Heat dissipation type heat-resistant composite lantern ring

Abstract

The utility model provides a heat dissipation type heat-resisting composite lantern ring which comprises an outer lantern ring and an inner core sleeve, the inner side of the outer lantern ring is provided with a set of middle lantern rings used for enhancing the strength of the outer lantern ring, and the inner side of each middle lantern ring is provided with a set of inner lantern rings used for supporting the inner side of the corresponding middle lantern ring. Threaded grooves of the same structure are formed in the inner side of the outer lantern ring and the inner side of the middle lantern ring correspondingly, and outer threads of the same structure are arranged on the outer side of the middle lantern ring and the outer side of the inner lantern ring correspondingly. The utility model has the following beneficial effects: the outer heat-resistant layer and the inner heat-resistant layer can provide a heat-resistant effect for the inner and outer sides of the outer lantern ring, the middle lantern ring and the inner lantern ring, and meanwhile, the outer heat-resistant layer and the inner heat-resistant layer provide the heat-resistant effect; the outer ceramic heat-resistant layer and the inner ceramic heat-resistant layer can respectively provide a higher heat-resistant effect for the outer heat-resistant layer and the inner heat-resistant layer, so that the outer lantern ring, the middle lantern ring and the inner lantern ring can be stably used in a high-temperature environment.

Description

Technical Field

[0001] This utility model belongs to the technical field of heat-resistant composite collars, and relates to a heat-dissipating heat-resistant composite collar. Background Technology

[0002] The main drawbacks of existing heat-resistant composite collars in terms of stable heat resistance lie in the mismatch of their thermal expansion coefficients, insufficient thermal stability, and decreased mechanical properties at high temperatures. Composite collars are typically composed of multiple materials such as ceramic fibers and resin matrices. The significant differences in thermal expansion coefficients among these materials can easily lead to internal stress at high temperatures, resulting in unstable material properties. Conventional solutions include selecting materials with similar thermal expansion coefficients for composite formation, optimizing the composite material ratio and structural design, and employing surface coating technology to improve heat resistance. However, these methods also have drawbacks. For example, selecting materials with similar thermal expansion coefficients may limit the range of material choices, leading to increased costs or compromises in performance. Therefore, a heat-resistant composite collar with heat dissipation capabilities is urgently needed to address these issues. Utility Model Content

[0003] In view of the shortcomings of the existing technology, the purpose of this utility model is to provide a heat-dissipating and heat-resistant composite collar to solve the problems mentioned in the background art.

[0004] This utility model is achieved through the following technical solution: a heat-dissipating and heat-resistant composite collar, comprising: an outer collar and an inner core collar, wherein the inner side of the outer collar is provided with a set of middle collars for enhancing the strength of the outer collar, and the inner side of the middle collar is provided with a set of inner collars for supporting the inner side of the middle collar, and the inner side of the outer collar and the inner side of the middle collar are respectively provided with threaded grooves of the same structure.

[0005] Both the outer side of the middle collar and the outer side of the inner collar are provided with external threads of the same structure. The outer collar includes an outer heat-resistant layer and an inner connecting thread groove. The inner side of the outer heat-resistant layer is provided with an outer ceramic heat-insulating layer for improving the external heat resistance effect. The inner side of the outer ceramic heat-insulating layer is provided with an inner heat-insulating lining for preventing the mixing of internal and external high temperatures. The inner side of the inner heat-insulating lining is provided with an inner ceramic heat-insulating layer for improving the internal heat resistance effect.

[0006] In a preferred embodiment, the inner ceramic heat-insulating layer and the outer ceramic heat-insulating layer have the same specifications, and the internal ceramic structure composition and thickness of the inner and outer ceramic heat-insulating layers are the same. The outer ceramic heat-insulating layer and the outer heat-resistant layer are bonded together. When the composite collar is used by the operator in a high-temperature environment, the outer heat-resistant layer and the inner heat-resistant layer can provide heat resistance to the inner and outer sides of the outer collar, the middle collar, and the inner collar. At the same time, while providing heat resistance, the outer ceramic heat-insulating layer and the inner ceramic heat-insulating layer can provide higher heat resistance to the outer heat-resistant layer and the inner heat-resistant layer, respectively, to ensure that the outer collar, the middle collar, and the inner collar can be used stably in a high-temperature environment.

[0007] In a preferred embodiment, the inner ceramic heat-insulating layer is bonded to the inner heat-resistant layer, and both the inner heat-resistant layer and the outer heat-resistant layer are made of a titanium alloy material. The inner side of the inner ring is provided with a set of inner expansion sleeves for mutual expansion and engagement with the inner side of the inner ring.

[0008] In a preferred embodiment, the inner retaining sleeve has several sets of tension bars evenly distributed for natural expansion, and the lower end of the inner retaining sleeve is provided with a set of inner core sleeves for fitting and limiting the bearing housing.

[0009] In a preferred embodiment, the inner core sleeve and the inner retaining sleeve are an integral structure. The outer side of the inner core sleeve is provided with a set of inner rolling grooves for limiting and fitting with the internal balls of the bearing housing. The inner core sleeve and the bearing housing are movably fitted and connected.

[0010] In a preferred embodiment, the lower end of the bearing housing is provided with a set of mounting bases for limiting its installation, and the front side of the outer ring is provided with a set of inner locking bolts for locking its interior. The inside of the outer ring is provided with a set of fixing holes for locking and limiting the outer ring. When the operator needs to separate the outer ring, middle ring and inner ring, the operator can remove the inner locking bolts from the fixing holes to release the outer ring from the locking state, thereby facilitating the operator to quickly remove, maintain and disassemble the outer ring, middle ring and inner ring.

[0011] In a preferred embodiment, the outer ring, middle ring, and inner ring have the same internal structure, and the inner diameters of the outer ring, middle ring, and inner ring in plan view decrease proportionally.

[0012] After adopting the above technical solution, the beneficial effects of this utility model are as follows: when the staff uses the composite collar in a high-temperature environment, its outer heat-resistant layer and inner heat-resistant layer can provide heat resistance to the outer collar, middle collar and inner collar on both sides. At the same time, while the outer heat-resistant layer and inner heat-resistant layer provide heat resistance, their outer ceramic heat-insulating layer and inner ceramic heat-insulating layer can provide higher heat resistance to the outer heat-resistant layer and inner heat-resistant layer respectively, so as to ensure that the outer collar, middle collar and inner collar can be used stably in a high-temperature environment.

[0013] When workers need to separate the outer ring, middle ring, and inner ring, they can remove the inner locking bolt from the fixing hole to release the outer ring from its locked state, thus facilitating the quick removal, maintenance, and disassembly of the outer ring, middle ring, and inner ring. Attached Figure Description

[0014] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0015] Figure 1 This is a top view of the front structure of a heat-dissipating and heat-resistant composite collar according to the present invention.

[0016] Figure 2 This is a top view of the internal structure of the inner retaining sleeve in a heat-dissipating and heat-resistant composite collar according to the present invention.

[0017] Figure 3 This is a bottom view of the bearing sleeve in a heat-dissipating and heat-resistant composite collar according to the present invention.

[0018] Figure 4 This is a top view of the internal structure of the outer ring in a heat-dissipating and heat-resistant composite collar of the present invention.

[0019] In the diagram: 100-outer ring, 110-middle ring, 120-inner ring, 130-inner retaining sleeve, 140-inner retaining cavity, 150-bearing housing, 160-mounting base, 170-inner locking bolt, 180-fixing hole, 190-inner core sleeve;

[0020] 10a - Outer heat-resistant layer, 10b - Outer ceramic heat-insulating layer, 10c - Inner thermal insulation lining, 10d - Inner ceramic heat-insulating layer, 10e - Inner heat-resistant layer, 10f - Inner connecting screw groove. Detailed Implementation

[0021] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0022] Please see Figures 1-4A heat-dissipating and heat-resistant composite collar includes: an outer collar 100 and an inner core collar 190. The inner side of the outer collar 100 is provided with a set of middle collars 110 for enhancing the strength of the outer collar 100. The inner side of the middle collar 110 is provided with a set of inner collars 120 for supporting the inner side of the middle collar 110. The inner sides of the outer collar 100 and the middle collar 110 are respectively provided with threaded grooves of the same structure.

[0023] The outer side of the middle collar 110 and the outer side of the inner collar 120 are respectively provided with external threads of the same structure. The outer collar 100 includes an outer heat-resistant layer 10a, an outer ceramic heat-insulating layer 10b and an inner connecting thread groove 10f. The inner side of the outer heat-resistant layer 10a is provided with a set of outer ceramic heat-insulating layers 10b for improving the external heat resistance effect. The inner side of the outer ceramic heat-insulating layer 10b is provided with a set of inner heat-insulating cotton lining 10c for preventing the mixing of internal and external high temperatures. The inner side of the inner heat-insulating cotton lining 10c is provided with a set of inner ceramic heat-insulating layers 10d for improving the internal heat resistance effect.

[0024] Please see Figures 1-4 As the first embodiment of this utility model: the inner ceramic heat-insulating layer 10d and the outer ceramic heat-insulating layer 10b have the same specifications, and the inner ceramic heat-insulating layer 10d and the outer ceramic heat-insulating layer 10b have the same internal ceramic structure composition and thickness. The outer ceramic heat-insulating layer 10b and the outer heat-resistant layer 10a are bonded together. When the staff uses the composite collar in a high-temperature environment, the outer heat-resistant layer 10a and the inner heat-resistant layer 10e can provide heat resistance to the inner and outer sides of the outer collar 100, the middle collar 110 and the inner collar 120. At the same time, while the outer heat-resistant layer 10a and the inner heat-resistant layer 10e provide heat resistance, the outer ceramic heat-insulating layer 10b and the inner ceramic heat-insulating layer 10d can provide higher heat resistance to the outer heat-resistant layer 10a and the inner heat-resistant layer 10e respectively, so as to ensure that the outer collar 100, the middle collar 110 and the inner collar 120 can be used stably in a high-temperature environment.

[0025] The inner ceramic heat-insulating layer 10d is bonded to the inner heat-resistant layer 10e. Both the inner heat-resistant layer 10e and the outer heat-resistant layer 10a are made of a titanium alloy material. The inner sleeve 120 has a set of inner expansion sleeves 130 for expanding and engaging with the inner side of the inner sleeve 120.

[0026] The inner expansion sleeve 130 has several sets of tension bars evenly distributed for natural expansion, and the lower end of the inner expansion sleeve 130 is provided with an inner core sleeve 190 for fitting and limiting the bearing housing 150.

[0027] The inner core sleeve 190 and the inner retaining sleeve 130 are an integral structure. The outer side of the inner core sleeve 190 is provided with a set of inner rolling grooves for limiting and fitting with the internal balls of the bearing housing 150. The inner core sleeve 190 and the bearing housing 150 are movably fitted and connected.

[0028] Please see Figures 1-4As a second embodiment of this utility model: Based on the description in the above embodiments, further, the lower end of the bearing housing 150 is provided with a set of mounting bases 160 for limiting its installation, the front side of the outer ring 100 is provided with a set of inner locking bolts 170 for locking its interior, and the interior of the outer ring 100 is provided with a set of fixing holes 180 for locking and limiting the outer ring 100. When the operator needs to separate the outer ring 100, the middle ring 110 and the inner ring 120, the operator can take out the inner locking bolts 170 from the fixing holes 180, thereby releasing the outer ring 100 from the locking state, which facilitates the operator to quickly remove, maintain and disassemble the outer ring 100, the middle ring 110 and the inner ring 120.

[0029] The outer ring 100, the middle ring 110 and the inner ring 120 have the same internal structure, and the inner diameter of the outer ring 100, the middle ring 110 and the inner ring 120 decreases proportionally in the top view cross section.

[0030] The above description is only a preferred embodiment of the present utility model and is not intended to limit the present utility model. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present utility model should be included within the protection scope of the present utility model.

Claims

1. A heat-dissipating, heat-resistant composite collar, comprising: The outer ring (100) and the inner core sleeve (190) are characterized in that: the inner side of the outer ring (100) is provided with a set of middle rings (110) for enhancing the strength of the outer ring (100), the inner side of the middle ring (110) is provided with a set of inner rings (120) for supporting the inner side of the middle ring (110), and the inner side of the outer ring (100) and the inner side of the middle ring (110) are respectively provided with threaded grooves of the same structure; The outer side of the middle collar (110) and the outer side of the inner collar (120) are respectively provided with external threads of the same structure. The outer collar (100) includes an outer heat-resistant layer (10a), an outer ceramic heat-insulating layer (10b) and an inner connecting thread groove (10f). The inner side of the outer heat-resistant layer (10a) is provided with a set of outer ceramic heat-insulating layers (10b) for improving the external heat resistance effect. The inner side of the outer ceramic heat-insulating layer (10b) is provided with a set of inner heat-insulating cotton (10c) for preventing the mixing of internal and external high temperatures. The inner side of the inner heat-insulating cotton (10c) is provided with a set of inner ceramic heat-insulating layers (10d) for improving the internal heat resistance effect.

2. The heat-dissipating and heat-resistant composite collar according to claim 1, characterized in that: The inner ceramic heat-insulating layer (10d) and the outer ceramic heat-insulating layer (10b) have the same specifications, and the inner ceramic heat-insulating layer (10d) and the outer ceramic heat-insulating layer (10b) have the same internal ceramic structure composition and thickness. The outer ceramic heat-insulating layer (10b) and the outer heat-resistant layer (10a) are bonded together.

3. The heat-dissipating and heat-resistant composite collar according to claim 2, characterized in that: The inner ceramic heat-insulating layer (10d) is bonded to the inner heat-resistant layer (10e). Both the inner heat-resistant layer (10e) and the outer heat-resistant layer (10a) are made of a titanium alloy material. The inner sleeve (120) is provided with a set of inner expansion sleeves (130) for expanding and engaging with the inner side of the inner sleeve (120).

4. The heat-dissipating and heat-resistant composite collar according to claim 3, characterized in that: The inner expansion sleeve (130) has several sets of expansion bars evenly distributed for natural expansion, and the lower end of the inner expansion sleeve (130) is provided with a set of inner core sleeves (190) for fitting and limiting the bearing housing (150) inside.

5. The heat-dissipating and heat-resistant composite collar according to claim 4, characterized in that: The inner core sleeve (190) and the inner retaining sleeve (130) are an integral structure. The outer side of the inner core sleeve (190) is provided with a set of inner rolling grooves for limiting and fitting with the inner balls of the bearing housing (150). The inner core sleeve (190) and the bearing housing (150) are movably fitted and connected.

6. The heat-dissipating and heat-resistant composite collar according to claim 5, characterized in that: The lower end of the bearing housing (150) is provided with a set of mounting bases (160) for installation and positioning. The front side of the outer ring (100) is provided with a set of inner locking bolts (170) for locking the inside. The inside of the outer ring (100) is provided with a set of fixing holes (180) for locking and positioning the outer ring (100).

7. The heat-dissipating and heat-resistant composite collar according to claim 6, characterized in that: The outer ring (100), middle ring (110) and inner ring (120) have the same internal structure, and the inner diameter of the top cross-section of the outer ring (100), middle ring (110) and inner ring (120) decreases proportionally.

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