Reusable cloth process butterfly-shaped bundled blood oxygen probe
By using butterfly-shaped fabric technology and flexible FPC component design, the problems of inaccurate blood oxygen probe measurement and poor comfort have been solved, achieving higher measurement accuracy and user comfort.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- HUNAN ACCURATE BIO MEDICAL TECH CO LTD
- Filing Date
- 2025-02-25
- Publication Date
- 2026-07-24
AI Technical Summary
The multi-layered structure of existing pulse oximeter probes leads to uneven light emission and reception, affecting the accuracy of measurement data and causing poor comfort.
The design employs a butterfly-shaped fabric process, combining velvet, perforated holes, transparent sheets, and FPC components, along with Velcro fastening, to ensure alignment of the light-emitting and receiving devices. Flexible FPC boards and bending components reduce bending forces.
It improves the accuracy of measurement data and user comfort, ensures that the light-emitting and receiving devices are aligned when the probe is bent, enhances the wrapping and breathability, and improves the accuracy and comfort of blood oxygen detection.
Smart Images
Figure CN224540218U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of medical and nursing devices, and in particular to a reusable fabric butterfly-shaped strap-on pulse oximeter probe. Background Technology
[0002] Blood oxygen saturation is one of the most important basic data in clinical medicine. It is a crucial physiological parameter reflecting whether the body's respiratory function and the oxygen content in the blood are normal. By measuring blood oxygen saturation, we can promptly understand a patient's blood oxygen levels and monitor their health status, which has significant clinical value.
[0003] Existing pulse oximeter probes on the market typically employ a multi-layered stacked structure. This stacking structure is unreasonable, and the light emission and reception are misaligned, resulting in inaccurate measurement data. Furthermore, the bending and wrapping force is significant, affecting product comfort. To address this issue, a reusable fabric butterfly-shaped strap-on pulse oximeter probe is proposed. Utility Model Content
[0004] This utility model addresses the shortcomings of existing technologies by providing the following technical solution: a reusable fabric butterfly-shaped strap-on pulse oximeter, comprising: a pulse oximeter and a strap for use with the pulse oximeter. The pulse oximeter includes a first piece of fleece and a second piece of fleece. The first piece of fleece has a pair of perforated holes, and the second piece of fleece has a pair of perforated holes. The first pair of perforated holes and the second pair of perforated holes are positioned opposite each other. A pair of transparent sheets are fixed between the first and second pieces of fleece, and the transparent sheets are respectively located inside the perforated holes. The first and second pieces of fleece are sandwiched between the perforated holes by heat pressing. An FPC assembly is provided below the second piece of fleece. A light-shielding layer is provided at the bottom of the FPC assembly. A third piece of fleece is provided at the bottom of the light-shielding layer. The second and third pieces of fleece are fixed by heat pressing. A hook and loop fastener is fixed at the bottom of the third piece of fleece. A groove is provided on the back of the strap, and hook and loop fasteners are fixed in the groove.
[0005] As an improvement to the above technical solution, the FPC assembly includes a welding plate, a pair of flexible FPC boards, and a data transmission line. The pair of flexible FPC boards are located on opposite sides of the welding plate. The welding plate and the pair of flexible FPC boards are connected by a flexible bending member. A light-emitting device is fixedly mounted on one of the flexible FPC boards, and a receiving device is fixedly mounted on the other flexible FPC board. The cable at the end of the data transmission line is thermally welded to the welding plate, and the data transmission line is electrically connected to the light-emitting device and the receiving device.
[0006] As an improvement to the above technical solution, the front of the strap is fixedly provided with Velcro loop 2, the front of the strap is fixedly provided with Velcro loop 3, the back of the strap is fixedly provided with Velcro hook 2, and the back of the strap is fixedly provided with Velcro hook 3.
[0007] As an improvement to the above technical solution, the pair of transparent sheets are punched into a convex shape, and the convex surfaces of the transparent sheets pass through the hollow hole and are parallel to the surface of the velvet cloth. The velvet cloth is made of light-colored Lycra fabric.
[0008] As an improvement to the above technical solution, the light-emitting device and the receiving device are symmetrically arranged on a pair of flexible FPC boards. The light-emitting device on the right is offset vertically by one millimeter from the receiving device on the left. The light-emitting device and the receiving device are respectively located under a pair of transparent sheets.
[0009] The beneficial effects of this utility model are:
[0010] 1. By using a combination of velvet cloth one, velvet cloth two, perforated hole one, perforated hole two, transparent sheet, FPC component, light-blocking layer and velvet cloth three, the wrapping layer is surrounded by multiple layers of butterfly-shaped fabric, which has strong wrapping and good comfort. The fabric is highly breathable. After bending, the light-emitting device and the receiving device are aligned. With the addition of the light-blocking layer on the back, the accuracy of measurement data can be improved.
[0011] 2. Through the combined use of welding plates, flexible FPC boards, flexible bending components, light-emitting devices, receiving devices, and data transmission lines, the structure of the flexible bending components and flexible FPC boards of the pulse oxygen probe reduces bending force and improves the comfort of product use. Attached Figure Description
[0012] Figure 1 This is the main structural view of the present invention;
[0013] Figure 2 This is an exploded structural diagram of the pulse oximeter probe of this utility model;
[0014] Figure 3 This is a structural diagram of the FPC component of this utility model after bending.
[0015] Figure 4 This is a front view of the strap structure of this utility model;
[0016] Figure 5 This is a structural diagram of the back of the strap of this utility model;
[0017] Figure 6 This is a side view of the pulse oximeter probe in use.
[0018] Figure 7 This is a front view of the pulse oximeter probe in use.
[0019] Figure reference numerals: 1. Pulse oxygen probe; 10. Flannel 1; 11. Flannel 2; 12. Hole 1; 13. Hole 2; 14. Transparent sheet; 15. FPC assembly; 16. Light-shielding layer; 17. Flannel 3; 18. Hook and loop fastener 1; 19. Strap; 110. Groove; 111. Hook and loop fastener 1; 151. Welding plate; 152. Flexible FPC board; 153. Flexible bending component; 154. Light-emitting device; 155. Receiving device; 156. Data transmission line; 191. Hook and loop fastener 2; 192. Hook and loop fastener 3; 193. Hook and loop fastener 2; 194. Hook and loop fastener 3. Detailed Implementation
[0020] The following specific examples illustrate the implementation of this utility model. Those skilled in the art can easily understand other advantages and effects of this utility model from the content disclosed in this specification. This utility model can also be implemented or applied through other different specific embodiments, and various details in this specification can also be modified or changed based on different viewpoints and applications without departing from the spirit of this utility model.
[0021] The pulse oximeter probes currently available on the market typically employ a multi-layered stacked structure. However, this stacking structure is often flawed, resulting in misalignment between the light-emitting and receiving sensors and inaccurate measurement data.
[0022] To resolve this issue, please refer to Figure 1-5 A reusable fabric butterfly-shaped strap-on pulse oximeter includes: a pulse oximeter 1 and a strap 19 for use with the pulse oximeter 1. The pulse oximeter 1 includes a first piece of fleece 10 and a second piece of fleece 11. The first piece of fleece 10 has a pair of perforated holes 12, and the second piece of fleece 11 has a pair of perforated holes 13. The first pair of perforated holes 12 and the second pair of perforated holes 13 are positioned opposite each other. A pair of transparent sheets 14 are fixed between the first piece of fleece 10 and the second piece of fleece 11, and the transparent sheets 14 are located inside the perforated holes 13. A transparent sheet 14 is sandwiched between perforated holes 12 and 13 by heat pressing between velvet fabric 10 and velvet fabric 2. An FPC component 15 is provided below velvet fabric 2. A light-shielding layer 16 is provided at the bottom of the FPC component 15. A velvet fabric 3 17 is provided at the bottom of the light-shielding layer 16. Velvet fabric 2 11 and velvet fabric 3 17 are fixed together by heat pressing. A Velcro hook side 18 is fixed at the bottom of velvet fabric 3 17. A groove 110 is opened on the back of the strap 19. Velcro fleece 111 is fixed in the groove 110.
[0023] When in use, the wrapping layer is surrounded by multiple layers of butterfly-shaped fabric, which provides strong wrapping and good comfort. The fabric is also highly breathable. After being installed on the instep, the light-emitting device 154 and the receiving device 155 are aligned after bending. With the addition of the light-blocking layer 16 on the back, the accuracy of the measurement data can be improved. The Velcro hook surface 18 at the bottom of the fleece 3 17 is attached to the Velcro fleece 111 in the groove 110 of the strap 19, so that it can be attached and fixed to the strap 19. The shape of the groove 110 is offset from the blood oxygen probe 1 by a certain distance, so that the two can be positioned and aligned. It is fixed on the foot by the strap 19 for blood oxygen detection.
[0024] In the actual implementation process, the pulse oximeter probe body is subjected to significant bending and wrapping force, which affects the comfort of the product. Figure 2 and Figure 3 As shown, the FPC assembly 15 includes a welding plate 151, a pair of flexible FPC boards 152, and a data transmission line 156. The pair of flexible FPC boards 152 are located on opposite sides of the welding plate 151. The welding plate 151 and the pair of flexible FPC boards 152 are connected by a flexible bending member 153. A light-emitting device 154 is fixedly mounted on one flexible FPC board 152, and a receiving device 155 is fixedly mounted on the other flexible FPC board 152. The cable at the end of the data transmission line 156 is heat-fused to the welding plate 151, and the data transmission line 156 is electrically connected to the light-emitting device 154 and the receiving device 155.
[0025] In use, the flexible FPC board 152 and the flexible bending component 153 make the FPC assembly 15 more flexible, reducing the bending force of the pulse oxygen probe 1 during binding and improving the comfort of using the product. The better flexibility allows the light-emitting device 154 and the receiving device 155 to correspond vertically, improving the accuracy of measurement. The detection data is transmitted through the data transmission line 156, making it convenient to view and analyze the detection data.
[0026] In the specific implementation process, such as Figure 4 and Figure 5 As shown, the front of the strap 19 is fixed with Velcro loop 2 193, the front of the strap 19 is fixed with Velcro loop 3 194, the back of the strap 19 is fixed with Velcro hook 2 191, and the back of the strap 19 is fixed with Velcro hook 3 192.
[0027] When in use, the strap 19 is removed and replaced using Velcro. When in use, pull the third Velcro hook 191 around the instep and attach it to the Velcro loop 194. Then pull the Velcro hook 192 around the ankle and attach it to the Velcro loop 193. This Y-shaped strap 19 structure utilizes the foot structure to securely fix the blood oxygen probe 1. The use of Velcro makes it more convenient for users to use.
[0028] In the specific implementation process, such as Figure 2 As shown, a pair of transparent sheets 14 are punched in a convex shape. The convex surfaces of the transparent sheets 14 pass through the hollow holes 12 and are parallel to the surface of the velvet cloth 10. The velvet cloth 10 is made of light-colored Lycra fabric.
[0029] When in use, the transparent sheet 14 is parallel to the surface of the velvet cloth 10 so that it can fit against the skin. During testing, the transparent sheet 14 fits against the skin, making the test data more accurate. The velvet cloth 10, which comes into contact with the skin, should be made of a more skin-friendly and breathable material. Light-colored Lycra fabric can be used to observe whether it is dirty and whether it needs to be replaced, making it more comfortable to use.
[0030] In the specific implementation process, such as Figure 3 , Figure 6 and Figure 7 As shown, the light-emitting device 154 and the receiving device 155 are symmetrically arranged on a pair of flexible FPC boards 152. The light-emitting device 154 on the right is offset vertically by one millimeter from the receiving device 155 on the left.
[0031] In use, the light-emitting device 154 and the receiving device 155 are misaligned so that the light-emitting device 154 of the pulse oximeter probe 1 can directly face the receiving device 155, improving the accuracy of the measurement. Since the sole of the foot is flat and the back of the foot is sloping, the receiving sensor of the probe is attached to the foot, while the light-emitting device 154 needs to go around the thickness of the foot to the arched back of the foot. There is a deviation in curvature and angle between them, so the light-emitting device 154 needs to be misaligned by a certain distance to align with the receiving device 155. The light-emitting device 154 and the receiving device 155 are respectively located under a pair of transparent thin films 14.
[0032] The above embodiments are only used to illustrate the technical solution of this utility model, and are not intended to limit it. Any person skilled in the art can modify or change the above embodiments without departing from the spirit and scope of this utility model. Therefore, all equivalent modifications or changes made by those skilled in the art without departing from the spirit and technical concept disclosed in this utility model should still be covered by the claims of this utility model.
Claims
1. A reusable fabric butterfly-shaped strap-on pulse oximeter, characterized in that, include: A pulse oxygen probe (1) and a strap (19) used in conjunction with the pulse oxygen probe (1). The pulse oxygen probe (1) includes a first piece of velvet (10) and a second piece of velvet (11). The first piece of velvet (10) has a pair of perforated holes (12), and the second piece of velvet (11) has a pair of perforated holes (13). The first pair of perforated holes (12) and the second pair of perforated holes (13) are positioned opposite each other. A pair of transparent sheets (14) are fixed between the first piece of velvet (10) and the second piece of velvet (11). The transparent sheets (14) are located inside the perforated holes (13). The first piece of velvet (10) and the second piece of velvet (11) are... The transparent sheet (14) is sandwiched between the first cutout (12) and the second cutout (13) by heat pressing. An FPC component (15) is provided below the second velvet (11). A light-shielding layer (16) is provided at the bottom of the FPC component (15). A third velvet (17) is provided at the bottom of the light-shielding layer (16). The second velvet (11) and the third velvet (17) are fixed together by heat pressing. A hook and loop fastener (18) is fixed at the bottom of the third velvet (17). A groove (110) is opened on the back of the strap (19). A hook and loop fastener (111) is fixed in the groove (110).
2. The reusable fabric butterfly-shaped strap-on pulse oximeter probe according to claim 1, characterized in that: The FPC assembly (15) includes a welding plate (151), a pair of flexible FPC boards (152), and a data transmission line (156). The pair of flexible FPC boards (152) are located on opposite sides of the welding plate (151). The welding plate (151) and the pair of flexible FPC boards (152) are connected by a flexible bending member (153). A light-emitting device (154) is fixedly mounted on one of the flexible FPC boards (152), and a receiving device (155) is fixedly mounted on the other flexible FPC board (152). The cable at the end of the data transmission line (156) is heat-fused to the welding plate (151). The data transmission line (156) is electrically connected to the light-emitting device (154) and the receiving device (155).
3. The reusable fabric butterfly-shaped strap-on pulse oximeter probe according to claim 1, characterized in that: The front of the strap (19) is fixed with Velcro loop 2 (193), the front of the strap (19) is fixed with Velcro loop 3 (194), the back of the strap (19) is fixed with Velcro hook 2 (191), and the back of the strap (19) is fixed with Velcro hook 3 (192).
4. The reusable fabric butterfly-shaped strap-on pulse oximeter probe according to claim 1, characterized in that: The pair of transparent sheets (14) are punched in a convex shape. The convex surfaces of the transparent sheets (14) pass through the first hollow hole (12) and are parallel to the surface of the first velvet cloth (10). The first velvet cloth (10) is made of light-colored Lycra fabric.
5. A reusable fabric-made butterfly-shaped strap-on pulse oximeter probe according to claim 2, characterized in that: The light-emitting device (154) and the receiving device (155) are symmetrical on a pair of flexible FPC boards (152). The light-emitting device (154) on the right is offset by one millimeter from the receiving device (155) on the left. The light-emitting device (154) and the receiving device (155) are respectively located below a pair of transparent sheets (14).