertion hole 111 is provided with a spring pin 113. When the cable tie 12 is inserted into the insertion hole 111, the spring pin 113 abuts against the cable tie 12, so that the metal toothed rack 13 is tightly engaged with the metal buckle 131.

[0029] Furthermore, the needle tip 1131 of the spring needle 113 is a toothed needle tip; the side of the cable tie 12 facing the spring needle is provided with a groove corresponding to the toothed needle tip 1131.

[0030] Furthermore, the socket 111 is provided with a contact 15, and when the cable tie 12 is inserted into the socket 111, the contact 115 abuts against the cable tie 12.

[0031] Furthermore, the main body 11 is provided with a PCB, and the RFID circuit 112 is placed on the PCB.

[0032] Furthermore, the metal inverted rack 13 is soldered to the PCB in the main body.

[0033] Furthermore, the metal inverted rack 13 is made of aluminum-nickel material.

[0034] Furthermore, the width of the metal inverted toothed rack 13 is smaller than the width of the cable tie 12, and its thickness ranges from 0.1 to 0.3 mm.

[0035] Furthermore, the insertion hole 111 is disposed on the main body 11.

[0036] Furthermore, the cable tie 12 is integrally formed with the main body 11.

[0037] Furthermore, one side of the cable tie 12 is provided with a groove, and the metal toothed rack 13 is embedded in the groove.

[0038] As a more specific embodiment, a cable tie tag includes a body 11, a cable tie 12 connected to the body, and a socket 111; the body 11 is provided with an RFID circuit 112, the cable tie 12 is provided with a metal toothed rack 13, and the socket 111 is provided with a metal buckle 131; one end of the RFID circuit 112 is connected to the metal buckle 131, and the other end of the RFID circuit 112 is connected to one end of the metal toothed rack 13; when the cable tie 12 When the cable tie 12 is inserted into the socket 111, the metal toothed rack 13 engages with the metal buckle 131, forming a closed loop in the RFID circuit 112. When the cable tie 12 is inserted into the socket 111, the metal buckle 131 locks the metal toothed rack 13, locking the cable tie tag. The metal toothed rack 13 also has protrusions on its teeth, ensuring a tight engagement between the metal toothed rack 13 and the metal buckle 131. A spring pin 113 is provided inside the socket 111. When the cable tie 12 is inserted into the socket 111, the spring pin 113 abuts against the cable tie 12, causing the metal toothed rack 13 to be tightly engaged with the metal buckle 131; the needle tip 1131 of the spring pin 113 is a toothed needle tip; the side of the cable tie 12 facing the spring pin has a groove corresponding to the abutment of the toothed needle tip 1131; or, the socket 111 has a contact point 15, which abuts against the cable tie 12 when the cable tie 12 is inserted into the socket 111; The main body 11 contains a PCB, and the RFID circuit 112 is placed on the PCB; the metal toothed rack 13 is soldered to the PCB in the main body; the metal toothed rack 13 is made of aluminum-nickel material; the width of the metal toothed rack 13 is smaller than the width of the cable tie 12, and its thickness ranges from 0.1 to 0.3 mm; the insertion hole 111 is provided on the main body 11; the cable tie 12 is integrally formed with the main body 11; one side of the cable tie 12 has a groove, and the metal toothed rack 13 is embedded in the groove.

[0039] Compared with existing technologies, this invention, through its unique cable tie label status identification structure designed above, incorporates a control structure on the cable tie that controls the opening and closing of an RFID circuit based on the cable tie's status. This allows for the identification of the cable tie label status by matching the RFID circuit status with the label's status. This design solution solves the aforementioned technical problems. Attached Figure Description

[0040] Figure 1 A schematic diagram of a cable tie tag provided for the invention.

[0041] Figure 2A schematic diagram illustrating the disassembly structure of a cable tie tag provided for the invention.

[0042] Figure 3-1 A cross-sectional schematic diagram of a cable tie tag in an unlocked state provided for the invention.

[0043] Figure 3-2 A partial cross-sectional view of a cable tie tag in an unlocked state provided for the invention.

[0044] Figure 4 A cross-sectional view of a cable tie tag in a locked state provided for the invention.

[0045] Figure 5 A schematic diagram of the cable tie tag in a locked state according to another embodiment of the invention.

[0046] Figure 6 A schematic diagram of the cable tie tag in a locked state according to another embodiment of the invention.

[0047] Figure 7 A cross-sectional view of the cable tie tag in a locked state according to another embodiment of the invention.

[0048] Attached image labels:

[0049] 1. Tape label; 11. Main body; 111. Insertion hole; 112. RFID circuit; 113. Spring pin; 114. Buckle; 115. Metal contact; 12. Cable tie; 121. Metal part; 1211. Groove; 122. Backtooth / backtooth rack; 123. Wire; 13. Metal backtooth rack; 131. Metal buckle; 14. PCB; 15. Contact. Detailed Implementation

[0050] To enable those skilled in the art to better understand the technical solution of the present invention, the following description, in conjunction with specific embodiments and appendices, provides further details. Figure 1-7 The present invention will now be described in further detail.

[0051] Cable tie tags have become a widely used and mature tagging product. Currently, commercially available cable tie tags typically lack the ability to indicate the locking and unlocking status of the cable ties. Specifically, they lack the ability to indicate whether the cable tie is secured, unsecured, or disconnected (or, to describe the cable tie's status as locked or unlocked). In practical applications, after a passive RFID tag is properly locked, the lock status is reported to the system via a card reader. When an item using the cable tie tag arrives at its destination, the unattended card reader checks the tag's status. If it is properly locked, it is considered normal. If the cable tie tag is cut midway, the card reader at the destination will show an unlocked status. Typically, RFID tags are used to pre-record relevant information to identify bundled items, and the user reads this information using an RFID reader. Currently, there are no products on the market that indicate the bundling status or the locked / unlocked status of the cable ties. Some people take advantage of this to tamper with or forge cable tie labels, resulting in a low security level for the cable tie labels. This makes it difficult to prevent cheating in the logistics and transportation system, leading to economic losses such as the loss of protected items.

[0052] To address the aforementioned issues, this application presents a passive cable tie RFID electronic tag structure. If the cable tie is cut, the card reader reads the tag status, and the tag status changes from locked to unlocked, thereby improving the security of the goods bundled by the cable tie tag.

[0053] like Figures 1 to 5 As shown, the present invention provides a cable tie tag, including a main body 11, a cable tie 12 connected to the main body, and a socket 111; the main body 11 is provided with an RFID circuit 112, and the cable tie 12 is provided with a metal part 121; one end of the RFID circuit 112 is connected to the socket 111, and the other end of the RFID circuit 112 is connected to one end of the metal part 121; when the cable tie 12 is inserted into the socket 111, the other end of the metal part 121 is connected to the RFID circuit 112, so that the RFID circuit 112 forms a closed loop.

[0054] In practical applications, after a passive RFID tag is properly bundled or locked, the information set on the cable tie tag is read by a card reader and reported to the system. At the same time, the bundling or locking status of the cable tie tag can also be read. When the item using the cable tie tag arrives at its destination, the identification and status information of the cable tie tag is read by an unattended card reader. If it is properly locked, it is considered normal. If the cable tie tag is cut midway, the card reader will read that it is unlocked at the destination.

[0055] Existing cable tie tags typically rely on their combined use with radio frequency identification (RFID) tags to provide information identification functions such as identifying product information or associated information. However, these passive RFID tags or RFID circuits cannot provide real-time status indication functionality for the cable tie tags. To achieve real-time status indication, a separate control circuit / unit is usually designed, which significantly increases the design and manufacturing difficulty and cost of the cable tie tags. Therefore, this application, based on RFID technology principles, designs a mapping between the state of the RFID circuit and the cable tie's coiling state, thereby adding a real-time status indication function to the cable tie tag through the RFID circuit within the cable tie tag.

[0056] In this field, a common form of RFID tag is an RFID circuit composed of a wire coil. When the coil is in a closed loop, based on the principle of electromagnetic induction, the RFID reader can read the relevant information of the RFID tag. However, when the coil of the RFID circuit is in an open state, the RFID reader cannot read the relevant information of the RFID tag. Furthermore, the specific circuit structure of the RFID circuit and RFID coil, and how the RFID reader reads the identification information of the RFID circuit, are all prior art and will not be described in detail in this patent specification. Those skilled in the art can use relevant prior art prior to this patent application in conjunction with the technical solution of this patent to achieve the technical effects described in this patent.

[0057] In the embodiments of this application, the real-time status of the cable tie tag is mainly achieved by designing the RFID circuit 112 on the main body 11 to compare and identify the status of the cable tie tag. Specifically, see the appendix. Figure 2 The metal part 121 on the cable tie 12 forms a series circuit structure with the RFID circuit 112. When the cable tie tag is in an unlocked state or the cable tie is broken, the disconnection of the RFID circuit indicates that the cable tie tag is not tied. When the cable tie tag is tied, that is, when the cable tie 12 is inserted into or passes through the insertion hole 111 of the cable tie tag, the RFID circuit 112 and the metal part 121 on the cable tie 12 form a series closed loop. At this time, the RFID reading device can read the relevant information of the RFID tag 112 in the cable tie tag, and thus determine that the cable tie tag is tied.

[0058] As can be clearly understood from the above description, the above embodiment controls whether the RFID circuit 112 is disconnected based on the metal part 121 set on the cable tie corresponding to the state of the cable tie. In terms of specific technical means, by setting one end of the RFID circuit 112 to be connected to the socket 111 and the other end of the RFID circuit 112 to be connected to one end of the metal part 121 to form a series structure of the circuit, the above-mentioned function of controlling whether the RFID circuit 112 is disconnected is realized. When the cable tie 12 is inserted into the socket 111, the other end of the metal part 121 is connected to the RFID circuit 112, so that the RFID circuit 112 forms a closed loop. The description of one end and the other end of the RFID circuit is intended to illustrate that the RFID circuit 112 in the open circuit structure has two ends. Generally, this can be understood as the open circuit coil in the RFID tag having two ends of a line, or it can also be described as the two ends of a wire. The description of one end and the other end of the metal component is intended to illustrate that the metal component and the RFID circuit form a series circuit structure relationship. That is, in combination with the above series structure relationship, one end and the other end of the metal component are not uniquely limited to a certain end of the metal component, but are only one end of the two ends in the series structure. In fact, to realize the above series structure, one end and the other end can also be other positions of the metal component body, as long as the metal component can play the structural function of series conduction.

[0059] Furthermore, to improve the stability of the RFID circuit 112 in the cable tie tag and thus accurately identify the tag's status, this application extends the implementation by providing a spring pin 113, or POGO pin, within the socket 111. This spring pin is a precision connector consisting of a pin shaft, a spring, and a pin tube, primarily used for current transmission and signal connection in electronic devices. Typically, the tip of the spring pin 113 is retractable. Figure 3-1 , 3-2 and Figure 4 As shown, the spring pin 113 is connected to one end of the RFID circuit 112. The tip of the spring pin 113 points towards the axis of the insertion hole 111. When the cable tie 12 is inserted into the insertion hole 111, the spring pin 113 compresses its own spring member due to the compression of the cable tie, causing its tip to press against the metal part 121 on the cable tie 12, forming a tight contact between the spring pin 113 and the metal part 121 in the cable tie 12. This achieves a stable connection between the RFID circuit 112 and the metal part 121, thereby achieving the aforementioned technical effect of improving the stability of the RFID circuit 112 in the cable tie tag.

[0060] Furthermore, to achieve the anti-theft identification function of the cable tie tag, the tag is designed for single use. The needle tip of the spring pin 113 is serrated (or, can be described as a right-angled triangle with the bevel facing upwards; this serrated needle tip is not shown in the attached diagram), with the bevel of the needle tip (or the bevel of the serration) facing the insertion direction of the cable tie. The metal part 121 has a groove 1211 on the side facing the spring pin, such as... Figure 5 As shown, the groove 1211 is a groove that can be inserted into or abutted by the inverted toothed needle 1131, so that the spring needle can abut or be inserted into the groove. When the cable tie is inserted into the socket, the pressure on the beveled surface of the needle causes the spring needle to retract along the needle tube, allowing the cable tie to pass through. Simultaneously, when the groove corresponds to the needle, the toothed needle 1311, under the elastic force of the spring needle inside the spring needle, inserts into or abuts against the groove 1211 on the metal part 121, thus locking the cable tie. At this point, if one tries to pull the cable tie 12 out of the socket 111, the flat surface of the toothed or right-angled triangular spring needle 1311 abuts against the inner wall of the groove 1211 on the metal part 121, preventing the cable tie from being pulled out. Forcibly pulling the cable tie out of the socket would damage the spring needle structure, thereby disconnecting the RFID circuit 112 connected to the spring needle 113 from the metal part 121. Thus, a disposable functional structure for this cable tie tag is designed.

[0061] As the other end of the series connection, in order to improve the stability of the state in which one end of the RFID circuit 112 in the cable tie tag is connected in series with the aforementioned metal component 121, specifically, the metal component 121 is set to be a long strip-shaped metal component, such as... Figure 2 As shown, one end of the elongated metal piece 121 is connected to one end of the RFID circuit 112 via the main body 11.

[0062] Alternatively, a wire 123 may be threaded through the cable tie 12, such as... Figure 3-2 As shown, a portion of the wire 123 exposed on the cable tie 12 is illustrated. This wire connects the metal component 121 to the RFID circuit 112, or in other words, conducts them in series. Specifically, one end of the wire 123 is connected to the metal component 121, and the other end is connected to one end of the RFID circuit 112. Since this portion of the wire is embedded within the cable tie 12, it is not visible on the surface of the cable tie. This design provides both concealment and, combined with the surrounding cable tie, protection for the wire 123 connecting the metal component 121 and the RFID circuit 112.

[0063] Thus, in the series structure of the RFID circuit formed in the above different ways, when the cable tie 12 is inserted into the socket 111, the spring pin 113 abuts against the metal part 121, so that the RFID circuit 112 forms a closed loop.

[0064] As another extended implementation, the socket 111 is provided with a metal contact 115, similar to the reference. Figure 6 Reference numeral 15 in the attached figure shows that the metal contact 115 is connected to one end of the RFID circuit 112. The metal contact 115 is provided here to improve the stability of the RFID circuit 112 in the cable tie tag, thereby enabling accurate identification of the cable tie tag's status. The metal contact 115 is electrically connected to one end of the RFID circuit 112. The metal contact 115 protrudes into the insertion hole 111. When the cable tie 12 is inserted into the insertion hole 111, the metal contact 115, due to the compression of the cable tie 12, forms a tight contact with the metal component 121 in the cable tie 12, thereby achieving a stable connection between the RFID circuit 112 and the metal component 121, thus achieving the aforementioned technical effect of improving the stability of the RFID circuit 112 in the cable tie tag.

[0065] As the other end of the series connection, in order to improve the stability of the state in which one end of the RFID circuit 112 in the cable tie tag is connected in series with the aforementioned metal component 121, specifically, the metal component 121 is set to be a long strip-shaped metal component, such as... Figure 2 As shown, one end of the elongated metal piece 121 is connected to one end of the RFID circuit 112 via the main body 11.

[0066] Alternatively, a wire 123 may be threaded through the cable tie 12, such as... Figure 3-2 As shown, a portion of the wire 123 exposed on the cable tie 12 is illustrated. This wire connects the metal component 121 to the RFID circuit 112, or in other words, conducts them in series. Specifically, one end of the wire 123 is connected to the metal component 121, and the other end is connected to one end of the RFID circuit 112. Since this portion of the wire is embedded within the cable tie 12, it is not visible on the surface of the cable tie. This design provides both concealment and, combined with the surrounding cable tie, protection for the wire 123 connecting the metal component 121 and the RFID circuit 112.

[0067] Thus, in the series structure of the RFID circuit formed in the above different ways, when the cable tie 12 is inserted into the socket 111, the metal contact 115 abuts against the metal part 121, so that the RFID circuit 112 forms a closed loop.

[0068] Furthermore, to improve the stability of the cable tie tag and enhance the locking / locking effect of the cable tie, while also achieving the anti-theft effect and security performance of the cable tie tag, a reverse tooth 122 or a reverse toothed strip is provided on the other side of the cable tie 12 opposite to the metal part 121, see [reference]. Figure 4 The reverse toothed rack is composed of multiple consecutive reverse teeth; simultaneously, a buckle 114 is provided within the insertion hole 111. Typically, the buckle 114 is positioned on the side of the insertion hole 111 opposite the spring pin 113. Through the locking structure of the reverse teeth 122 or the reverse toothed rack and the buckle 114, when the cable tie 12 is inserted into the insertion hole 111, the buckle 114 engages the reverse teeth 122, locking the cable tie label. Furthermore, due to this reverse toothed structure, the cable tie is locked in one direction. At the same time, the engagement structure between the reverse teeth 122 or the reverse toothed rack on the other side of the metal part 121 and the buckle 114 within the insertion hole 111 prevents the cable tie 12 from being pulled out, thus enhancing the anti-theft effect and security performance of the cable tie label.

[0069] Furthermore, the toothed needle 1131 provided in conjunction with the aforementioned spring needle and the corresponding groove into which the toothed needle 1131 is inserted, see [reference needed]. Figure 5 In other words, with locking structures on both sides of the cable tie, this cable tie tag achieves a better locking effect. It is a disposable cable tie tag; once the cable tie is inserted into the socket and secured, it cannot be pulled out. Forcibly pulling out the cable tie disrupts the series connection between the metal component (composed of spring pins) and the RFID circuit, thus disconnecting the RFID circuit. In this state, the RFID reader cannot read the information from the RFID tag 112 in the cable tie tag, thereby indicating that the cable tie tag is in an open state.

[0070] Furthermore, in conjunction with the RFID circuit, a PCB14 is provided within the main body 11 of the cable tie tag, see [link / reference]. Figure 2 The RFID circuit 112 is placed on the PCB. Thus, the RFID circuit is stably embedded in the cable ties tag through the printed circuit board manufacturing process.

[0071] Based on the RFID circuit configuration of the printed circuit board described above, the elongated metal part 121 can be designed to be directly soldered to the PCB in the main body, thereby realizing the connection between the metal part 121 and one end of the RFID circuit 112.

[0072] Here, to better achieve the connection between the metal component 121 and one end of the RFID circuit 112, the elongated metal component 121 is made of aluminum-nickel sheet. Furthermore, the width of the elongated metal component 121 can be smaller than the width of the cable tie 12, and its thickness can range from 0.1 to 0.3 mm, preferably 0.2 mm.

[0073] like Figure 1-5 As one implementation method, the insertion hole 111 can be designed to be set on the main body 11, and the cable tie 12 can be integrally set with the main body 11. This can not only make the cable tie tag sturdy and durable and protect the serial structure of the RFID circuit, but also make the overall appearance of the cable tie tag integrated.

[0074] Furthermore, as one embodiment of the metal component 121 being disposed on the cable tie 12, and not as a limiting method, see [reference needed]. Figure 2 The cable tie 12 is designed with a groove on one side, into which the metal part 121 is embedded. Specifically, the metal part 121 can also be a long strip of metal, as shown in the figure, to facilitate the embedding of the metal part 121 into the groove. Furthermore, the surface of the metal part 121 is also provided with a groove, so that the spring pin 113 abuts against the groove to contact the metal part 121.

[0075] Furthermore, as a novel embodiment, the present invention also provides another cable tie tag, combined with Figure 2 See also Figure 6 , Figure 7 The cable tie tag includes a main body 11, a cable tie 12 connected to the main body, and a socket 111; the main body 11 is provided with an RFID circuit 112, the cable tie 12 is provided with a metal toothed rack 13, and the socket 111 is provided with a metal buckle 131; one end of the RFID circuit 112 is connected to the metal buckle 131, and the other end of the RFID circuit 112 is connected to one end of the metal toothed rack 13; when the cable tie 12 is inserted into the socket 111, the metal toothed rack 13 engages with the metal buckle 131, so that the RFID circuit 112 forms a closed loop.

[0076] In this embodiment, the real-time status of the cable tie tag is mainly achieved by comparing the status of the RFID circuit 112 on the main body 11. Specifically, the metal toothed rack 13 on the cable tie 12 forms a series circuit structure with the RFID circuit 112. When the cable tie tag is in an unlocked state or the cable tie is broken, the disconnection of the RFID circuit indicates that the cable tie tag is not tied. When the cable tie tag is in a tied state, that is, when the cable tie 12 is inserted into or passes through the insertion hole 111 of the cable tie tag, the RFID circuit 112 and the metal toothed rack 13 on the cable tie 12 form a series closed loop. At this time, the RFID reading device can read the relevant information of the RFID tag 112 in the cable tie tag, and thus determine that the cable tie tag is in a tied state.

[0077] As can be clearly understood from the above description, the above embodiment is based on the metal inverted toothed rack 13 set on the cable tie to control whether the RFID circuit 112 is disconnected according to the state of the cable tie. In terms of specific technical means, by setting one end of the RFID circuit 112 to be connected to the socket 111 and the other end of the RFID circuit 112 to be connected to one end of the metal inverted toothed rack 13 to form a series structure of the circuit, the above-mentioned function of controlling whether the RFID circuit 112 is disconnected is realized. When the cable tie 12 is inserted into the socket 111, the other end of the metal inverted toothed rack 13 is connected to the RFID circuit 112, so that the RFID circuit 112 forms a closed loop. The description of one end and the other end of the RFID circuit is intended to illustrate that the RFID circuit 112 in the open circuit structure has two ends. Generally, this can be understood as the open circuit coil in the RFID tag having two ends of a line, or it can also be described as the two ends of a wire. The description of one end and the other end of the metal component is intended to illustrate that the metal component and the RFID circuit form a series circuit structure relationship. That is, in combination with the above series structure relationship, one end and the other end of the metal component are not uniquely limited to a certain end of the metal component, but are only one end of the two ends in the series structure. In fact, to realize the above series structure, one end and the other end can also be other positions of the metal component body, as long as the metal component can play the structural function of series conduction.

[0078] Therefore, this embodiment not only solves the technical problems described above, but also, based on the structure of the added metal inverted toothed rack 13 and the metal buckle 131 inside the insertion hole 111, correspondingly adds a locking / locking function to the cable tie label. This enables the cable tie label to better achieve the binding and locking function, achieving a locking effect. At the same time, it also improves the anti-theft effect and security performance of the cable tie label. The added locking function of the cable tie label will be described in detail in different embodiments below.

[0079] Specifically, when the cable tie 12 is inserted into the socket 111, the metal buckle 131 locks the metal rack 13, thus locking the cable tie label.

[0080] As an extended embodiment, protrusions can also be provided on the reverse teeth of the metal reverse toothed rack 13, which ensure a tight engagement between the metal reverse toothed rack 13 and the metal buckle 131. Considering the thermal expansion and contraction of metal materials, protrusions are provided on the reverse teeth of the metal reverse toothed rack 13 to increase the engagement between the reverse teeth and the buckle. Simultaneously, this ensures the conductivity between the metal reverse toothed rack 13 and the buckle, thereby ensuring that the metal reverse toothed rack 13 and the RFID circuit 112 form a closed loop in series.

[0081] Meanwhile, due to the engaging structure between the metal inverted toothed rack 13 and the snap fastener 114 provided in the insertion hole 111, when attempting to remove the cable tie 12, the reverse resistance of the inverted toothed rack 13 prevents the cable tie 12 from being pulled out of the insertion hole 111. This enhances the anti-theft effect and security performance of the cable tie tag.

[0082] Furthermore, to improve the stability of the RFID circuit 112 in the cable tie tag and thus accurately identify the status of the cable tie tag, this application extends the implementation by providing a spring pin 113 within the insertion hole 111. Typically, the tip of the spring pin 113 is retractable. (See Figure 3.) Figure 4 As shown, the spring pin 113 can be arranged relative to the metal buckle side, and the needle tip of the spring pin 113 points to the axis of the insertion hole 111 (if the spring pin 113 is arranged relative to the metal buckle side, the needle tip also points to the metal buckle). When the cable tie 12 is inserted into the insertion hole 111, the spring pin 113 compresses its own spring member based on the compression of the cable tie, thereby causing its needle tip to abut against the cable tie 12, and forming a tight abutment between the spring pin 113 and the cable tie 12, thereby making the metal rack 13 tightly engage with the metal buckle 131. The addition of the aforementioned spring pin 113 enables the status identification method of the cable tie tag to achieve a stable connection between the RFID circuit 112 and the metal toothed rack 13, thereby achieving the aforementioned technical effect of improving the stability of the RFID circuit 112 in the cable tie tag; at the same time, it also enables the end of the cable tie 12 with the toothed rack or toothed rack to be tightly engaged with the metal buckle in the socket, thereby achieving the anti-theft function of preventing the cable tie from being pulled out after being tied or locked.

[0083] Furthermore, to achieve the anti-theft identification function of the cable tie label, a new approach is adopted: the cable tie label is designed to be disposable. The needle tip of the spring pin 113 is set to be serrated (or, can be described as a right-angled triangle with the bevel facing upwards), with the bevel of the needle tip (or the bevel of the serration) facing the insertion direction of the cable tie. The side of the cable tie 12 facing the spring pin has a groove, which is a groove that corresponds to the insertion or abutment of the serrated needle tip 1131, so that the spring pin tip can abut or insert into the groove. When the cable tie is inserted into the socket, the pressure on the beveled surface of the needle causes the spring needle to retract along the needle tube, allowing the cable tie to pass through. Simultaneously, when the groove corresponds to the needle, the spring needle inside the spring causes it to insert into or abut against the groove. However, if one attempts to remove the cable tie 12 from the socket 111, the flat surface of the right-angled triangular or serrated spring needle abuts against the inner wall of the groove, preventing the cable tie from being pulled out. Forcibly removing the cable tie from the socket would damage the spring needle structure. Therefore, a single-use functional structure for this cable tie label is designed.

[0084] Based on the above design, that is, by setting locking structures on both sides of the cable tie, this cable tie label can better achieve the locking effect. It is a disposable cable tie label; once the cable tie is inserted into the socket and bound, it cannot be pulled out. Forcibly pulling out the cable tie will damage the spring-loaded structure, thus indicating that the cable tie label is in an open state.

[0085] Alternatively, the insertion hole 111 may be provided with a contact 15, which abuts against the cable tie 12 when the cable tie 12 is inserted into the insertion hole 111. Through the contact 15, the contact 15 compresses the cable tie 12, causing the metal toothed rack 13 to tightly abut against the metal buckle 131, thereby maintaining the closed loop state of the RFID circuit 112 and achieving the aforementioned technical effect of improving the stability of the RFID circuit 112 in the cable tie tag.

[0086] Furthermore, in conjunction with the RFID circuit, a [missing information] is provided within the main body 11 of the cable tie tag.

[0087] PCB14, on which the RFID circuit 112 is placed. Thus, the RFID circuit is stably embedded in the cable ties tag through the printed circuit board manufacturing process.

[0088] Based on the RFID circuit configuration of the printed circuit board described above, the elongated metal part 121 can be designed to be directly soldered to the PCB in the main body, thereby realizing the connection between the metal part 121 and one end of the RFID circuit 112.

[0089] Here, to better achieve the connection between the metal component 121 and one end of the RFID circuit 112, the elongated metal component 121 is made of aluminum-nickel sheet. Furthermore, the width of the elongated metal component 121 can be smaller than the width of the cable tie 12, and its thickness can range from 0.1 to 0.3 mm, preferably 0.2 mm.

[0090] like Figure 1-7 As one implementation method, the insertion hole 111 can be designed to be set on the main body 11, and the cable tie 12 can be integrally set with the main body 11. This can not only make the cable tie tag sturdy and durable and protect the serial structure of the RFID circuit, but also make the overall appearance of the cable tie tag integrated.

[0091] Furthermore, as one embodiment of the metal component 121 being disposed on the cable tie 12, and not as a limiting method, the cable tie 12 is designed with a groove on one side, into which the metal component 121 is embedded. Additionally, the surface of the metal component 121 also has a groove, allowing the spring pin 113 to abut against the groove and contact the metal component 121.

[0092] The above description is merely a preferred embodiment of the present invention, and the specific embodiments described above are not intended to limit the present invention. Various modifications and variations can be made within the scope of the technical concept of the present invention. All refinements, modifications, or equivalent substitutions made by those skilled in the art based on the above description are within the scope of protection of the present invention.

Claims

1. A cable tie tag, comprising a body (11), a cable tie (12) connected to the body, and a socket (111), characterized in that: The main body (11) is provided with an RFID circuit (112), and the cable tie (12) is provided with a metal part (121); One end of the RFID circuit (112) is connected to the socket (111), and the other end of the RFID circuit (112) is connected to one end of the metal part (121); When the cable tie (12) is inserted into the socket (111), the other end of the metal part (121) is connected to the RFID circuit (112), so that the RFID circuit (112) forms a closed loop.

2. The cable tie tag according to claim 1, characterized in that: The socket (111) is provided with a spring pin (113), which is connected to one end of the RFID circuit (112).

3. The cable tie label according to claim 2, characterized in that: A wire (123) is also threaded through the cable tie (12). One end of the wire (123) is connected to the metal part (121), and the other end of the wire (123) is connected to one end of the RFID circuit (112).

4. The cable tie tag according to claim 2, characterized in that: The metal part (121) is a long strip-shaped metal part, one end of which is connected to one end of the RFID circuit (112) through the main body (11).

5. The cable tie tag according to claim 3 or 4, characterized in that: When the cable tie (12) is inserted into the socket (111), the spring pin (113) abuts against the metal part (121).

6. The cable tie tag according to claim 5, characterized in that: The needle tip (1131) of the spring needle (113) is a toothed needle tip; the metal part (121) is provided with a groove that abuts against the toothed needle tip (1131).

7. The cable tie tag according to claim 1, characterized in that: The socket (111) is provided with a metal contact (115), which is connected to one end of the RFID circuit (112).

8. The cable tie tag according to claim 7, characterized in that: The metal part (121) is a long strip-shaped metal part, one end of which is connected to one end of the RFID circuit (112) through the main body (11).

9. The cable tie tag according to claim 7, characterized in that: A wire (123) is also threaded through the cable tie (12). One end of the wire (123) is connected to the metal part (121), and the other end of the wire (123) is connected to one end of the RFID circuit (112).

10. The cable tie tag according to claim 8 or 9, characterized in that: When the cable tie (12) is inserted into the socket (111), the metal contact (115) abuts against the metal piece (121).

11. The cable tie tag according to claim 5 or 10, characterized in that: The cable tie (12) has reverse teeth (122) or reverse toothed strips on the other side opposite to the metal part (121).

12. The cable tie tag according to claim 11, characterized in that: The insertion hole (111) is provided with a buckle (114). When the cable tie (12) is inserted into the insertion hole (111), the buckle (114) locks the reverse tooth (122), so that the cable tie label is in a locked state.

13. The cable tie tag according to claim 1, 5, or 10, characterized in that: The main body (11) has a PCB (14) inside, and the RFID circuit (112) is placed on the PCB.

14. The cable tie tag according to claim 13, characterized in that: The elongated metal piece (121) is welded to the PCB in the main body.

15. The cable tie tag according to claim 14, characterized in that: The elongated metal part (121) is an aluminum-nickel sheet.

16. The cable tie tag according to claim 15, characterized in that: The width of the elongated metal piece (121) is smaller than the width of the cable tie (12), and its thickness ranges from 0.1 to 0.3 mm.

17. The cable tie tag according to claim 1, characterized in that: The insertion hole (111) is provided on the main body (11).

18. The cable tie tag according to claim 1 or 17, characterized in that: The cable tie (12) is integrally formed with the main body (11).

19. The cable tie tag according to claim 1 or 17, characterized in that: The cable tie (12) has a groove on one side, and the metal part (121) is embedded in the groove.

20. The cable tie tag according to claim 5, characterized in that: The surface of the metal part (121) is also provided with a groove, so that the spring pin (113) abuts against the groove to contact the metal part (121).

21. The cable tie tag according to claim 1, characterized in that: The socket (111) is provided with a spring pin (113), which is connected to one end of the RFID circuit (112); the metal part (121) is a long strip of metal, one end of which is connected to one end of the RFID circuit (112) through the main body (11); a wire (123) is also provided inside the cable tie (12), one end of which is connected to the metal part (121), and the other end of which is connected to one end of the RFID circuit (112); when the cable tie (12) is inserted into the socket (111), the spring pin (113) abuts against the metal part (121); The needle tip of the spring pin (113) is a toothed needle tip (1131); the metal part (121) is provided with a groove corresponding to the toothed needle tip (1131); the socket (111) is provided with a metal contact (115), which is connected to one end of the RFID circuit (112); the metal part (121) is a long strip of metal, one end of which is connected to one end of the RFID circuit (112) through the main body (11); or, a wire (123) is also passed through the cable tie (12), one end of which is connected to the metal part (121), and the wire (123) The other end is connected to one end of the RFID circuit (112); when the cable tie (12) is inserted into the socket (111), the metal contact (115) abuts against the metal part (121); the other side of the cable tie (12) opposite to the metal part (121) is provided with a toothed edge (122) or a toothed bar; the socket (111) is provided with a buckle (114), when the cable tie (12) is inserted into the socket (111), the buckle (114) locks the toothed edge (122), so that the cable tie tag is in a locked state; the main body (11) is provided with a PCB (14), and the RFID circuit (112) is placed inside. On the PCB; the elongated metal piece (121) is soldered to the PCB in the main body; the elongated metal piece (121) is an aluminum-nickel sheet; the width of the elongated metal piece (121) is smaller than the width of the cable tie (12), and its thickness ranges from 0.1 to 0.3 mm; the insertion hole (111) is provided on the main body (11); the cable tie (12) is integrally provided with the main body (11); one side of the cable tie (12) is provided with a groove, and the metal piece (121) is embedded in the groove; the surface of the metal piece (121) is also provided with a groove, so that the spring pin (113) abuts against the groove to contact the metal piece (121).

22. A cable tie tag, comprising a body (11), a cable tie (12) connected to the body, and a socket (111), characterized in that: The main body (11) is provided with an RFID circuit (112), the cable tie (12) is provided with a metal toothed rack (13), and the socket (111) is provided with a metal buckle (131); One end of the RFID circuit (112) is connected to the metal buckle (131), and the other end of the RFID circuit (112) is connected to one end of the metal rack (13). When the cable tie (12) is inserted into the socket (111), the metal rack (13) engages with the metal buckle (131), thereby forming a closed loop in the RFID circuit (112).

23. The cable tie tag according to claim 22, characterized in that: When the cable tie (12) is inserted into the socket (111), the metal buckle (131) locks the metal rack (13), thus locking the cable tie label.

24. The cable tie tag according to claim 22, characterized in that: The metal reverse toothed rack (13) is also provided with protrusions on its reverse teeth, so that the metal reverse toothed rack (13) is tightly engaged with the metal buckle (131).

25. The cable tie tag according to claim 22, characterized in that: The insertion hole (111) is provided with a spring pin (113). When the cable tie (12) is inserted into the insertion hole (111), the spring pin (113) abuts against the cable tie (12), so that the metal toothed rack (13) is tightly engaged with the metal buckle (131).

26. The cable tie tag according to claim 25, characterized in that: The needle tip (1131) of the spring needle (113) is a toothed needle tip; the side of the cable tie (12) facing the spring needle is provided with a groove that abuts against the toothed needle tip (1131).

27. The cable tie tag according to claim 22, characterized in that: The socket (111) is provided with a contact (15). When the cable tie (12) is inserted into the socket (111), the contact (115) abuts against the cable tie (12).

28. The cable tie tag according to any one of claims 22-27, characterized in that: The main body (11) has a PCB (14) inside, and the RFID circuit (112) is placed on the PCB.

29. The cable tie tag according to claim 28, characterized in that: The metal inverted toothed rack (13) is welded to the PCB in the main body.

30. The cable tie tag according to claim 29, characterized in that: The metal inverted toothed rack (13) is made of aluminum-nickel.

31. The cable tie tag according to claim 30, characterized in that: The width of the metal inverted toothed rack (13) is smaller than the width of the cable tie (12), and its thickness ranges from 0.1 to 0.3 mm.

32. The cable tie tag according to claim 22, characterized in that: The insertion hole (111) is provided on the main body (11).

33. The cable tie tag according to claim 22 or 32, characterized in that: The cable tie (12) is integrally formed with the main body (11).

34. The cable tie tag according to claim 22 or 32, characterized in that: The cable tie (12) has a groove on one side, and the metal toothed rack (13) is embedded in the groove.

35. The cable tie tag according to claim 22, characterized in that: When the cable tie (12) is inserted into the socket (111), the metal buckle (131) engages the metal toothed bar (13), locking the cable tie label. The metal toothed bar (13) also has protrusions on its teeth, ensuring a tight engagement between the metal toothed bar (13) and the metal buckle (131). The socket (111) contains a spring pin (113). When the cable tie (12) is inserted into the socket (111), the spring pin (113) abuts against the cable tie (12), ensuring a tight engagement between the metal toothed bar (13) and the metal buckle (131). The tip of the spring pin (113) is a toothed tip (1131). The side of the cable tie (12) facing the spring pin has a recess corresponding to the toothed tip (1131) abutting against it. The slot; or, the socket (111) is provided with a contact (115), and when the cable tie (12) is inserted into the socket (111), the contact (115) abuts against the cable tie (12); the main body (11) is provided with a PCB (14), and the RFID circuit (112) is placed on the PCB; the metal toothed rack (13) is soldered to the PCB in the main body; the metal toothed rack (13) is made of aluminum-nickel material; the width of the metal toothed rack (13) is smaller than the width of the cable tie (12), and its thickness ranges from 0.1 to 0.3 mm; the socket (111) is set on the main body (11); the cable tie (12) is integrally set with the main body (11); one side of the cable tie (12) is provided with a groove, and the metal toothed rack (13) is embedded in the groove.

Images