Suspended moxibustion support system

Abstract

The invention discloses a suspended moxibustion support system, and belongs to the technical field of traditional Chinese medicine medical instruments. The core of the system is to accurately identify and solve the inherent stability problem of the arched elastic beam during bearing, that is, the arched elastic beam can generate horizontal thrust for driving the supporting units at the two ends to be away from each other. Therefore, the invention provides a targeted lateral restraint device. The device is connected or constrained with the supporting unit and / or the elastic beam assembly to provide constraint counter force pointing to the interior of the system to directly resist the horizontal thrust, and therefore a stable structure is constructed on the premise of not depending on a traditional heavy balance weight. The basic principle uniformly covers a plurality of implementation modes such as a flexible connecting belt, a balancing weight and a limiting frame. According to the invention, ultra-light weight, high stability, rapid deployment and accurate positioning without damage to the stability of the system are cooperatively realized.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of traditional Chinese medicine medical devices, and particularly relates to a support system for suspension moxibustion therapy. BACKGROUND

[0002] Suspension moxibustion, as an important form of traditional Chinese medicine moxibustion therapy, its technical core lies in meeting two interrelated mechanical requirements: first, providing stable support force to suspend the moxa stick; second, achieving precise spatial positioning so that the heat radiation field generated by the burning of the moxa stick can stably cover the human body acupoint target area. Therefore, the stability and the lightness of the operation (to facilitate precise positioning) of the support system together constitute the key technical elements that determine the effect of suspension moxibustion.

[0003] However, the prior art cannot simultaneously ideally meet the above requirements, and the fundamental dilemma lies in the inherent contradiction between "lightweight", "stability" and "operational accuracy", which is embodied in the following three types of mainstream technical solutions:

[0004] 1. Counterweight support: stability and operation cannot be achieved at the same time

[0005] In order to solve the stability problem, this type of support generally adopts the structure of "rigid straight rod support arm + integrated heavy base". There is an inherent moment problem in its working principle: the gravity of the moxa stick suspended at the distal end of the support arm will form a tipping moment with the base edge as the fulcrum. The only solution to resist this moment is to greatly increase the weight of the base (usually 2-5 kg), which directly leads to the stability at the expense of lightness and operability.

[0006] The more prominent defect lies in the integrated design paradigm of "rigid connection of stable base and operation component". When the user needs to move the moxa stick to align the acupoint, whether it is macro movement or micro adjustment, the entire heavy system must be carried. This "pull one hair and move the whole body" operation mode is extremely laborious and seriously damages the concentration and accuracy during positioning, making it almost impossible to achieve easy millimeter-level acupoint alignment.

[0007] 2. Clamping type support: inconvenience is transferred to the environment, flexibility is lost

[0008] This type of support is fixed to the edge of a table, bed or other external furniture through a clamping mechanism. Although it avoids counterweight, it essentially completely relies on the external environment for stability. This leads to a serious limitation of its applicability, and it cannot meet the needs of users to perform moxibustion in positions such as bed surface and sofa where there are no suitable clamping points.

[0009] Especially crucial is that the "anchor point" is immovable furniture. When the moxibustion position needs to be adjusted, the user cannot move this "anchor point", resulting in an extremely limited effective working range of the support, rigid positioning, and difficulty in achieving precise acupoint alignment.

[0010] 3. Binding support: a double compromise between comfort and stability

[0011] This type of support directly binds the supporting structure to the body part being moxaed by a belt. Although it achieves lightweight, it brings about negative effects that cannot be ignored: first, the tightness caused by active binding is strong, which goes against the relaxation principle of moxa therapy and seriously affects the moxa experience and comfort; second, its stability is established on the body, which is easily disturbed by the user's breathing or slight movement, and the supporting rigidity is insufficient, so the moxa stick is easy to shake, which also makes it difficult to ensure precise positioning. This is fundamentally different from the passive pressing of the body weight in some embodiments of the present invention.

[0012] Although there are many improvement attempts in the prior art, the supporting structure still cannot get rid of the traditional paradigm of "rigid straight rod" and "integrated stability and movement", and cannot fundamentally solve the above-mentioned contradictions.

[0013] In summary, the prior art has been trapped in an irreconcilable dilemma for a long time, and the deep reason lies in the traditional structure paradigm of "straight rod support" and "integrated stability and movement", which has not been fundamentally innovated in terms of mechanical principles and system configuration. This long-standing technical bottleneck is the core problem to be solved by the present invention. SUMMARY

[0014] Technical problems to be solved by the present invention

[0015] The present invention aims to break through the limitations of the traditional structure paradigm and provide an innovative suspension moxa support system from the perspective of mechanical principles to achieve ultra-lightweight, high stability, and precise positioning operation without compromising stability.

[0016] To achieve the above-mentioned purpose, the present invention adopts the following technical solutions:

[0017] A suspension moxa support system, the core of which is to introduce a cooperative stability mechanism of "arch-shaped elastic beam" and "lateral restraint device". The system includes:

[0018] An elastic beam assembly (1) containing at least one elastic beam that can be bent into an arch-shaped structure when in use;

[0019] Two support units (2) respectively arranged at both ends of the elastic beam assembly (1);

[0020] A lateral restraint device (3);

[0021] The core working mechanism of the system is that when the elastic beam assembly (1) is bent into an arch shape and bears a suspended load, a horizontal thrust that drives the two support units (2) away from each other will be generated inside the structure. This horizontal thrust is the root cause of system instability.

[0022] The lateral restraint device (3) provides a restraint reaction force directed to the inside of the system by connecting or restraining the support unit (2) and / or the elastic beam assembly (1). The restraint reaction force is used to directly resist the horizontal thrust, thereby preventing the support unit from sliding laterally and maintaining the stability of the entire system.

[0023] As a further improvement of the invention:

[0024] The lateral restraint device (3) is a soft connection belt (31), and both ends of the soft connection belt (31) are connected to two support units (2). Preferably, the user's body can naturally press on the belt, and the stability is enhanced by using the weight.

[0025] The lateral restraint device (3) is a soft connection belt (31), and both ends of the soft connection belt (31) are connected to the elastic beam assembly (1).

[0026] The lateral restraint device (3) includes two independent limiting frames (34) connected by a soft connection belt (31), and the two support units (2) are respectively accommodated inside the two independent limiting frames (34).

[0027] The suspension moxibustion support system is characterized in that the soft connection belt (31) is provided with a length adjusting mechanism (311) for fine-tuning the system tension.

[0028] The lateral restraint device (3) includes two independent counterweights or counterweight containers (32), which are respectively arranged outside the two support units (2).

[0029] The lateral restraint device (3) includes a U-shaped limiting frame (33), and the two support units (2) are respectively accommodated inside the two arms of the U-shaped limiting frame (33).

[0030] The width of the U-shaped limiting frame (33) is adjustable.

[0031] The soft connection belt (31) is connected to the elastic beam assembly (1) through two positioning rings (35) which are slidably sleeved on the elastic beam assembly (1), and the positioning rings (35) are provided with locking mechanisms (351) for fixing them on the elastic beam assembly (1).

[0032] The elastic beam assembly (1) and the support unit (2) are provided with a quick connection device (4), such as a magnetic attraction assembly, a buckle mechanism or a mechanical locking mechanism.

[0033] The elastic beam in the elastic beam assembly (1) is composed of multiple detachable or foldable beam segments to achieve extreme portability.

[0034] The system further comprises at least one slide block (5) arranged on the elastic beam assembly (1) and capable of being slidably adjusted, and an incense stick holder (6) mounted on the slide block (5). The slide block (5) and the incense stick holder (6) can be mounted on the system according to any of the preceding embodiments, including the length adjustment mechanism (311) of claim 5.

[0035] As a further improvement of the present application, the elastic beam assembly (1) comprises two parallel elastic beams; the slide block (5) is arranged to be slidably disposed on the two parallel elastic beams, thereby significantly improving the stability of the slide block movement and the stability of the incense stick suspension; each elastic beam in the elastic beam assembly (1) is composed of multiple detachable beam segments to achieve extreme storage portability; the support unit (2) is a telescopic rod with adjustable length, so that the system can flexibly adapt to different use scenarios and user postures.

[0036] Advantages of the present application

[0037] Compared with the prior art, the present application has the following advantages:

[0038] 1. Principle breakthrough, accurately solving the core contradiction: The present application first points out in the field of incense stick suspension bracket that the key to the stability of the arched elastic beam system lies in resisting its inherent horizontal thrust, rather than the anti-overturning moment as in the traditional concept. By providing a targeted restraining force through the lateral restraint device (3), the strong correlation between weight and stability is fundamentally decoupled at the physical level, laying a new mechanical foundation for the lightweight of the bracket.

[0039] 2. Separation of stability and operation, achieving lossless accurate positioning: The present application initiates the design paradigm of "functional separation of stable base and operating component". Specifically embodied in:

[0040] For the counterweight block (32), U-shaped limiting frame (33) and other lateral restraint devices (3): when fine-tuning the position of the incense stick, the user only needs to move the lightweight elastic beam assembly (1) and the support unit (2), while the lateral restraint device (3) can remain in place, achieving "moving (operating component) and static (stable base) separation", and completely overcoming the operation drawbacks of traditional counterweight type brackets "pulling a hair and moving the whole body".

[0041] For the soft connection belt (31) and other lightweight lateral restraint devices (3): because the device itself is extremely light, even if it is moved over a large range, the entire system is still lightweight.

[0042] Hierarchical positioning: combined with the millimeter-level fine-tuning capability of the elastic beam slide block (5), a lossless accurate positioning experience is formed, which unifies "macro lightweight movement" and "micro precise calibration" without compromising stability.

[0043] 3. Systematic optimization, achieving the ultimate portability: through the systematic design of detachable / foldable beam segments and quick connection devices (4), the storage volume and total weight (which can be optimized to less than 500 grams) are reduced to the extreme, realizing the full-process portability from carrying, storage to rapid deployment, greatly expanding the application scenarios of the product.

[0044] 4. Technical universality and wide adaptability: the core stability mechanism of "arch-shaped elastic beam + lateral restraint" disclosed in the invention has high technical universality. At the same time, the various lateral restraint devices (3) provided can flexibly adapt to different user body states, use habits (such as supine and prone), and environmental surfaces (such as table surface, bed surface, and carpet), showing excellent scene adaptability. BRIEF DESCRIPTION OF DRAWINGS

[0045] Figure 1 It is a perspective structural schematic diagram of embodiment 1 (soft connection belt connecting support unit) of the invention.

[0046] Figure 2 It is a perspective structural schematic diagram of embodiment 2 (counterweight) of the invention.

[0047] Figure 3 It is a perspective structural schematic diagram of embodiment 3 (U-shaped limiting frame) of the invention.

[0048] Figure 4 It is a perspective structural schematic diagram of embodiment 4 (lateral restraint device is an independent limiting frame with soft connection belt) of the invention.

[0049] Figure 5 It is a side view schematic diagram of embodiment 5 (soft connection belt connecting elastic beam assembly and height adjustable) of the invention.

[0050] Figure 6 It is a schematic diagram of the elastic beam assembly composed of multiple beam segments.

[0051] Figure 7 It is a schematic diagram of the support unit being a telescopic rod.

[0052] Figure 8 It is a schematic diagram of the use state of the invention equipped with a sliding block and an incense stick holder.

[0053] Figure 9 It is a perspective structural schematic diagram of embodiment 6 (corresponding to claim 15, showing a double-parallel elastic beam, detachable beam segment, and telescopic support unit integrated system) of the invention.

[0054] Figure: 1-elastic beam assembly; 2-support unit; 3-lateral restraint device; 31-soft connection belt; 311-length adjustment mechanism; 32-counterweight / container; 33-U-shaped limiting frame; 34-independent limiting frame; 35-positioning ring; 351-locking mechanism; 4-quick connection device; 5-sliding block; 6-aisle stick holder. DETAILED DESCRIPTION

[0055] The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are part of the embodiments of the present application, rather than all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative work fall within the scope of protection of the present application.

[0056] Embodiment 1

[0057] As shown in Figure 1 , the suspension moxa support system in the embodiment includes an elastic beam assembly (1), two support units (2) and a soft connection belt (31) as a lateral restraint device (3). The elastic beam assembly (1) is composed of a carbon fiber tube, which can be bent into a stable arch shape. The two support units (2) are solid wooden cylinders, which are respectively supported at the two ends of the elastic beam assembly (1). The soft connection belt (31) is a nylon webbing, the two ends of which are respectively sleeved on the bottom of the two support units (2) through plastic snap rings. The soft connection belt (31) is provided with a grommet as a length adjustment mechanism (311) for fine adjustment of the belt length and optimization of the system tension.

[0058] Working mechanism: when in use, the user lies down, and the back or waist of the body can naturally press on the lower soft connection belt (31). When the elastic beam assembly (1) is bent into an arch shape and suspends the aisle stick, a comprehensive horizontal thrust driving the two support units (2) to slide outward will be generated in the system. At this time, the soft connection belt (31) pressed tightly by the weight of the user provides a strong inward restraint reaction force, which directly resists the horizontal thrust, thereby realizing the stability of the system. This way is essentially different from the prior art of actively binding the body.

[0059] Embodiment 2

[0060] As shown in Figure 2 , the difference between the embodiment and embodiment 1 is the lateral restraint device (3). In the embodiment, the device is two independent counterweight containers (32) made of metal. When in use, fillers such as sand or water can be put into the containers to adjust the counterweight. The two counterweight containers (32) are respectively placed tightly on the outer side of the two support units (2).

[0061] Working mechanism and advantages: The counterweight container (32) directly resists the overall horizontal thrust inside the system through the static friction generated by its own weight. The outstanding advantage of this solution is that when making fine adjustments to the moxa stick, only the lightweight elastic beam assembly (1) and the support unit (2) need to be moved, while the counterweight container (32) does not need to be moved. This perfectly reflects the operational advantage of "separation of stable base and operating parts", and is especially suitable for use on soft surfaces such as beds and sofas.

[0062] Example 3

[0063] like Figure 3 As shown, the lateral restraint device (3) in this embodiment is a U-shaped limiting frame (33) made of rigid plastic. The bottoms of the two support units (2) are precisely accommodated inside the two arms of the U-shaped limiting frame (33) and are tightly fitted thereto. The width of the U-shaped limiting frame (33) can be adjusted and locked by its own telescopic structure.

[0064] Working mechanism and advantages: The U-shaped limiting frame (33) provides rigid lateral limiting for the support unit (2), directly resisting horizontal thrust. Its adjustable width allows it to perfectly adapt to different support unit spacings caused by different bending curvatures of the elastic beam, enhancing the versatility and stability of the system.

[0065] Example 4 (corresponding to claim 4)

[0066] like Figure 4 As shown, this embodiment provides a better balance between ease of operation and system lightweighting. The lateral restraint device (3) includes two independent limiting frames (34) connected by a flexible connecting strip (31), and the two support units (2) are respectively housed inside the two independent limiting frames (34).

[0067] Working Mechanism and Advantages: This embodiment cleverly combines rigid limits and flexible constraints, and its core advantage lies in the user experience under different operating modes:

[0068] When moving the entire system macroscopically, the operation is similar to that in Example 1, as the flexible connecting strip (31) may still be pressed down by the user's body.

[0069] However, its advantages are fully demonstrated when making fine adjustments to the position of the moxa stick: at this time, the user only needs to move the lightweight elastic beam assembly (1) and the support unit (2) connected to it to make it slide within the independent limiting frame (34) for precise positioning. During this process, the stable base composed of the limiting frame and the connecting strap does not need to move at all, so the user does not need to lift their body to cooperate, achieving interference-free and precise operation.

[0070] Compared to Embodiment 2 (counterweight): This embodiment provides lateral constraint force through the rigid limiting of the limiting frame (34) and the flexible constraint of the flexible connecting strap (31), completely avoiding the use of heavy counterweight components. This makes the entire system lighter and more portable while maintaining the advantage of "separation of stable base and operating components".

[0071] Example 5

[0072] like Figure 5 As shown, this embodiment provides a method for steplessly adjusting the height of the connection point. The lateral restraint device (3) is a flexible connecting strip (31), with positioning rings (35) connected to both ends by hooks. The positioning rings (35) are fitted onto the elastic beam assembly (1) and can slide freely along its length. The positioning rings (35) are provided with a locking mechanism (351), such as a friction screw.

[0073] Working Mechanism and Advantages: Users slide the positioning ring (35) to the most suitable position according to their body type and the area to be treated, and then lock it. This design allows users to make fine, continuous linear adjustments, thereby enabling more precise control over the final height of the soft connecting band (31) relative to the human body surface. This not only achieves a high degree of flexibility and customization, but also ensures the structural stability of the entire support system during moxibustion.

[0074] Example 6 (Preferred integrated solution corresponding to claim 15)

[0075] See Figure 9 This embodiment provides a highly optimized, integrated specific implementation scheme, whose structural features correspond to the scope of protection claimed in claim 15, aiming to maximize the lightweight, portability and stability of the present invention.

[0076] The system comprises two parallel elastic beam assemblies (1), which are made of hollow spring steel tubes with a diameter of 3 mm, combining good elasticity with sufficient strength. Each elastic beam is detachably connected by three beam segments, each 35 cm long, using lightweight alloy connectors (such as built-in threaded joints).

[0077] The two support units (2) are telescopic rods made of high-strength aluminum alloy. Their telescopic structure can be fixed by a knob locking mechanism. When retracted to the shortest length, the length is 30 cm, and when fully extended, the length is 50 cm. The elastic beam assembly (1) and the support unit (2) can be quickly connected and separated by a magnetic assembly (as a quick connection device 4).

[0078] The lateral restraint device (3) in this embodiment is a flexible connecting strip (31), with its two ends connected to the bottom of the two support units (2). The connecting strip is equipped with a length adjustment mechanism (311).

[0079] A special slider (5) is arranged to be slidably disposed on the two parallel elastic beams, and can be smoothly slid along the arched track of the beams. The moxa stick holder (6) is installed below the slider (5) through a directional spherical hinge, allowing the moxa stick to be finely adjusted at multiple angles.

[0080] Digital analysis of weight and volume:

[0081] 1. System total weight calculation:

[0082] Elastic beam assembly: spring steel hollow tube (diameter 3mm, total length 35cm / section x 3 sections x 2 beams), linear density about 60g / m, total weight about 126g.

[0083] Support unit: high-strength aluminum alloy telescopic rod (2), estimated weight about 150g.

[0084] Slider and moxa stick holder: lightweight engineering plastic and a small amount of metal, estimated weight about 80g.

[0085] Soft connection belt and connector: nylon belt and small alloy connector, estimated weight about 44g.

[0086] System total weight: 126+150+80+44=400g.

[0087] 2. Volume calculation after storage:

[0088] After disassembly, the longest component is a beam section of 35cm.

[0089] All components can be put into a special storage bag. The storage bag size can be designed as follows: length about 36cm (slightly longer than the beam section), diameter about 8cm.

[0090] Volume after storage: approximately a cylinder with a capacity of about 1.2 liters.

[0091] Beneficial effects and advantages of the embodiment:

[0092] 3. Lightweight to a new height: the total weight of the system is only 400g, which is much lower than the traditional counterweight support (2-5kg), and even lighter than many tablet computers. This specific number proves that the invention has completely broken the traditional shackles of "stability and weight", providing users with an unprecedented light experience, single-handed holding, and moving without burden.

[0093] 4. Portability reaches a new standard: 1.2 liters of storage volume, only the size of a large water cup. Combined with the weight of 400g, the entire system can be easily put into a daily commuting bag or luggage, greatly expanding its applicability in various scenarios such as home, travel, and outdoor, and truly realizing the convenience of "portable moxibustion".

[0094] 5. Comprehensive performance optimization:

[0095] Double-beam design: improves the smoothness of the slider (5) movement and the absolute stability of the incense suspension.

[0096] Quick connection and telescopic: magnetic quick connection and telescopic support unit enable the system to complete the deployment from the storage state to the working state within tens of seconds, providing excellent user experience.

[0097] Modular design: all components can be quickly disassembled, which is not only convenient for storage, but also convenient for maintenance and future possible functional expansion.

[0098] This embodiment quantitatively presents the "extreme portability" and "ultra-lightweight" advantages claimed by the invention through the specific key data of 400 grams weight and 1.2 liters volume, and effectively proves the practicality and progressiveness of the invention.

[0099] Regarding the portability design

[0100] Referring to Figure 6 and Figure 7 , to achieve portability, the elastic beam assembly (1) can be composed of multiple short beam sections connected by threaded joints. The support unit (2) can use multi-section telescopic rods and be fixed in length by a knob locking mechanism. Through these designs, the system can achieve small volume in the storage state, and the total weight can be controlled within 500 grams, achieving extreme portability.

[0101] Regarding functional expansion

[0102] Referring to Figure 8 , in all embodiments, one or more slidable sliders (5) can be installed on the assembled elastic beam assembly (1). The slider (5) can be provided with rolling elements such as balls or bearings inside, allowing it to move easily and smoothly along the arch beam. Each slider (5) can be installed with an incense holder (6) below, which is used to firmly hold the incense. This slider (5) and incense holder (6) can be installed on the system according to any of the preceding embodiments, including the length adjustment mechanism (311) described in claim 5.

[0103] Through the design of the slider and incense holder described above, the user can smoothly, accurately and continuously position the incense holder and the fixed incense within the wide area covered by the arch beam by gently pushing the slider without moving the entire support base.

[0104] Regarding the synergistic working mechanism and operational advantages of the invention

[0105] In summary, one of the core innovations of the present application is the reconstruction of the relationship between "stability" and "mobility".

[0106] The various embodiments of the lateral restraint device (3) provide differentiated stability strategies for the user, depending on their physical characteristics:

[0107] For the flexible connecting belt (31), whether it is connected to the support unit (2) and possibly pressed under the body, or connected to the elastic beam assembly (1) and suspended above, its own light weight makes it exceptionally easy to move the entire system for large-scale positioning.

[0108] For the flexible connecting belt (31) with counterweight (32), U-shaped limiting frame (33), and independent limiting frame (34), the core operational advantage is "dynamic and static separation during fine adjustment". When the user needs to fine-tune the position of the moxa stick, only need to gently push the light elastic beam assembly (1) with the slider (5) and moxa stick holder (6) on it to the new target point accurately, while the lateral restraint device (3) does not need to move, providing stable lateral restraint in the original position.

[0109] This flexible and efficient design, combined with the millimeter-level fine-tuning ability brought by the slider, fundamentally solves the inherent contradiction between the traditional support's heaviness, rigidity, and operational inconvenience, achieving the perfect unity of stability, portability, and precision.

[0110] The above is only a specific embodiment of the present application, but the protection scope of the present application is not limited to this. Any changes or replacements that can be easily thought of by those skilled in the art within the technical scope disclosed by the present application should be covered within the protection scope of the present application. Therefore, the protection scope of the present application should be subject to the protection scope of the claims.

Claims

1. A candelabrum system, characterized in that, The invention relates to a flexible beam assembly (1) comprising at least one flexible beam capable of bending into an arched structure when in use; two support units (2) respectively arranged at the two ends of the flexible beam assembly (1); a lateral restraint device (3) arranged to provide a restraint reaction force directed towards the inside of the system when the flexible beam assembly (1) is bent into an arch and bears a suspended load, by connecting or restraining the support units (2) and / or the flexible beam assembly (1), to resist the horizontal thrust that drives the two support units (2) away from each other, thereby maintaining the stability of the system. The lateral restraint device (3) is a soft connecting belt (31) with both ends connected to the two support units (2) respectively.

2. The tongs system of claim 1, wherein, The lateral restraint device (3) is a soft connecting belt (31) with both ends connected to the flexible beam assembly (1) respectively.

3. The suspension candle holder system of claim 1, wherein, The lateral restraint device (3) comprises two independent limiting frames (34) connected by a soft connecting belt (31), and the two support units (2) are respectively accommodated inside the two independent limiting frames (34).

4. The suspension candle holder system of claim 1, wherein, The soft connecting belt (31) is provided with a length adjusting mechanism (311) for fine-tuning the system tension.

5. The tongs system of claim 2, 3 or 4, wherein, The lateral restraint device (3) comprises two independent counterweights or counterweight containers (32) respectively arranged outside the two support units (2).

6. The suspension candle holder system of claim 1, wherein, The lateral restraint device (3) comprises a U-shaped limiting frame (33), and the two support units (2) are respectively accommodated inside the two arms of the U-shaped limiting frame (33).

7. The suspension candle holder system of claim 1, wherein, The width of the U-shaped limiting frame (33) is adjustable.

8. The suspension candle holder system of claim 7, wherein, The soft connecting belt (31) is connected to the flexible beam assembly (1) through two positioning rings (35) slidably sleeved on the flexible beam assembly (1), and the positioning rings (35) are provided with locking mechanisms (351) for fixing the positioning rings (35) on the flexible beam assembly (1).

9. The hanging candle holder system according to claim 3, wherein: The flexible beam assembly (1) and the support units (2) are provided with quick connecting devices (4).

10. The suspension candle holder system of claim 1, wherein, The quick connecting device (4) comprises at least one of a magnetic attraction assembly, a buckle mechanism or a mechanical locking mechanism.

11. The suspension candle holder system of claim 10, wherein, The flexible beam in the flexible beam assembly (1) is composed of multiple detachable or foldable beam segments.

12. The suspension candle holder system of claim 1, wherein, Further comprising at least one slidably adjustable sliding block (5) arranged on the flexible beam assembly (1), and an incense stick holder (6) mounted on the sliding block (5).

13. The tongs system of any of claims 1-4 or 6-12, wherein, Further comprising at least one slidably adjustable sliding block (5) arranged on the flexible beam assembly (1), and an incense stick holder (6) mounted on the sliding block (5).

14. The suspension candle holder system of claim 5, wherein, The flexible beam assembly (1) comprises two parallel flexible beams; the sliding block (5) is arranged to be slidably threaded on the two parallel flexible beams; each flexible beam in the flexible beam assembly (1) is composed of multiple detachable beam segments; and the support unit (2) is a length-adjustable telescopic rod.

15. The suspension candle holder system of claim 1, wherein, ​

Images