Eaves Trough Installation Structure

Abstract

The present invention relates to an eaves gutter installation structure that can be stably fixed without steel brackets by being directly installed to a roof panel via a direct bolt, comprising: a stainless steel eaves gutter, one side of which is installed to the roof panel by a direct bolt; and a clamp, one side of which is installed to the roof panel by a direct bolt and the other side of which is installed on the upper side of the stainless steel eaves gutter by a direct bolt to support the stainless steel eaves gutter.

Description

Technology Field

[0001] The present invention relates to an eaves gutter installation structure, and more specifically, to an eaves gutter installation structure that can be stably fixed without steel brackets by being directly installed to a roof panel via direct bolts. Background Technology

[0003] Conventional eaves gutter installation structures typically relied on steel brackets for fixation. This method required additional time for installation and posed a risk of corrosion due to the steel being exposed to the external environment. Corrosion issues not only degraded the aesthetics of the structure but also increased maintenance costs. Furthermore, the use of steel brackets resulted in reduced installation efficiency, and long-term structural stability could not be guaranteed. Consequently, there was a need to develop an eaves gutter installation structure that could address these issues and enhance both installation efficiency and durability.

[0004] Meanwhile, the aforementioned background technology is technical information that the inventor possessed for the derivation of the present invention or acquired during the process of deriving the present invention, and it cannot necessarily be considered publicly known technology disclosed to the general public prior to the filing of the present invention. Prior art literature

[0006] Korean Registered Patent No. 10-1517069 (Published May 4, 2015) The problem to be solved

[0007] One aspect of the present invention provides an eaves gutter installation structure that improves installation efficiency and enhances durability and structural stability by directly installing a stainless steel eaves gutter and a clamp to a roof panel using direct bolts, thereby stably fixing the eaves gutter without the need for steel brackets.

[0008] The technical problems of the present invention are not limited to those mentioned above, and other unmentioned technical problems will be clearly understood by those skilled in the art from the description below. means of solving the problem

[0010] An eaves gutter installation structure according to one embodiment of the present invention is an eaves gutter installation structure implemented so that the eaves gutter can be installed directly on a roof panel without the construction of steel brackets that were conventionally required for the installation of an eaves gutter, comprising: a stainless steel eaves gutter, one side of which is installed on a roof panel by a direct bolt; and a clamp, one side of which is installed on a roof panel by a direct bolt and the other side of which is installed on the upper side of the stainless steel eaves gutter by a direct bolt to support the stainless steel eaves gutter.

[0011] In one embodiment, the eaves gutter installation structure according to another embodiment of the present invention may further include a foreign matter cleaning unit installed on the inner side of the stainless steel eaves gutter and cleaning foreign matter accumulated on the inner side of the stainless steel eaves gutter while moving along the inner side of the stainless steel eaves gutter.

[0012] In one embodiment, the foreign matter cleaning unit may include: a pair of horizontal moving rails extending along one side and the other side inward surface of the stainless steel eaves gutter; a horizontal moving slider connected and installed to enable sliding movement on the pair of horizontal moving rails, which moves horizontally along the inner side of the stainless steel eaves gutter upon a request from a user or at a preset cycle; a vertical support installed upright on the lower side of the middle of the horizontal moving slider; a mounting ring formed in a circular ring shape and installed on the lower side of the vertical support so as to be open in the left and right directions, which is the width direction of the stainless steel eaves gutter; and a rotary cleaning module connected and installed to enable rotational driving on the mounting ring, which moves together with the horizontal moving slider as it moves and rotates itself to clean foreign matter accumulated on the inner side of the stainless steel eaves gutter by pushing it to each end of the stainless steel eaves gutter.

[0013] In one embodiment, the rotary cleaning module may include: a connecting module connected and installed to be engaged with the mounting ring so as to enable rotary driving; a first cleaning module connected and installed on one side of the connecting module and cleaning foreign matter accumulated on one side of the interior of the stainless steel eaves gutter as the connecting module rotates; and a second cleaning module connected and installed on the other side of the connecting module and cleaning foreign matter accumulated on the other side of the interior of the stainless steel eaves gutter as the connecting module rotates.

[0014] In one embodiment, the connecting module may include: a connecting block formed in a cylindrical shape and rotatably connected and installed on the inner side of the mounting ring, wherein the first cleaning module and the second cleaning module are respectively installed on one side and the other side exposed from the mounting ring, and which rotates the first cleaning module and the second cleaning module together as it rotates; a block support wheel, wherein a plurality of connecting wheels are rotatably connected and installed along the circumference of the connecting block facing the inner surface of the mounting ring, are seated on the inner surface of the mounting ring, and support the connecting block so as to rotate it inside the mounting ring; and a block drive wheel, wherein the connecting block is rotatably connected and installed along the circumference of the connecting block facing the inner surface of the mounting ring, is seated on the inner surface of the mounting ring, and rotates the connecting block by moving along the inner surface of the mounting ring by rotating in a forward or reverse direction.

[0015] In one embodiment, the first cleaning module comprises: a module body disposed on one side of the connecting block; a block seating groove formed at the rear end of the module body so that one side of the connecting block, which is in the shape of a square column exposed to one side of the mounting ring, is inserted to allow the module body to be seated in close contact with one side of the mounting ring; a block support spring installed inside the block seating groove to pull the connecting block seated in the block seating groove; a plurality of dome-shaped protrusions formed at regular intervals along the edge of the contact surface of the module body seated in close contact with the mounting ring; a plurality of dome seating grooves formed along one side of the mounting ring so that each of the plurality of dome-shaped protrusions can be seated therein, and which induce vibration in the left and right horizontal directions of the module body as the dome-shaped protrusions are repeatedly inserted and separated as the module body rotates; a front mounting groove formed at the front end of the module body opposite the block seating groove; and an mounting groove cover that covers and is seated over the front mounting groove. A plurality of cover support springs are installed at regular intervals along the front edge of the module body and the installation groove cover to press the installation groove cover against the front edge of the module body; a rotary drive motor installed inside the front edge installation groove; a first rotary block installed by axial coupling to the drive shaft of the rotary drive motor while facing the installation groove cover, having a first gear tooth formed on the front edge that is arranged radially and has rounded ends and grooves; a second rotary block installed at the rear edge of the installation groove cover opposite to the first rotary block, having a second gear tooth formed on the end that is arranged radially and has rounded ends and grooves so as to mesh with the first gear tooth, and causing the installation groove cover to vibrate in a horizontal direction as the first gear tooth and the second gear tooth mesh and separate as the first rotary block is driven to rotate.It may include: a block support bar installed at the center of the front end of the first rotating block and positioned in a bar seating groove formed at the center of the rear end of the second rotating block to support the first rotating block so as to be aligned in a straight line with the second rotating block during rotation; and a cleaning brush installed along the perimeter of the module body and the perimeter and front end of the installation groove cover to perform cleaning.

[0016] In one embodiment, the installation groove cover comprises: a cover body on which the cleaning brush is installed along the perimeter and front edge, supported by the cover support spring, and which covers and settles the front edge installation groove; a ring seating groove formed by a circular ring shape recessed from the front edge of the cover body; a groove cover formed in a conical shape, made of a thin film of an elastic material capable of expansion or contraction and installed to cover the entrance of the ring seating groove, wherein the inner surface installed along the front edge of the cover body, which is the inner surface on the entrance side of the ring seating groove, is positioned further forward than the outer surface installed along the edge of the cover body, which is the outer surface on the entrance side of the ring seating groove; a cover brush installed along the outward surface of the groove cover to perform cleaning; and a driving ring formed in a circular ring shape, positioned to allow horizontal movement within the ring seating groove, and having screw threads formed along its inner surface. It may include a ring drive gear that is connected and installed by engaging with the threads on the inner surface of the drive ring through screw coupling while forming threads along the circumference, and rotates and drives the drive ring by a ring drive motor to move the drive ring forward, thereby lifting the groove cover in correspondence with the shear shape of the drive ring to vary the arrangement shape of the cover sole. Effects of the invention

[0018] According to one aspect of the present invention described above, the structure is designed so that steel brackets are removed and a stainless steel eaves gutter and a catch can be directly fixed to the roof panel using direct bolts, thereby simplifying installation work and saving construction time and labor. This increases overall construction efficiency and improves the convenience of on-site work. Furthermore, the eaves gutter, made of stainless steel, possesses strong resistance to external environments and offers excellent resistance to corrosion, preventing corrosion even during long-term use. Therefore, maintenance is easy, and continuous performance is maintained to ensure a stable installation state for a long period. The stainless steel eaves gutter, installed using direct bolts without steel brackets, provides a clean appearance and harmonizes with the roof structure to enhance the aesthetic value of the entire facility. In addition, by being directly fixed to the roof, it maintains a stable structure without shaking even under external impacts or strong winds, ensuring long-term stability of use. The stainless steel eaves gutter, firmly fixed to the roof panel with direct bolts, does not require additional reinforcement work, making maintenance easy, and provides economic benefits by reducing maintenance costs due to its durable material.

[0019] The effects of the present invention are not limited to those mentioned above, and various effects may be included within the scope obvious to a person skilled in the art from the contents described below. Brief explanation of the drawing

[0021] FIG. 1 is a drawing showing the schematic configuration of an eaves gutter installation structure according to one embodiment. FIG. 2 is a drawing showing an eaves gutter installation structure according to another embodiment of the present invention. Figure 3 is a drawing showing the connection module of Figure 2. Figure 4 is a drawing showing the first cleaning module of Figure 2. Figure 5 is a drawing showing the installation groove cover of Figure 4. Specific details for implementing the invention

[0022] The following detailed description of the invention refers to the accompanying drawings, which illustrate specific embodiments in which the invention may be practiced. These embodiments are described in sufficient detail to enable those skilled in the art to practice the invention. It should be understood that various embodiments of the invention are different but need not be mutually exclusive. For example, specific shapes, structures, and characteristics described herein may be implemented in other embodiments without departing from the spirit and scope of the invention in relation to one embodiment. It should also be understood that the location or arrangement of individual components within each disclosed embodiment may be changed without departing from the spirit and scope of the invention. Accordingly, the following detailed description is not intended to be limiting, and the scope of the invention is limited only by the appended claims, including all equivalents to those claimed therein, provided appropriately described. Similar reference numerals in the drawings refer to the same or similar functions across various aspects.

[0023] Hereinafter, preferred embodiments of the present invention will be described in more detail with reference to the drawings.

[0024] FIG. 1 is a drawing showing the schematic configuration of an eaves gutter installation structure according to one embodiment.

[0025] Referring to FIG. 1, an eaves gutter installation structure (10) according to one embodiment of the present invention includes a stainless steel eaves gutter (100) and a clamp (200).

[0026] A support structure is provided that allows a stainless steel eaves gutter (100) and a clamp (200) to be directly installed via a direct bolt as a main component of the roof panel (1) and the roof, thereby enabling the eaves gutter to be stably fixed without the steel brackets that were previously required. This improves installation efficiency and increases structural stability.

[0027] The stainless steel eaves gutter (100) is installed on the roof panel (1) by direct bolts and serves to effectively receive water from the outside. This eaves gutter is made of durable stainless steel and is securely fixed to the roof panel (1) via direct bolts, thereby reducing maintenance costs.

[0028] One end of the clamp (200) is installed on the roof panel (1) by a direct bolt (B1), and the other end is fixed to the upper side of the stainless steel eaves gutter (100) by a direct bolt (B1). This stably supports the stainless steel eaves gutter (100), thereby minimizing shaking of the eaves gutter even in external environments such as wind and ensuring long-term stability.

[0029] An eaves gutter installation structure (10) according to one embodiment having the configuration described above comprises a stainless steel eaves gutter (100) installed in place of a steel bracket and a clamp (200) supporting it, and is fixed to a roof panel (1) using a direct bolt (B1). Through this, various effects such as the following can be provided.

[0030] 1. Increased installation efficiency due to the removal of steel brackets

[0031] In this embodiment, by adopting a structure in which a stainless steel eaves gutter (100) and a clamp (200) can be directly fixed to a roof panel (1) using a direct bolt, the steel brackets required in the conventional method are completely eliminated, and the gutter can be installed easily. As a result, additional work and construction time that may occur when installing steel brackets can be reduced, and the convenience of construction and installation efficiency are greatly improved.

[0032] 2. Corrosion resistance and enhanced durability

[0033] The stainless steel eaves gutter (100) according to the present embodiment is made of a durable stainless steel material, so it is less affected by the external environment and has excellent resistance to corrosion. Therefore, unlike steel brackets, corrosion does not occur even with long-term use, making maintenance and repair of the facility easy, and thanks to the durability unique to stainless steel, it can provide stable performance for a longer period of time.

[0034] 3. Clean aesthetics and structural stability

[0035] The stainless steel eaves gutter (100), which is fixed with direct bolts without steel brackets, is also excellent in terms of aesthetics. The clean appearance of the stainless steel material naturally harmonizes with the roof structure, enhancing the aesthetic value of the entire facility, and since it is directly fixed to the roof, it maintains structural stability without shaking even with external impacts or strong winds. This minimizes shaking of the eaves gutter in the external environment.

[0036] 4. Ease of maintenance and cost reduction

[0037] The stainless steel eaves gutter (100) is securely fixed to the roof panel (1) with direct bolts, making maintenance for long-term use easier. Thanks to the structural stability of the gutter, no additional reinforcement work is required after installation, and periodic maintenance costs are also reduced due to the durability of the stainless steel material.

[0039] FIG. 2 is a drawing showing an eaves gutter installation structure according to another embodiment of the present invention.

[0040] Referring to FIG. 2, an eaves gutter installation structure (20) according to another embodiment of the present invention includes a stainless steel eaves gutter (100), a clamp (200), and a foreign matter cleaning unit (300).

[0041] Here, the stainless steel eaves gutter (100) and the clamp (200) are identical to the components of FIG. 1, so the description is omitted to avoid duplication of explanation.

[0042] The foreign matter cleaner (300) is installed on the inner side of the stainless steel eaves gutter (100) and moves along the interior of the stainless steel eaves gutter (100) to effectively clean foreign matter accumulated in the stainless steel eaves gutter (100). This prevents the problem of reduced drainage function caused by the accumulation of foreign matter in the stainless steel eaves gutter (100) and maintains the long-term performance of the gutter. The foreign matter cleaner (300) can be moved by a user or operated automatically, making maintenance easy and efficient.

[0043] In one embodiment, the foreign matter cleaning unit (300) may include a horizontal moving rail (310-1, 310-2), a horizontal moving slider (320), a vertical support (330), a mounting ring (340), and a rotating cleaning module (350).

[0044] The horizontal moving rails (310-1, 310-2) are a pair of rails formed extending along one side and the other side of the stainless steel eaves gutter (100), supporting the foreign matter cleaner (300) to move smoothly along the inside of the gutter and providing a stable movement path. This improves cleaning efficiency and helps to remove foreign matter evenly.

[0045] The horizontal moving slider (320) is installed to be slidably connected to a pair of horizontal moving rails (310-1, 310-2) and moves horizontally along the inside of the stainless steel eaves gutter (100) according to a user request or a preset cycle (e.g., every other day). This automates the cleaning process and increases the convenience of maintenance.

[0046] To this end, the horizontal moving slider (320) may be equipped with various driving devices for movement, such as wheels and motors.

[0047] The vertical support (330) is installed upright on the lower side of the horizontal moving slider (320) to support the cleaning module on the lower side and provide structural stability. This minimizes vibration during cleaning and enables stable cleaning operation.

[0048] The mounting ring (340) is in the shape of a circular ring and is installed on the lower side of the vertical support (330) to be open in the left and right directions, which is the width direction of the stainless steel eaves gutter (100), to support the rotating cleaning module (350). The rotating cleaning module (350) is rotatably connected to the mounting ring to perform a stable support role during cleaning.

[0049] The rotating cleaning module (350) is installed to be rotatably engaged with the mounting ring (340) and rotates on its own in conjunction with the movement of the horizontal moving slider (320) to clean foreign matter accumulated inside the stainless steel eaves gutter (100) by pushing it to each end. This prevents foreign matter from accumulating inside the eaves gutter, thereby maintaining drainage performance and contributing to long-term functionality.

[0050] The foreign matter cleaning unit (300) described above can effectively remove foreign matter inside the eaves gutter through the automated movement and rotation of the foreign matter cleaning unit (300), thereby greatly improving cleaning and maintenance convenience.

[0051] In one embodiment, the rotary cleaning module (350) may additionally include a connecting module (351), a first cleaning module (400), and a second cleaning module (500).

[0052] The connecting module (351) is rotatably engaged with the mounting ring (340) and serves as the center of the rotating cleaning module (350). This module is coupled to the mounting ring and is capable of rotational driving, and while rotating, it drives the first cleaning module (400) and the second cleaning module (500) simultaneously to efficiently clean foreign matter inside the water tray.

[0053] The first cleaning module (400) is connected to one side of the connecting module (351) and rotates together with the connecting module when the module rotates, thereby cleaning foreign matter accumulated on one side of the interior of the stainless steel eaves gutter (100). This supports the removal of contaminants accumulated on one side of the eaves gutter, thereby maintaining the cleanliness of the gutter.

[0054] The second cleaning module (500) is connected to the other side of the connecting module (351) and rotates together with the connecting module when the module rotates, thereby cleaning foreign matter accumulated on the other side of the inside of the stainless steel eaves gutter (100). Through mutual complementary action with the first cleaning module, foreign matter inside the gutter can be removed from both directions, thereby further improving the drainage performance of the eaves gutter.

[0055] A rotary cleaning module (350) having the configuration described above can automatically clean foreign matter accumulated on both sides of the eaves gutter through the cooperation of a connecting module (351), a first cleaning module (400), and a second cleaning module (500), thereby greatly improving drainage efficiency and maintenance convenience.

[0056] An eaves gutter installation structure (20) according to another embodiment having the configuration described above can automatically or manually clean foreign matter accumulated inside the eaves gutter, thereby maintaining the drainage efficiency of the gutter and greatly improving the convenience of maintenance work.

[0058] Figure 3 is a drawing showing the connection module of Figure 2.

[0059] Referring to FIG. 3, the connection module (351) includes a connection block (3511), a block support wheel (3512), and a block drive wheel (3513).

[0060] The connecting block (3511) is formed in a cylindrical shape and is rotatably engaged and connected to the inner side of the mounting ring (340). A first cleaning module (400) and a second cleaning module (500) are installed on one side and the other side, respectively, exposed from the mounting ring (340). As the connecting block (3511) rotates, it rotates the two cleaning modules together, allowing foreign matter inside the eaves gutter to be cleaned in both directions. This enables uniform cleaning, thereby effectively maintaining the cleanliness of the gutter.

[0061] A plurality of block support wheels (3512) are rotatably installed along the circumference of a connecting block (3511) facing the inner surface of a mounting ring (340), and are stably seated on the inner surface of the mounting ring (340). The block support wheels (3512) support the smooth rotation of the connecting block (3511) and provide stable operation. This allows the connecting block to rotate smoothly, thereby assisting in the efficient operation of the cleaning module.

[0062] The block drive wheel (3513) is rotatably connected to the circumference of the connecting block (3511) facing the inner surface of the mounting ring (340), and rotates in the forward or reverse direction while seated on the inner surface of the mounting ring (340). The block drive wheel (3513) rotates the connecting block (3511) while moving it along the inner surface of the mounting ring, thereby enabling the cleaning module to effectively push out foreign matter inside the water tray and perform cleaning operations. This allows contaminants accumulated in each section of the water tray to be removed evenly.

[0063] A connection module (351) having the configuration described above can stably rotate a cleaning module by means of a connection block (3511), a block support wheel (3512), and a block drive wheel (3513) within the connection module (351) interacting to effectively remove foreign matter inside the water tray, thereby maximizing cleaning efficiency and greatly improving maintenance convenience.

[0065] Figure 4 is a drawing showing the first cleaning module of Figure 2.

[0066] Referring to FIG. 4, the first cleaning module (400) includes a module body (401), a block mounting groove (402), a block support spring (403), a dome-shaped projection (404), a dome mounting groove (405), a front mounting groove (406), a mounting groove cover (407), a cover support spring (408), a rotary drive motor (409), a first rotary block (410), a second rotary block (411), a block support bar (412), and a cleaning brush (413).

[0067] Here, since the second cleaning module (500) is identical to the first cleaning module (400) described below, the module body (401), block seating groove (402), block support spring (403), dome-shaped projection (404), dome seating groove (405), front installation groove (406), installation groove cover (407), cover support spring (408), rotation drive motor (409), first rotation block (410), second rotation block (411), block support bar (412), cleaning brush (413), etc. of the first cleaning module (400) can be applied in the same way, so the description is omitted to avoid duplication of explanation.

[0068] The module body (401) is a key component of the present invention positioned on one side of the connecting block (3511) and performs a cleaning function to remove foreign matter inside the eaves gutter. The module body (401) is firmly coupled to the connecting block to provide stable support during the cleaning operation.

[0069] The block seating groove (402) is formed at the rear end of the module body (401) and serves to allow the connecting block (3511) to be stably inserted. Through this, the module body is firmly fixed by being in close contact with the mounting ring (340).

[0070] The block support spring (403) is installed inside the block seating groove (402) to firmly secure the connecting block (3511) to the block seating groove, thereby increasing stability. The block support spring prevents shaking of the module body during cleaning operations, thereby ensuring stability.

[0071] The dome-shaped protrusions (404) are arranged at regular intervals along the edge of the contact surface of the module body (401) and are designed with a dome-shaped structure. These protrusions induce vibration when the cleaning module rotates, thereby increasing cleaning efficiency.

[0072] Multiple dome mounting grooves (405) are formed along one side of the mounting ring (340) and are configured so that each dome-shaped projection (404) can be accurately mounted. By engaging with the dome-shaped projections, vibration is induced when the module body rotates, thereby increasing the cleaning effect.

[0073] The front mounting groove (406) is formed at the front of the module body (401) and provides a structure in which the mounting groove cover (407) can be fixed. Through this, the components of the front portion are stably mounted.

[0074] The installation groove cover (407) covers the front installation groove (406) to protect the front portion of the module body and helps to operate seamlessly through the cover during cleaning. This cover also serves to transmit vibrations caused by the rotation of the internal rotating block.

[0075] The cover support spring (408) has the function of fixing the installation groove cover (407) by pressing it against the front end of the module body (401). This ensures that the cover remains stable during cleaning and increases the vibration effect during rotation.

[0076] The rotary drive motor (409) is installed within the shear installation groove (406) and serves to rotate the first rotary block (410) through the drive shaft. The cleaning module operates through the drive of this motor to effectively remove foreign matter from inside the eaves gutter.

[0077] The first rotating block (410) is installed at the front center of the module body and is axially coupled with the drive shaft of the rotary drive motor (409). The first rotating block has radial gear teeth formed thereon and, when rotated, engages with the second rotating block (411) to perform a cleaning function.

[0078] The second rotating block (411) is installed in a position opposite to the first rotating block (410) and rotates in engagement with the first rotating block to induce vibration of the cleaning module. By engaging with the first rotating block, it generates horizontal vibration, contributing to the removal of foreign matter.

[0079] The block support bar (412) connects the front center of the first rotating block (410) and the rear center of the second rotating block (411) in a straight line, serving to support the two rotating blocks so that they are stably maintained in a straight line during rotation.

[0080] The cleaning brush (413) is installed along the perimeter and front of the module body (401) and the installation groove cover (407), and during cleaning, it pushes foreign matter inside the water tray to both ends of the water tray by rotation and vibration, keeping it clean.

[0081] The first cleaning module (400) having the configuration described above can maximize the cleaning effect and improve the ease of maintenance by efficiently removing foreign matter inside the eaves gutter by utilizing the rigid coupling structure of the module body (401), the dome-shaped protrusion (404), and the vibration and rotational force induced by the rotary drive motor (409).

[0083] Figure 5 is a drawing showing the installation groove cover of Figure 4.

[0084] Referring to FIG. 5, the installation groove cover (407) includes a cover body (4071), a ring seating groove (4072), a groove cover (4073), a cover sole (4074), a driving ring (4075), and a ring driving gear (4076).

[0085] The cover body (4071) is the main body of the installation groove cover, and a cleaning brush (413) is installed around the perimeter and at the front end to perform a cleaning function. The cover body is seated over the front end installation groove (406) by the cover support spring (408), providing stable support during cleaning.

[0086] The ring seating groove (4072) is a groove formed by recessing in a circular ring shape from the front edge of the cover body (4071), and other components are placed in this groove. The ring seating groove provides a stable connection structure between the exterior and interior of the installation groove cover.

[0087] The home cover (4073) is made of a flexible thin film material and serves to cover and protect the entrance of the ring seating groove (4072). The home cover, which is shaped like a cone, has its outer surface positioned further forward than the inner surface on the entrance side of the ring seating groove, thereby preventing foreign matter from entering.

[0088] The cover brush (4074) is installed along the outer surface of the groove cover (4073) to remove contaminants covering the surface of the groove cover during cleaning. The cover brush performs cleaning operations when rotating and moving, contributing to maintaining the cleanliness of the eaves gutter.

[0089] The driving ring (4075) is placed in the ring seating groove (4072) and has screw threads formed on its inner surface. The driving ring can move horizontally within the ring seating groove and can adjust its position during cleaning.

[0090] The ring drive gear (4076) is installed by engaging with the drive ring (4075) via a screw connection and rotates by the ring drive motor to move the drive ring forward. The ring drive gear raises or lowers the groove cover (4073) in correspondence with the shear shape of the drive ring and optimizes cleaning performance by varying the arrangement shape of the cover brush (4074).

[0091] The installation groove cover (407) having the configuration described above provides the effect of maintaining the cleanliness of the eaves gutter and maximizing drainage performance by having various components of the installation groove cover (407) cooperate to perform a cleaning function.

[0093] The embodiments described above are for illustrative purposes only, and those skilled in the art will understand that the embodiments described above can be easily modified into other specific forms without altering the technical concept or essential features of the embodiments described above. Therefore, the embodiments described above should be understood as illustrative in all respects and not restrictive. For example, each component described as a single unit may be implemented in a distributed manner, and components described as distributed may likewise be implemented in a combined form.

[0095] The scope of protection sought through this specification is defined by the claims set forth below rather than by the detailed description above, and should be interpreted to include all modifications or variations derived from the meaning and scope of the claims and the concept of equivalents. Explanation of the symbols

[0097] 10, 20: Eaves gutter installation structure 100: Stainless steel eaves gutter 200: Claw 300: Foreign object cleaner

Claims

Claim 1 In an eaves gutter installation structure that enables the eaves gutter to be installed directly on a roof panel without the need for steel brackets, which were conventionally required for the installation of eaves gutters, a stainless steel eaves gutter, one side of which is installed on the roof panel by a direct bolt; and a clamp that supports the stainless steel eaves gutter, with one side installed on the roof panel by a direct bolt and the other side installed on the upper side of the stainless steel eaves gutter by a direct bolt; and further includes a foreign matter cleaning unit installed on the inner side of the stainless steel eaves gutter and cleaning foreign matter accumulated on the inner side of the stainless steel eaves gutter while moving along the inner side of the stainless steel eaves gutter; wherein the foreign matter cleaning unit comprises: a pair of horizontal moving rails extending along the inner surfaces of one side and the other side of the stainless steel eaves gutter; a horizontal moving slider connected and installed to enable sliding movement on the pair of horizontal moving rails, which moves horizontally along the inner side of the stainless steel eaves gutter upon a request from a user or at a preset cycle; a vertical support installed upright on the lower side of the middle of the horizontal moving slider; and a bracket formed in a circular ring shape and installed on the lower side of the vertical support so as to be open in the left-right direction, which is the width direction of the stainless steel eaves gutter. It includes a mounting ring; and a rotary cleaning module that is connected and installed in an interlocking manner to enable rotary driving with the mounting ring, and moves together with the horizontal moving slider as it moves, while also rotating itself to clean foreign matter accumulated on the inner side of the stainless steel eaves gutter by pushing it to each end of the stainless steel eaves gutter; wherein the rotary cleaning module comprises: a connecting module connected and installed in an interlocking manner to enable rotary driving with the mounting ring; and a first cleaning module connected and installed on one side of the connecting module, which rotates together with the connecting module as it rotates to clean foreign matter accumulated on one side of the inner side of the stainless steel eaves gutter.and a second cleaning module connected to the other side of the connecting module, which rotates together with the connecting module as it rotates to clean foreign matter accumulated on the other side of the stainless steel eaves gutter; wherein the connecting module is formed in a cylindrical shape and connected to be rotatably engaged with the inner side of the mounting ring, and the first cleaning module and the second cleaning module are respectively installed on one side and the other side exposed from the mounting ring, and the connecting block that rotates the first cleaning module and the second cleaning module together as it rotates; and a block support wheel that is connected to be rotatably in a plurality along the circumference of the connecting block facing the inner surface of the mounting ring, which is seated on the inner surface of the mounting ring, and supports the connecting block so that it can rotate inside the mounting ring. An eaves gutter installation structure comprising: a block drive wheel that is connected and installed to enable rotational driving around the circumference of the connecting block facing the inner surface of the mounting ring, is seated on the inner surface of the mounting ring, and rotates the connecting block by moving along the inner surface of the mounting ring by rotating in a forward or reverse direction. Claim 2 delete Claim 3 delete Claim 4 delete Claim 5 delete Claim 6 In claim 1, the first cleaning module comprises: a module body disposed on one side of the connecting block; a block seating groove formed at the rear end of the module body so that one side of the connecting block, which is in the shape of a square column exposed to one side of the mounting ring, is inserted to allow the module body to be seated in close contact with one side of the mounting ring; a block support spring installed inside the block seating groove to pull the connecting block seated in the block seating groove; a plurality of dome-shaped protrusions formed at regular intervals along the edge of the contact surface of the module body seated in close contact with the mounting ring; a plurality of dome seating grooves formed along one side of the mounting ring so that each of the plurality of dome-shaped protrusions can be seated therein, and which induce vibration in the left and right horizontal directions of the module body as the dome-shaped protrusions are repeatedly inserted and separated as the module body rotates; a front mounting groove formed at the front end of the module body opposite the block seating groove; and an mounting groove cover that covers and is seated over the front mounting groove. A plurality of cover support springs are installed at regular intervals along the front edge of the module body and the installation groove cover to press the installation groove cover against the front edge of the module body; a rotary drive motor installed on the inner side of the front edge installation groove; a first rotary block installed by axial coupling to the drive shaft of the rotary drive motor while facing the installation groove cover, having a first gear tooth formed on the front edge that is arranged radially and has rounded ends and grooves; a second rotary block installed on the rear edge of the installation groove cover opposite to the first rotary block, having a second gear tooth formed on the end that is arranged radially and has rounded ends and grooves so as to mesh with the first gear tooth, and causing the installation groove cover to vibrate in a horizontal direction as the first gear tooth and the second gear tooth mesh and separate as the first rotary block is driven to rotate.An eaves gutter installation structure comprising: a block support bar installed at the front center of the first rotating block and positioned in a bar seating groove formed at the rear center of the second rotating block to support the first rotating block so as to be aligned in a straight line with the second rotating block during rotation; and a cleaning brush installed along the perimeter of the module body, the perimeter of the installation groove cover, and the front end to perform cleaning.

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