Liposuction apparatus

Abstract

The present disclosure relates to a fat removal surgery instrument. The present disclosure additionally arranges / provides a fiber support on a lipolytic fat suction passage of a waveguide tube, the fiber support being made of an insulating material and supporting an optical fiber in a restrained state while being fixed to the waveguide tube, such that the optical fiber is prevented from being deformed and coming into contact with the waveguide tube, and thus, even if various factors (e.g., weight, contact with human tissue, etc.) are applied to the optical fiber during a fat removal surgery, the optical fiber is guided to effectively avoid direct contact with the waveguide tube and thereby be damaged, while a series of deformations (e.g., a curved shape, etc.) are suppressed / controlled based on the strong restraint of the fiber support.

Description

Technical Field

[0001] This disclosure relates to a liposuction surgical instrument, and more particularly, to a liposuction surgical instrument wherein an optical fiber support, made of insulating material and fixed to a waveguide to support the optical fiber in a constrained state to prevent deformation of the optical fiber and contact with the waveguide, is additionally placed / positioned on the liposuction channel of the waveguide so that: even when various factors (e.g., weight, contact with human tissue) are applied to the optical fiber during the liposuction procedure, the optical fiber is guided to effectively avoid direct contact with the waveguide and its corresponding damage by suppressing / regulating a series of deformations (e.g., bending shape) based on the strong constraint of the optical fiber support, thereby supporting the liposuction operator (e.g., a liposuction medical professional) to normally perform an effective liposuction procedure in which simultaneous high-frequency / laser emission and simultaneous liposuction can be performed together, while easily avoiding serious problems caused by the indiscriminate penetration / propagation of broken optical fiber debris into the body. Background Technology

[0002] Recently, with increasing societal interest in health and beauty, various types of surgical instruments for fat removal have been developed and widely used.

[0003] For example, Korean Patent Publication No. 10-2014-133786 (titled "Handheld Component for Lipolysis") (published November 20, 2014), Korean Patent Publication No. 10-2015-43511 (titled "Kit of Components and Equipment for Liposuction and Fat Filling Including Therein") (published April 22, 2015), and Korean Patent Publication No. 10-2017-80184 (titled "Medical Laser Handheld Component with High-Frequency Heating Function") (published July 10, 2017) disclose in more detail examples of fat removal surgical instruments according to the prior art.

[0004] At the same time, such as Figure 1 As shown, in the scheme of Korean Patent No. 10-1247376 (titled as a handpiece for liposuction surgery) (published on March 26, 2013) (hereinafter referred to as 'Patent 1247376'), the handpiece 4 adopts a combination configuration of waveguide 2 and optical fiber 3. The waveguide is coupled to the handle 1 and extends in the forward direction. The optical fiber is inserted into the center of the waveguide 2 and has a rear end extending in the rearward direction of the handle 2.

[0005] In this scenario, when a fat removal procedure (e.g., lipolysis, liposuction) is performed on the subject's body B, a high frequency is emitted from the waveguide 2 and a laser is emitted from the optical fiber 3. Ultimately, under the influence of the high frequency and the laser, unwanted fat in the subject's body B can be removed.

[0006] At the same time, such as Figure 2 As shown, in the applicant's Korean Patent No. 10-2058016 (titled "Fat Removal Surgical Instrument") (published December 20, 2019) (hereinafter referred to as "Patent 2058016"), the fat removal surgical instrument 10 employs a system combination configuration of a handle 11, a waveguide 12, and an optical fiber 13. The waveguide extends and is mounted in the forward direction of the handle 11, defining a liposuction channel 14 for aspirating liposuction fat, and is configured to emit high frequency during the fat removal surgery. The optical fiber is mounted on the liposuction channel 14 of the waveguide 12 and has an end exposed in the forward direction of the waveguide 12 to emit laser light during the fat removal surgery. In this case, a high-frequency cable (not shown) can be additionally embedded in the waveguide 12 and electrically connected to a fat removal control terminal 30 to emit high frequency.

[0007] In this scenario, when a fat removal surgery begins in the subject's body B, the fat removal control terminal 30 operates the high-frequency processing module, the laser processing module, and the lipolysis fat aspiration processing module. For example, it simultaneously performs the process of applying high frequency to the waveguide 12, the process of applying laser to the optical fiber 13, and the process of aspirating lipolysis fat through the lipolysis fat aspiration channel 14. This allows the fat removal surgery operator (e.g., a fat removal surgery medical professional) to perform an effective fat removal surgery involving heating a local area with a laser to break it up, using high frequency to decompose the broken area, and rapidly aspirating the broken fat crystals. For example, this can be performed together in an environment where high frequency and laser are emitted simultaneously, and lipolysis fat is aspirated simultaneously.

[0008] In this case, compared to patent 1247376, patent 2058016 also includes an insulating tube 100.

[0009] Meanwhile, under the existing protocol, when performing fat removal surgery, such as Figure 3 As shown, due to various factors (e.g., weight, contact with human tissue), the optical fibers 3 and 13 extending along the waveguides 2 and 12 inevitably suffer a series of deformations (e.g., bending shape).

[0010] In this situation, when optical fibers 3 and 13 inevitably suffer a series of deformations (e.g., bending), the corresponding optical fibers 3 and 13 encounter very serious situations, such as direct contact with waveguides 2 and 12 (or insulating tubes in waveguides) at different points (P1, P2, ...).

[0011] When optical fibers 3 and 13 are in direct contact with waveguides 2 and 12 (or the insulating tube in the waveguide), the strong high frequency emitted from waveguides 2 and 12 is directly applied to the corresponding optical fibers 3 and 13, causing the optical fibers 3 and 13 to decompose into fragments and be damaged due to the direct high frequency electromagnetic impact.

[0012] Clearly, when optical fibers 3 and 13 are broken into fragments and destroyed by the strong electromagnetic shock applied at high frequencies from waveguides 2 and 12, the broken optical fiber debris exhibits a behavior of indiscriminately penetrating / propagating into the subject's body, and ultimately, the indiscriminately penetrating / propagating optical fiber debris leads to a very serious problem of causing severe damage to the tissues in body B.

[0013] At the same time, such as Figure 3 As shown, in the existing scheme, as described above, optical fibers 3 and 13 cross the transverse region d of waveguides 2 and 12, and their ends are exposed in the forward direction of waveguide 12.

[0014] When the ends of optical fibers 3 and 13 cross the transverse region d of waveguides 2 and 12 inside the human body and are exposed in the forward direction, a large amount of strong high frequency is output from the tip D of waveguides 2 and 12 inside the human body along the arrow in the forward direction of waveguides 2 and 12.

[0015] When a large amount of strong high frequency is output from the tip D of waveguides 2 and 12, the corresponding strong electromagnetic shock of the high frequency is applied to optical fibers 3 and 13, causing optical fibers 3 and 13 to decompose into fragments and be seriously damaged.

[0016] Clearly, in the same situation, the broken fiber optic debris exhibited a behavior of indiscriminately penetrating / spreading into the subject's body, and ultimately, the indiscriminately penetrating / spreading fiber optic debris caused a very serious problem of severe damage to the tissues in body B.

[0017] In summary, patents '2058016' and '1247376' correspond to imperfect technologies that cause damage to tissues in body B due to high-frequency destruction of optical fiber debris.

[0018] Furthermore, unless any groundbreaking action is taken, fat removal surgery practitioners (e.g., fat removal surgery medical professionals) cannot actually apply '2058016 patent' and '1247376 patent' to <fat removal surgery in body B>.

[0019] [Related Literature]

[0020] [Patent Literature]

[0021] (Patent Document 1) Korean Patent No. 10-1247376 (Title: Handheld Component for Liposuction Surgery) (Published March 26, 2013)

[0022] (Patent Document 2) Korean Patent No. 10-2058016 (Title: Fat Removal Surgical Instrument) (Published on December 20, 2019)

[0023] (Patent Document 3) Korean Patent Publication No. 10-2014-133786 (Title: Handheld Part for Lipolysis) (Published on November 20, 2014)

[0024] (Patent Document 4) Korean Patent Publication No. 10-2015-43511 (Title: Kit of Components and Equipment for Liposuction and Fat Filling Including Therein) (Published on April 22, 2015)

[0025] (Patent Document 5) Korean Patent Publication No. 10-2017-80184 (Title: Medical Laser Handheld Device with High-Frequency Heating Function) (Published on July 10, 2017) Summary of the Invention

[0026] Technical issues

[0027] Therefore, this disclosure relates to the additional placement / setting of an optical fiber support, made of insulating material and fixed to a waveguide to support the optical fiber in a constrained state to prevent deformation of the optical fiber and contact with the waveguide, on the liposuction channel of the waveguide, so that: even when various factors (e.g., weight, contact with human tissue) are applied to the optical fiber during liposuction, the optical fiber is guided to effectively avoid direct contact with the waveguide and its corresponding damage by suppressing / regulating a series of deformations (e.g., bending shape) based on the strong constraint of the optical fiber support, thereby supporting the liposuction operator (e.g., liposuction medical professional) to normally perform an effective liposuction procedure in which simultaneous high-frequency / laser emission and simultaneous liposuction can be performed together, while easily avoiding serious problems caused by the indiscriminate penetration / propagation of broken optical fiber debris into the body.

[0028] These and other objectives of this disclosure will become apparent from the following detailed description and accompanying drawings.

[0029] Technical solution

[0030] To achieve the above objectives, this disclosure provides a liposuction surgical instrument comprising: a waveguide defining a liposuction channel for aspirating liposuction fat and configured to emit a high frequency during liposuction; an optical fiber mounted on the liposuction channel of the waveguide and configured to emit a laser during liposuction; and an optical fiber support made of an insulating material and fixed to the waveguide to support the optical fiber in a constrained state to prevent deformation and contact with the waveguide, wherein the optical fiber support includes an optical fiber retaining package extending along the waveguide and covering the optical fiber to suppress deformation; and a retaining package fixing block protruding from and fixed to the waveguide to guide the optical fiber received in the retaining package to be securely suspended at the center of the liposuction channel.

[0031] Furthermore, another aspect of this disclosure discloses a liposuction surgical instrument comprising: a waveguide defining a liposuction channel for aspirating liposuction fat and configured to emit a high frequency during liposuction; an optical fiber mounted on the liposuction channel of the waveguide and configured to emit a laser during liposuction; and an optical fiber support made of an insulating material and fixed to the waveguide to support the optical fiber in a constrained state to prevent deformation and contact with the waveguide, wherein the optical fiber support includes an optical fiber retainer covering the optical fiber and occupying a portion of the optical fiber to suppress deformation of the optical fiber; and a retainer fixing block protruding from the optical fiber retainer and fixed to the waveguide to guide the optical fiber received in the optical fiber retainer to be securely suspended at the center of the liposuction channel.

[0032] Furthermore, another aspect of this disclosure discloses a liposuction surgical instrument comprising: a waveguide defining a liposuction channel for aspirating liposuction fat and configured to emit a high frequency during liposuction; an optical fiber mounted on the liposuction channel of the waveguide and configured to emit a laser during liposuction; and an optical fiber support made of an insulating material and fixed to the waveguide to support the optical fiber in a constrained state to prevent deformation and contact with the waveguide, wherein the optical fiber support comprises: a body block fixed to the waveguide and protruding from the waveguide toward the liposuction channel; and an optical fiber through-guide hole formed by opening a portion of the body block to guide the optical fiber securely suspended at the center of the liposuction channel while deformation is suppressed by the body block, the optical fiber passing through the optical fiber through the guide hole through the body block.

[0033] Furthermore, another aspect of this disclosure discloses a liposuction surgical instrument comprising: a waveguide defining a liposuction channel for aspirating liposuction fat and configured to emit a high frequency during liposuction; an optical fiber mounted on the liposuction channel of the waveguide and configured to emit a laser during liposuction; and an optical fiber support made of an insulating material and fixed to the waveguide to support the optical fiber in a constrained state to prevent deformation and contact with the waveguide, wherein the optical fiber support comprises: an optical fiber retaining ring having an annular shape with a portion of it open and covering the optical fiber to suppress deformation of the optical fiber; and a substrate block integrally connected to and fixed to the waveguide with the optical fiber retaining ring to guide the optical fiber passing through the optical fiber retaining ring to be securely suspended at the center of the liposuction channel.

[0034] Furthermore, another aspect of this disclosure discloses a liposuction surgical instrument comprising: a waveguide defining a liposuction channel for aspirating liposuction fat and configured to emit a high frequency during liposuction; an optical fiber mounted on the liposuction channel of the waveguide and configured to emit a laser during liposuction; and an optical fiber support made of an insulating material and fixed to the waveguide to support the optical fiber in a constrained state to prevent deformation and contact with the waveguide, wherein the optical fiber support includes: an optical fiber retaining package extending along the waveguide and covering the optical fiber to suppress deformation of the optical fiber; and a retaining package fixing cord connected to the optical fiber retaining package and fixed to the waveguide to guide the optical fiber received in the optical fiber retaining package to be securely suspended at the center of the liposuction channel.

[0035] Furthermore, another aspect of this disclosure discloses a liposuction surgical instrument comprising: a waveguide defining a liposuction channel for aspirating liposuction fat and configured to emit a high frequency during liposuction; an optical fiber mounted on the liposuction channel of the waveguide and configured to emit a laser during liposuction; and an optical fiber support made of an insulating material and fixed to the waveguide to support the optical fiber in a constrained state to prevent deformation and contact with the waveguide, wherein the optical fiber support includes: an optical fiber retainer covering and occupying a portion of the optical fiber to suppress deformation of the optical fiber; and a retainer retaining ring connected to the optical fiber retainer and fixed to the waveguide to guide the optical fiber received in the optical fiber retainer to be securely suspended at the center of the liposuction channel.

[0036] Furthermore, another aspect of this disclosure discloses a liposuction surgical instrument comprising: a waveguide defining a liposuction channel for aspirating liposuction fat and configured to emit a high frequency during the liposuction procedure; an optical fiber mounted on the liposuction channel of the waveguide and configured to emit a laser during the liposuction procedure; and an optical fiber support made of an insulating material and fixed to the waveguide to support the optical fiber in a constrained state to prevent deformation and contact with the waveguide, wherein the optical fiber support includes a plurality of optical fiber fixing cords continuously wound around the optical fiber to form a coil to suppress deformation of the optical fiber, and both ends of the optical fiber fixing cords are fixed to the waveguide to guide the optical fiber securely suspended at the center of the liposuction channel.

[0037] Additionally, another aspect of this disclosure discloses a liposuction surgical instrument comprising: a waveguide defining a liposuction channel for aspirating liposuction fat and configured to emit a high frequency during liposuction; and an optical fiber mounted on the liposuction channel of the waveguide and configured to emit a laser during liposuction, wherein an inner insulating tube of insulating material is mounted at the center of the liposuction channel and covers the optical fiber to suppress deformation of the optical fiber, a fixing frame of insulating material is mounted outside the inner insulating tube and protrudes from the inner insulating tube to fix the corresponding inner insulating tube to the liposuction channel, and the optical fiber is inserted into the inner insulating tube and securely suspended at the center of the liposuction channel.

[0038] Beneficial effects

[0039] Because this disclosure additionally places / provides an optical fiber support, made of insulating material and fixed to the waveguide to support the optical fiber in a constrained state to prevent deformation and contact with the waveguide, on the liposuction channel of the waveguide, in the context of embodiments of this disclosure, even when various factors (e.g., weight, contact with body tissue) are applied to the optical fiber during liposuction, it is possible to effectively avoid direct contact between the optical fiber and the waveguide and its corresponding damage by suppressing / regulating a series of deformations (e.g., bending shape) based on the strong constraint of the optical fiber support. This allows the liposuction operator (e.g., a liposuction medical professional) to normally perform an effective liposuction procedure in which simultaneous high-frequency / laser emission and simultaneous liposuction can be performed together, while easily avoiding serious problems caused by the indiscriminate penetration / propagation of broken optical fiber debris into the body. Attached Figure Description

[0040] Figure 1 and Figure 2This is a conceptual illustration of a fat removal surgical instrument based on existing technology.

[0041] Figure 3 This is a conceptual illustration of the deformed shape of an optical fiber in a fat removal surgical instrument scheme according to the prior art.

[0042] Figure 4 This is a conceptual illustration of a fat removal surgical instrument according to the present disclosure.

[0043] Figures 5 to 28 This is a conceptual diagram illustrating the shape of the optical fiber support according to each embodiment of the present disclosure. Detailed Implementation

[0044] Best way

[0045] A liposuction surgical instrument includes: a waveguide defining a liposuction channel for aspirating liposuction fat and configured to emit a high frequency during the liposuction procedure; an optical fiber mounted on the liposuction channel of the waveguide to emit a laser during the liposuction procedure; and an optical fiber support made of an insulating material and fixed to the waveguide to support the optical fiber in a constrained state to prevent deformation and contact with the waveguide, wherein the optical fiber support includes an optical fiber retaining package extending along the waveguide and covering the optical fiber to suppress deformation of the optical fiber; and a retaining package fixing block protruding from the optical fiber retaining package and fixed to the waveguide to guide the optical fiber received in the optical fiber retaining package to be securely suspended at the center of the liposuction channel.

[0046] In the following, the fat removal surgical instrument according to embodiments of the present disclosure will be described in more detail with reference to the accompanying drawings.

[0047] like Figure 4 As shown, the liposuction surgical instrument 200 according to an embodiment of the present disclosure employs a system configuration of a handle 201, a waveguide 212, and an optical fiber 230. The waveguide extends and is mounted in the forward direction of the handle 201, defining a liposuction channel 240 for aspirating liposuction fat, and is configured to emit high frequencies during the liposuction procedure. The optical fiber is mounted on the liposuction channel 240 of the waveguide 212 and has an end exposed in the forward direction of the waveguide 212 to emit a laser during the liposuction procedure. In this configuration, a high-frequency cable (not shown) may be additionally embedded in the waveguide 212 and electrically connected to a liposuction control terminal 230 to emit high frequencies.

[0048] The handle 201 serves to guide the fat removal surgery operator (e.g., a fat removal surgery medical professional) to easily handle (e.g., hold in their hand) the fat removal surgical instrument 200. Of course, the size, appearance design and accompanying structure of the handle 201 can be modified in various ways depending on the circumstances.

[0049] The fat removal control terminal 230 includes a high-frequency processing module, a laser processing module, and a lipolysis fat aspiration processing module, and is electrically / physically connected to the waveguide 212, the optical fiber 230, and the lipolysis fat aspiration channel 240 via a handle 201.

[0050] In this scenario, when a fat removal surgery begins in the subject's body B, the fat removal control terminal 230 operates the high-frequency processing module, the laser processing module, and the lipolysis fat aspiration processing module, for example, to simultaneously perform: the process of applying a high frequency to the waveguide 212, the process of applying a laser to the optical fiber 230, and the process of aspirating lipolysis fat through the lipolysis fat aspiration channel 240. Ultimately, the fat removal surgery operator (e.g., a fat removal surgery medical professional) can perform an effective fat removal surgery involving heating a local area with a laser to break it up, using a high frequency to decompose the broken area, and rapidly aspirating the broken fat crystals, for example, in an environment where high frequency and laser emission and lipolysis fat aspiration are performed simultaneously.

[0051] In this case, waveguide 212 may also include an external lipolysis fat transfer guide hole (not shown) to guide the lipolysis fat that has been broken down during the fat removal procedure into the lipolysis fat aspiration channel 240 in waveguide 212.

[0052] In addition, insulation devices 300 (e.g., insulating tubes and insulating coatings) may be additionally inserted / coated / placed in waveguide 212 to electrically separate waveguide 212 from optical fiber 230 and prevent high frequencies from waveguide 212 from propagating to optical fiber 230.

[0053] In addition, an insulating tool (not shown) may be additionally installed at the boundary of the body B through which the waveguide 212 passes to prevent electrical / physical contact between the waveguide 212 and the boundary of the body B, thereby preventing damage to the body B from heat generated by the waveguide 212 and high frequencies emitted from the waveguide 212 (in the following, it also applies to all embodiments).

[0054] If no action is taken during the fat removal procedure of this disclosure, the optical fiber 230 extending along the waveguide 212 will inevitably suffer a series of deformations (e.g., bending shape) due to various factors (e.g., weight, contact with human tissue), and in turn, the optical fiber 230 will inevitably come into direct contact with the waveguide 212 (or the insulating device in the waveguide) at different points. As a result, the strong high frequency emitted from the waveguide 230 is directly applied to the corresponding optical fiber 230, causing the optical fiber 230 to break into fragments and be destroyed.

[0055] In such a critical situation, such as Figures 5 to 27 As shown, in each embodiment of this disclosure, actions are taken to additionally place / provide fiber optic supports 400, 410, 420, 430, 440, 450, 460, 470, 480 on the lipolysis fat aspiration channel 240 of the waveguide 212. The fiber optic supports are made of insulating material and fixed to the waveguide 212 to support the fiber in a constrained state 230, thereby preventing deformation of the fiber and contact with the waveguide.

[0056] Of course, with the additional provision of fiber optic supports 400, 410, 420, 430, 440, 450, 460, 470, and 480, a series of deformations (e.g., bending shapes) can be suppressed / regulated by the strong constraints based on the fiber optic supports 400, 410, 420, 430, 440, 450, 460, 470, and 480. Even if various factors (e.g., body weight, contact with tissues within the body) are applied to the fiber optic 230 during fat removal surgery, it is possible to effectively avoid direct contact with the waveguide 212 and its corresponding damage.

[0057] In this case, the fiber optic supports 400, 410, 420, 430, 440, 450, 460, 470, and 480 are made of insulating materials with good current prevention effects, such as plastics, rubber, leather, glass, and ceramics.

[0058] Here, in the embodiments of this disclosure, a very important technical factor is that the fiber optic supports 400, 410, 420, 430, 440, 450, 460, 470, and 480 are made of insulating materials such as plastic, rubber, leather, glass, and ceramic.

[0059] This is because: when the fiber optic supports 400, 410, 420, 430, 440, 450, 460, 470, and 480 of this disclosure are made of any other material (e.g., metallic material, instead of insulating material (e.g., plastic, rubber, leather, glass, and ceramic)), the fiber optic supports 400, 410, 420, 430, 440, 450, 460, 470, and 480 cannot block the high frequencies emitted from the waveguide 212. Therefore, the corresponding high frequencies (i.e., strong electromagnetic waves) are transmitted to the optical fiber 230, and ultimately, the optical fiber 230 cannot avoid serious damage caused by the high frequencies.

[0060] The detailed configuration and operation of the fiber optic supports 400, 410, 420, 430, 440, 450, 460, 470, and 480 according to each embodiment of the present disclosure will be described in detail below.

[0061] First, such as Figure 5 As shown, the fiber optic support 400 according to an embodiment of the present disclosure employs a system combination configuration of a fiber optic retaining package 401 and a retaining package fixing block 402. The fiber optic retaining package extends along the waveguide 212 and covers the fiber optic cable 230 to suppress deformation of the fiber optic cable 230. The retaining package fixing block protrudes from the fiber optic retaining package 401 and is fixed to the waveguide 212 to guide the fiber optic cable 230 received in the fiber optic retaining package 401 to be securely suspended at or near the center of the lipolysis fat aspiration channel 240.

[0062] In this case, the fiber optic retainer 401 is fixed to the retainer fixing block 402 and is positioned at or near the center of the liposuction channel 240. In this case, the fiber optic retainer 401 and the retainer fixing block 402 are made of plastic, rubber, leather, glass and ceramic, which are known to have good current prevention effects.

[0063] Here, the retaining package fixing block 402 is fixed to the waveguide 212 by various coupling devices (such as insulating adhesive, insulating tape and nut / bolt couplings of insulating material), (of course, various modifications can be made to the method and coupling device for fixing the retaining package fixing block 402 to the waveguide 212 as appropriate).

[0064] In this case, the shape of the fiber holding package 401 can be modified in various ways, such as circular, angular or any other shape, and the coverage of the fiber holding package 401 on the fiber 230 can also be modified in various ways, depending on the circumstances.

[0065] Furthermore, the fiber retaining package 401 may have a similar diameter to the fiber 230 to cover the corresponding fiber 230 more tightly, and depending on the circumstances, the fiber retaining package 401 may have a slightly larger diameter than the fiber 230 (e.g., 110% of the diameter of the fiber 230) to cover the corresponding fiber 230 more loosely.

[0066] Here, the installation position of the retaining package fixing block 402 can be modified in various ways depending on the situation, for example, near both ends of the waveguide 212, at the center of the waveguide, at 1 / 3 of the distance from one end of the waveguide 212, or any other position. Furthermore, the number of the installed retaining package fixing blocks 402 can be modified in various ways depending on the situation, such as 2, 3, 4, etc., and furthermore, the shape of the retaining package fixing block 402 can be modified in various ways depending on the situation.

[0067] In this case, depending on the circumstances, the retaining package fixing block 402 and the fiber retaining package 401 can be manufactured as a single molded product, and after the retaining package fixing block 402 is manufactured as a separate molded product, the retaining package fixing block 402 can be integrally coupled to the fiber retaining package 401, for example, by a series of coupling devices such as insulating adhesive, insulating tape and insulating material nuts / bolts.

[0068] In addition, the protruding direction of the retaining block 402 can be modified in various ways depending on the situation, such as the upward direction of the optical fiber 230, the downward direction of the optical fiber 230, the leftward direction of the optical fiber 230, the rightward direction of the optical fiber 230, or the 45° direction of the optical fiber 230.

[0069] Specifically, since the retaining block 402 occupies only a portion of the lipolysis fat aspiration channel 240 in an optimal size, it is possible to maintain the smooth aspiration of lipolysis fat passing through the corresponding lipolysis fat aspiration channel 240 without unnecessary obstruction by the retaining block 402. In this case, a lipolysis fat guide hole 403 can be additionally provided in the retaining block 402 to support smoother passage of lipolysis fat.

[0070] With the basic structure established, when the fat removal surgery in the subject's body B begins, the fat removal control terminal 230 operates the high-frequency processing module, the laser processing module, and the lipolysis fat aspiration processing module, for example, to simultaneously perform: the process of applying a high frequency to the waveguide 212, the process of applying a laser to the optical fiber 230, and the process of aspirating lipolysis fat through the lipolysis fat aspiration channel 240. In this case, the optical fiber 230 extending along the waveguide 212 is at risk of a series of deformations (e.g., forming a bent shape) due to various factors (e.g., weight, contact with human tissue).

[0071] In this dangerous situation, the fiber retaining package 401 secures the fiber 230 suspended at or near the center of the lipolysis fat aspiration channel 240 and tightly covers the corresponding fiber 230, thereby implementing a constraint mechanism to prevent deformation of the fiber 230.

[0072] Of course, under the constraint mechanism of the fiber holding package 401, the fiber 230 can be located at or near the center of the liposuction channel 240, which is least affected by the high frequency from the waveguide 212, so as to easily avoid unnecessary deformation (e.g., forming a curved shape). Thus, even if various factors (e.g., weight, contact with human tissue) are applied to the fiber 230 during the fat removal surgery, direct contact with the waveguide 212 and its corresponding damage are effectively avoided without any deformation.

[0073] Clearly, under the above-described embodiments of this disclosure, a fat removal surgeon (e.g., a medical professional specializing in fat removal surgery) can normally perform an effective fat removal surgery in which simultaneous high-frequency / laser emission and simultaneous lipolysis and fat aspiration can be performed simultaneously, while easily avoiding serious problems caused by the indiscriminate penetration / propagation of broken fiber optic debris into the body.

[0074] Meanwhile, even under the scheme disclosed herein, since the optical fiber 230 crosses the transverse region d of the waveguide 212 and its end is exposed in the forward direction of the waveguide 212, when a large amount of strong high frequency is output from the tip D of the waveguide 212 inside the human body along the forward direction of the waveguide 212, the strong electromagnetic shock of the corresponding high frequency causes the optical fiber 230 to decompose into fragments and be damaged.

[0075] In such a critical situation, this disclosure takes action to additionally coat the tip D of the waveguide 212 inside the human body with an insulating material 250 (e.g., a metal oxide material such as SiO2) to shield the high-frequency output.

[0076] Of course, with the additional coating of insulating material 250 (e.g., metal oxide material such as SiO2), it is possible to fundamentally shield the high frequency output from the tip D of waveguide 212 inside the human body, thereby easily avoiding damage caused by the effects of high frequency when the optical fiber 230 crosses the lateral region d of waveguide 212 and its end is exposed in the forward direction of waveguide 212.

[0077] In addition to the actions described above, this disclosure may also take actions to place the end of the optical fiber 230 within the lateral region d of the waveguide 212 inside the human body, such as... Figure 6 As shown.

[0078] Of course, in the case where the end of the optical fiber 230 is located within the transverse region d of the waveguide 212 inside the human body, even if a large amount of strong high frequency is output from the tip D of the waveguide 212 inside the human body in the forward direction of the waveguide 212, the optical fiber 230 can easily avoid exposure, thereby easily avoiding damage caused by the influence of high frequency.

[0079] At the same time, such as Figure 7 As shown, according to another embodiment of the present disclosure, the optical fiber support 410 employs a system combination configuration of an optical fiber retainer 411 and a retainer fixing block 412. The optical fiber retainer covers around the optical fiber 230 and occupies a portion of the optical fiber 230 to suppress deformation of the optical fiber 230. The retainer fixing block 412 protrudes from the optical fiber retainer 411 and is fixed to the waveguide 212 to guide the optical fiber 230 received in the optical fiber retainer 411 to be securely suspended at the center of the lipolysis fat aspiration channel 240.

[0080] In this case, the fiber optic retainer 411 is fixed by the retainer fixing block 412 and is located at or near the center of the lipolysis fat aspiration channel 240. In this case, the fiber optic retainer 411 and the retainer fixing block 412 are made of plastics, rubber, leather, glass and ceramics, which are known to have good current prevention effects.

[0081] Here, the retaining block 412 is fixed to the waveguide 212 by various coupling devices (such as insulating adhesive, insulating tape and nuts / bolts made of insulating material). (Of course, various modifications can be made to the method and coupling device for fixing the retaining block 412 to the waveguide 212 as appropriate).

[0082] In this case, the shape of the fiber optic retainer 411 can be modified in various ways, such as circular, angular or any other shape, and the coverage of the fiber optic retainer 411 on the fiber optic 230 can also be modified in various ways, depending on the circumstances.

[0083] Furthermore, the fiber retainer 411 may have a diameter similar to that of the fiber 230 to cover the corresponding fiber 230 more closely, and, depending on the circumstances, the fiber retainer 411 may have a diameter slightly larger than that of the fiber 230 (e.g., 110% of the diameter of the fiber 230) to cover the corresponding fiber 230 more loosely.

[0084] Here, the installation position of the fiber optic retainer 411 can be modified in various ways depending on the situation, for example, near both ends of the waveguide 212, at the center of the waveguide 212, at one-third of the distance from one end of the waveguide 212, or at any other position. Furthermore, the number of installed fiber optic retainers 411 can be modified in various ways depending on the situation, for example, 2, 3, 4, etc., and furthermore, the shape of the retainer fixing block 412 can be modified in various ways depending on the situation.

[0085] In this case, depending on the circumstances, the retainer fixing block 412 and the fiber retainer 411 can be manufactured as an integral product, and after the retainer fixing block 412 is manufactured as a separate product, the retainer fixing block 412 can be integrally coupled to the fiber retainer 411, for example, by a series of coupling devices such as insulating adhesive, insulating tape and insulating material nuts / bolts.

[0086] Furthermore, the protruding direction of the retaining member fixing block 412 can be modified in various ways depending on the situation, such as the upward direction of the optical fiber 230, the downward direction of the optical fiber 230, the leftward direction of the optical fiber 230, the rightward direction of the optical fiber 230, the 45° direction of the optical fiber 230, etc.

[0087] Specifically, since the retainer fixing block 412 occupies only a portion of the lipolysis fat aspiration channel 240 in an optimal size, it is possible to properly maintain the smooth aspiration of lipolysis fat passing through the corresponding lipolysis fat aspiration channel 240 without being unnecessarily obstructed by the retainer fixing block 412. In this case, a lipolysis fat guide hole 413 can be additionally provided in the retainer fixing block 412 to support smoother passage of the lipolysis fat.

[0088] With the basic structure established, when the fat removal surgery in the subject's body B begins, the fat removal control terminal 230 operates the high-frequency processing module, the laser processing module, and the lipolysis fat aspiration processing module, for example, to simultaneously perform: the process of applying high frequency to the waveguide 212, the process of applying laser to the optical fiber 230, and the process of aspirating lipolysis fat through the lipolysis fat aspiration channel 240. In this case, the optical fiber 230 extending along the waveguide 212 is at risk of a series of deformations (e.g., forming a bent shape) due to various factors (e.g., weight, contact with human tissue).

[0089] In this dangerous situation, the fiber retainer 411 secures the fiber 230 suspended at or near the center of the lipolysis fat aspiration channel 240 and partially and tightly covers the corresponding fiber 230, thereby implementing a constraint mechanism to prevent deformation of the fiber 230.

[0090] Of course, under this constraint mechanism of the fiber retainer 411, the fiber 230 can be located at or near the center of the liposuction channel 240, which is least affected by the high frequency from the waveguide 212, so as to easily avoid unnecessary deformation (e.g., forming a curved shape). Thus, even if various factors (e.g., weight, contact with human tissue) are applied to the fiber 230 during the fat removal surgery, direct contact with the waveguide 212 and its corresponding damage are effectively avoided without any deformation.

[0091] Clearly, in another embodiment of this disclosure described above, a fat removal surgeon (e.g., a fat removal medical professional) can normally perform an effective fat removal surgery in which simultaneous high-frequency / laser emission and simultaneous lipolysis and fat aspiration can be performed simultaneously, while easily avoiding serious problems caused by the indiscriminate penetration / propagation of broken fiber optic debris into the body.

[0092] Meanwhile, in another embodiment of the present disclosure described above, an action is taken to additionally coat the tip D of the waveguide 212 inside the human body with an insulating material 250 (e.g., a metal oxide material such as SiO2) to shield the high-frequency output.

[0093] Of course, with the additional coating of insulating material 250 (e.g., metal oxide material such as SiO2), it is possible to fundamentally shield the high frequency output from the tip D of waveguide 212 inside the human body, thereby easily avoiding damage caused by the effects of high frequency when the optical fiber 230 crosses the lateral region d of waveguide 212 and its end is exposed in the forward direction of waveguide 212.

[0094] In addition to the actions described above, another embodiment of this disclosure may also involve placing the end of the optical fiber 230 within the lateral region d of the waveguide 212 inside the human body, such as... Figure 8 As shown.

[0095] Of course, in the case where the end of the optical fiber 230 is located within the transverse region d of the waveguide 212 inside the human body, even if a large amount of strong high frequency is output from the tip D of the waveguide 212 inside the human body along the forward direction of the waveguide 212, the optical fiber 230 can easily avoid exposure, thereby easily avoiding damage caused by the influence of high frequency.

[0096] At the same time, such as Figure 9 and Figure 11As shown, according to another embodiment of this disclosure, the fiber optic supports 420, 420a are configured with a system combination of body blocks 421, 421a and fiber optic guide holes 422, 422a. The body blocks are fixed to the waveguide 212 and protrude from the waveguide 212 toward the lipolysis fat aspiration channel 240. The fiber optic guide holes are formed by opening multiple portions of the body blocks 421, 421a. The fiber optic 230 passes through the body blocks 421, 421a to guide the fiber optic 230 to be securely suspended at the center of the lipolysis fat aspiration channel 240, while its deformation is suppressed by the body blocks 421, 421a.

[0097] In this case, the optical fibers that open the body blocks 421, 421a are located at or near the center of the lipolysis fat suction channel 240 through the guide holes 422, 422a, and in this case, the body blocks 421, 421a are made of plastic, rubber, leather, glass and ceramic with good current prevention effect.

[0098] In this case, the body blocks 421 and 421a can be installed vertically from the bottom of the waveguide 212 in an upward direction. Figure 9 (as shown), and can be installed in a structure that suspends from the top of the waveguide 212 in a downward direction (as shown). Figure 11 (as shown in the example).

[0099] Here, the body blocks 421, 421a are fixed to the waveguide 212, for example, by various coupling devices (such as insulating adhesive, insulating tape and nuts / bolts of insulating material). (Of course, various modifications can be made to the method and coupling device for fixing the body blocks 421, 421a to the waveguide 212 as appropriate).

[0100] In this case, the shapes of the body blocks 421 and 421a can be modified in various ways as needed, and the coverage area of ​​the body blocks 421 and 421a on the optical fiber 230 can also be modified in various ways as needed.

[0101] Furthermore, the optical fibers through the guide holes 422, 422a may have a diameter similar to that of the optical fiber 230 to cover the corresponding optical fiber 230 more tightly, and, depending on the circumstances, the optical fibers through the guide holes 422, 422a may have a diameter slightly larger than that of the optical fiber 230 (e.g., 110% of the diameter of the optical fiber 230) to cover the corresponding optical fiber 230 more loosely.

[0102] Here, the installation positions of the body blocks 421 and 421a can be modified in various ways depending on the situation. For example, they can be installed near both ends of the waveguide 212, at the center of the waveguide 212, at one-third of the distance from one end of the waveguide 212, or at any other position. Furthermore, the number of body blocks 421 and 421a installed can be modified in various ways depending on the situation, such as two, three, four, etc.

[0103] In this case, since the body blocks 421 and 421a occupy only a portion of the lipolysis fat suction channel 240 in an optimal size, it is possible to maintain the smooth suction of lipolysis fat through the corresponding lipolysis fat suction channel 240 without unnecessary obstruction by the body blocks 421 and 421a. In this case, a lipolysis fat guide hole 413 (not shown) can be additionally provided in the body blocks 421 and 421a to support smoother passage of lipolysis fat.

[0104] With the basic structure established, when the fat removal surgery in the subject's body B begins, the fat removal control terminal 230 operates the high-frequency processing module, the laser processing module, and the lipolysis fat aspiration processing module, for example, to simultaneously perform: the process of applying a high frequency to the waveguide 212, the process of applying a laser to the optical fiber 230, and the process of aspirating lipolysis fat through the lipolysis fat aspiration channel 240. In this case, the optical fiber 230 extending along the waveguide 212 is at risk of a series of deformations (e.g., forming a bent shape) due to various factors (e.g., weight, contact with human tissue).

[0105] In this dangerous situation, the body blocks 421, 421a fix the optical fiber 230 suspended at or near the center of the lipolysis fat aspiration channel 240 and partially and tightly cover the corresponding optical fiber 230, thereby implementing a constraint mechanism to prevent deformation of the optical fiber 230.

[0106] Of course, under the constraint mechanism of the body blocks 421, 421a, the optical fiber 230 can be located at or near the center of the liposuction channel 240, which is least affected by the high frequency from the waveguide 212, so as to easily avoid unnecessary deformation (e.g., forming a curved shape). Thus, even if various factors (e.g., weight, contact with human tissue) are applied to the optical fiber 230 during the fat removal surgery, direct contact with the waveguide 212 and its corresponding damage are effectively avoided without any deformation.

[0107] Clearly, in another embodiment of this disclosure described above, a fat removal surgeon (e.g., a fat removal medical professional) can normally perform an effective fat removal surgery in which simultaneous high-frequency / laser emission and simultaneous lipolysis and fat aspiration can be performed simultaneously, while easily avoiding serious problems caused by the indiscriminate penetration / propagation of broken fiber optic debris into the body.

[0108] Meanwhile, in another embodiment of the present disclosure described above, an action is taken to additionally coat the tip D of the waveguide 212 inside the human body with an insulating material 250 (e.g., a metal oxide material such as SiO2) to shield the high-frequency output.

[0109] Of course, with the additional coating of insulating material (e.g., metal oxide material such as SiO2), it is possible to fundamentally shield the high frequency output from the tip D of the waveguide 212 inside the human body, thereby easily avoiding damage caused by the effects of high frequency when the optical fiber 230 crosses the lateral region d of the waveguide 212 and its end is exposed in the forward direction of the waveguide 212.

[0110] In addition to the actions described above, in another embodiment of this disclosure, actions can also be taken to place the end of the optical fiber 230 within the lateral region d of the waveguide 212 inside the human body, such as... Figure 10 and Figure 12 As shown.

[0111] Of course, in the case where the end of the optical fiber 230 is located within the transverse region d of the waveguide 212 inside the human body, even if a large amount of strong high frequency is output from the tip D of the waveguide 212 inside the human body along the forward direction of the waveguide 212, the optical fiber 230 can easily avoid exposure, thereby easily avoiding damage caused by the influence of high frequency.

[0112] At the same time, such as Figure 13 As shown, according to another embodiment of the present disclosure, the fiber optic support 430 employs a system combination configuration of a fiber optic retaining ring 432 and a substrate block 431. The fiber optic retaining ring has a U-shaped loop (part of which is open) and covers the fiber optic 230 to suppress deformation of the fiber optic 230. The substrate block 431 is integrally connected to the fiber optic retaining ring 432 and fixed to the waveguide 212 to guide the fiber optic 230 passing through the fiber optic retaining ring 432 to be securely suspended (or suspended) at the center of the lipolysis fat aspiration channel 240.

[0113] In this case, the fiber optic retaining ring 432 is supported / fixed by the substrate block 431 and is located at or near the center of the lipolysis fat aspiration channel 240. In this case, the fiber optic retaining ring 432 and the substrate block 431 are made of plastics, rubber, leather, glass and ceramics, which are known to have good current prevention effects.

[0114] Here, the substrate block 431 is fixed to the waveguide 212, for example, by various coupling devices (such as insulating adhesive, insulating tape, and nuts / bolts made of insulating material). (Of course, various modifications can be made to the method and coupling device for fixing the substrate block 431 to the waveguide 212 as appropriate.)

[0115] In this case, the shapes of the fiber holding ring 432 and the substrate block 431 can be modified in various ways depending on the circumstances.

[0116] Furthermore, the fiber retaining ring 432 and the substrate block 431 can be erected vertically from the bottom of the waveguide 212 in the upward direction, and depending on the situation, the fiber retaining ring 432 and the substrate block 431 can be suspended from the top of the waveguide 212 in the downward direction.

[0117] Here, the installation positions of the fiber retaining ring 432 and the substrate block 431 can be modified in various ways as needed, for example, near both ends of the waveguide 212, at the center of the waveguide 212, at one-third of the distance from one end of the waveguide 212, or at any other position. The number of fiber retaining rings 432 and substrate blocks 431 installed can also be modified in various ways as needed, for example, 2, 3, 4, etc.

[0118] In this case, depending on the circumstances, the fiber retaining ring 432 and the substrate block 431 can be manufactured as a single molded product, and after they are manufactured as separate molded products, they can be integrally coupled to each other, for example, by a series of coupling devices such as insulating adhesives, insulating tapes and insulating materials, and nuts / bolts.

[0119] Specifically, since the fiber optic retaining ring 432 and the substrate block 431 occupy only a portion of the lipolysis fat aspiration channel 240 in an optimal size, it is possible to maintain the smooth aspiration of lipolysis fat through the corresponding lipolysis fat aspiration channel 240 without unnecessary obstruction by the fiber optic retaining ring 432 and the substrate block 431. In this case, a lipolysis fat guide hole 433 can be additionally provided in the substrate block 431 to support smoother passage of lipolysis fat.

[0120] With the basic structure established, when the fat removal surgery in the subject's body B begins, the fat removal control terminal 230 operates the high-frequency processing module, the laser processing module, and the lipolysis fat aspiration processing module, for example, to simultaneously perform: the process of applying a high frequency to the waveguide 212, the process of applying a laser to the optical fiber 230, and the process of aspirating lipolysis fat through the lipolysis fat aspiration channel 240. In this case, the optical fiber 230 extending along the waveguide 212 is at risk of a series of deformations (e.g., forming a bent shape) due to various factors (e.g., weight, contact with human tissue).

[0121] In this dangerous situation, the fiber retaining ring 432 secures the fiber 230 suspended (or lecithin-fat aspiration channel 240) at or near the center of the lipolysis channel 240 and partially and tightly covers the corresponding fiber 230, thereby implementing a constraint mechanism to prevent deformation of the fiber 230.

[0122] Of course, under the constraint mechanism of the fiber retaining ring 432, the fiber 230 can be located at or near the center of the liposuction channel 240, which is least affected by the high frequency from the waveguide 212, so as to easily avoid unnecessary deformation (e.g., forming a curved shape). Thus, even if various factors (e.g., weight, contact with human tissue) are applied to the fiber 230 during the fat removal surgery, direct contact with the waveguide 212 and its corresponding damage are effectively avoided without any deformation.

[0123] Clearly, in another embodiment of this disclosure described above, a fat removal surgeon (e.g., a fat removal medical professional) can normally perform an effective fat removal surgery in which simultaneous high-frequency / laser emission and simultaneous lipolysis and fat aspiration can be performed simultaneously, while easily avoiding serious problems caused by the indiscriminate penetration / propagation of broken fiber optic debris into the body.

[0124] Meanwhile, in another embodiment of the present disclosure described above, an action is taken to additionally coat the tip D of the waveguide 212 inside the human body with an insulating material 250 (e.g., a metal oxide material such as SiO2) to shield the high-frequency output.

[0125] Of course, with the additional coating of insulating material 250 (e.g., metal oxide material such as SiO2), it is possible to fundamentally shield the high frequency output from the tip D of waveguide 212 inside the human body, thereby easily avoiding damage caused by the effects of high frequency when the optical fiber 230 crosses the lateral region d of waveguide 212 and its end is exposed in the forward direction of waveguide 212.

[0126] In addition to the actions described above, in another embodiment of this disclosure, the end of the optical fiber 230 can also be placed within the lateral region d of the waveguide 212 inside the human body, such as... Figure 14 As shown.

[0127] Of course, in the case where the end of the optical fiber 230 is located within the transverse region d of the waveguide 212 inside the human body, even if a large amount of strong high frequency is output from the tip D of the waveguide 212 inside the human body along the forward direction of the waveguide 212, the optical fiber 230 can easily avoid exposure, thereby easily avoiding damage caused by the influence of high frequency.

[0128] At the same time, such as Figure 15 As shown, according to another embodiment of the present disclosure, the fiber optic support 440 employs a system combination configuration of a fiber optic retaining box 441 and a retaining box fixing block 442. The fiber optic retaining box covers the fiber optic 230 through a receiving space 443 and occupies a portion of the fiber optic 230 to suppress deformation of the fiber optic 230. The retaining box fixing block 442 extends from the fiber optic retaining box 441 and is fixed to the waveguide 212 to guide the fiber optic 230 received in the fiber optic retaining box 441 to be securely suspended at the center of the lipolysis fat aspiration channel 240.

[0129] In this case, the fiber optic retainer 441 is fixed by the retainer fixing block 442 and is located at or near the center of the lipolysis fat aspiration channel 240. In this case, the fiber optic retainer 441 and the retainer fixing block 442 are made of plastic, rubber, leather, glass and ceramic, which are known to have good current prevention effects.

[0130] Here, the retaining box fixing block 442 is fixed to the waveguide 212 by various coupling devices (such as insulating adhesive, insulating tape and nuts / bolts of insulating material). (Of course, various modifications can be made to the method and coupling device for fixing the retaining box fixing block 442 to the waveguide 212 as appropriate).

[0131] In this case, the shape of the fiber optic retaining box 441 and the retaining box fixing block 442 can be modified in various ways, such as circular, angular or any other shape, and the coverage of the fiber optic retaining box 441 on the fiber optic 230 can also be modified in various ways, depending on the circumstances.

[0132] Here, the installation positions of the fiber optic retaining box 441 and retaining box fixing block 442 can be modified in various ways depending on the situation. For example, near both ends of the waveguide 212, at the center of the waveguide 212, at 1 / 3 of the distance from one end of the waveguide 212, or any other position. Furthermore, the number of fiber optic retaining boxes 441 and retaining box fixing blocks 442 installed can be modified in various ways depending on the situation. For example, 2, 3, 4, etc. can be installed.

[0133] In this case, depending on the circumstances, the fiber optic retaining box 441 and the retaining box fixing block 442 can be manufactured as a single molded product, and after they are manufactured as separate molded products, they can be integrally coupled to each other, for example, by a series of coupling devices such as insulating adhesives, insulating tapes and insulating materials, and nuts / bolts.

[0134] In addition, such as Figure 17 As shown, an insulating filler 444 may be additionally provided in the fiber optic holding box 441 to prevent movement of the received fiber optic cable 230 and the gap.

[0135] Specifically, since the fiber optic retainer 441 and retainer fixing block 442 occupy only a portion of the lipolysis fat aspiration channel 240 in an optimal size, it is possible to maintain the smooth aspiration of lipolysis fat passing through the corresponding lipolysis fat aspiration channel 240 without unnecessary obstruction by the fiber optic retainer 441 and retainer fixing block 442. Furthermore, in this case, a lipolysis fat guide hole can be additionally provided in the retainer fixing block 442 to support even smoother passage of the lipolysis fat.

[0136] With the basic structure established, when the fat removal surgery in the subject's body B begins, the fat removal control terminal 230 operates the high-frequency processing module, the laser processing module, and the lipolysis fat aspiration processing module, for example, to simultaneously perform: the process of applying a high frequency to the waveguide 212, the process of applying a laser to the optical fiber 230, and the process of aspirating lipolysis fat through the lipolysis fat aspiration channel 240. In this case, the optical fiber 230 extending along the waveguide 212 is at risk of a series of deformations (e.g., forming a bent shape) due to various factors (e.g., weight, contact with human tissue).

[0137] In this dangerous situation, the fiber holding box 441 secures the fiber 230 suspended at or near the center of the lipolysis fat aspiration channel 240 and partially covers the corresponding fiber 230, thereby implementing a constraint mechanism to prevent deformation of the fiber 230.

[0138] Of course, under the constraint mechanism of the fiber holding box 441, the fiber 230 can be located at or near the center of the liposuction channel 240, which is least affected by the high frequency from the waveguide 212, so as to easily avoid unnecessary deformation (e.g., forming a curved shape). Thus, even if various factors (e.g., weight, contact with human tissue) are applied to the fiber 230 during the fat removal surgery, direct contact with the waveguide 212 and its corresponding damage are effectively avoided without any deformation.

[0139] Clearly, in another embodiment of this disclosure described above, a fat removal surgeon (e.g., a fat removal medical professional) can normally perform an effective fat removal surgery in which simultaneous high-frequency / laser emission and simultaneous lipolysis and fat aspiration can be performed simultaneously, while easily avoiding serious problems caused by the indiscriminate penetration / propagation of broken fiber optic debris into the body.

[0140] Meanwhile, in another embodiment of the present disclosure described above, action is taken to additionally coat the tip D of the waveguide 212 inside the human body with an insulating material 250 (e.g., a metal oxide material such as SiO2) to shield the high-frequency output.

[0141] Of course, with the additional coating of insulating material 250 (e.g., metal oxide material such as SiO2), it is possible to fundamentally shield the high frequency output from the tip D of waveguide 212 inside the human body, thereby easily avoiding damage caused by the effects of high frequency when the optical fiber 230 crosses the lateral region d of waveguide 212 and its end is exposed in the forward direction of waveguide 212.

[0142] In addition to the actions described above, in another embodiment of this disclosure, such as Figure 16 As shown, actions can be taken to place the end of the optical fiber 230 within the transverse region d of the waveguide 212 inside the human body.

[0143] Of course, in the case where the end of the optical fiber 230 is located within the transverse region d of the waveguide 212 inside the human body, even if a large amount of strong high frequency is output from the tip D of the waveguide 212 inside the human body along the forward direction of the waveguide 212, the optical fiber 230 can easily avoid exposure, thereby easily avoiding damage caused by the influence of high frequency.

[0144] At the same time, such as Figure 18As shown, according to another embodiment of the present disclosure, the fiber optic support 450 employs a system combination configuration of a fiber optic retaining package 451 and a retaining package fixing cord 452. The fiber optic retaining package extends along the waveguide 212 and covers the fiber optic cable 230 to suppress deformation of the fiber optic cable 230. The retaining package fixing cord is connected to the fiber optic retaining package 451 and fixed to the waveguide 212 to guide the fiber optic cable 230 received in the fiber optic retaining package 451 to be securely suspended at or near the center of the lipolysis fat aspiration channel 240.

[0145] In this case, the fiber optic retaining package 451 is secured by the retaining package fixing cord 452 and is located at or near the center of the lipolysis fat aspiration channel 240. In this case, the fiber optic retaining package 451 and the retaining package fixing cord 452 are made of plastics, rubber, leather, glass and ceramics, which are known to have good current prevention effects.

[0146] Here, the retaining bag fixing rope 452 is fixed to the waveguide 212 and the fiber retaining bag 451 by various coupling devices such as insulating adhesive and insulating tape (of course, various modifications can be made to the method and coupling device for fixing the retaining bag fixing rope 452 to the waveguide 212 and the fiber retaining bag 451 as appropriate).

[0147] In this case, the shape of the fiber holding package 451 can be modified in various ways, such as circular, angular or any other shape, and the coverage of the fiber holding package 451 on the fiber 230 can also be modified in various ways, depending on the circumstances.

[0148] Furthermore, the fiber retaining package 451 may have a similar diameter to the fiber 230 to cover the corresponding fiber 230 more tightly, and, depending on the circumstances, the fiber retaining package 451 may have a slightly larger diameter than the fiber 230 (e.g., 110% of the diameter of the fiber 230) to cover the corresponding fiber 230 more loosely.

[0149] Here, the installation position of the retaining bag fixing rope 452 can be modified in various ways depending on the situation, such as near both ends of the waveguide 212, at the center of the waveguide 212, at 1 / 3 of the distance from one end of the waveguide 212, or any other position. In addition, the number of retaining bag fixing ropes 452 installed can be modified in various ways depending on the situation, such as 2, 3, 4, etc.

[0150] Of course, since the retaining cord 452 occupies only a portion of the lipolysis fat aspiration channel 240 in an optimal manner, it is possible to maintain the smooth aspiration of lipolysis fat through the corresponding lipolysis fat aspiration channel 240 without being unnecessarily obstructed.

[0151] With the basic structure established, when the fat removal surgery in the subject's body B begins, the fat removal control terminal 230 operates the high-frequency processing module, the laser processing module, and the lipolysis fat aspiration processing module, for example, to simultaneously perform: the process of applying a high frequency to the waveguide 212, the process of applying a laser to the optical fiber 230, and the process of aspirating lipolysis fat through the lipolysis fat aspiration channel 240. In this case, the optical fiber 230 extending along the waveguide 212 is at risk of a series of deformations (e.g., forming a bent shape) due to various factors (e.g., weight, contact with human tissue).

[0152] In this dangerous situation, the fiber retaining package 451 secures the fiber 230 suspended at or near the center of the lipolysis fat aspiration channel 240 and tightly covers the corresponding fiber 230, thereby implementing a constraint mechanism to prevent deformation of the fiber 230.

[0153] Of course, under the constraint mechanism of the fiber holding package 451, the fiber 230 can be located at or near the center of the liposuction channel 240, which is least affected by the high frequency from the waveguide 212, so as to easily avoid unnecessary deformation (e.g., forming a curved shape). Thus, even if various factors (e.g., the weight of the fiber, contact with human tissue) are applied to the fiber 230 during the fat removal surgery, direct contact with the waveguide 212 and its corresponding damage are effectively avoided without any deformation.

[0154] Clearly, under the above-described embodiments of this disclosure, a fat removal surgeon (e.g., a fat removal medical professional) can normally perform an effective fat removal surgery in which simultaneous high-frequency / laser emission and simultaneous lipolysis and fat aspiration can be performed simultaneously, while easily avoiding serious problems caused by the indiscriminate penetration / propagation of broken fiber optic debris into the body.

[0155] Meanwhile, in another embodiment of the present disclosure described above, an action is taken to additionally coat the tip D of the waveguide 212 inside the human body with an insulating material 250 (e.g., a metal oxide material such as SiO2) to shield the high-frequency output.

[0156] Of course, with the additional coating of insulating material 250 (e.g., metal oxide material such as SiO2), it is possible to fundamentally shield the high frequency output from the tip D of waveguide 212 inside the human body, thereby easily avoiding damage caused by the effects of high frequency when the optical fiber 230 crosses the lateral region d of waveguide 212 and its end is exposed in the forward direction of waveguide 212.

[0157] In addition to the actions described above, in another embodiment of this disclosure, such as Figure 19As shown, actions can be taken to place the end of the optical fiber 230 within the transverse region d of the waveguide 212 inside the human body.

[0158] Of course, in the case where the end of the optical fiber 230 is located within the transverse region d of the waveguide 212 inside the human body, even if a large amount of strong high frequency is output from the tip D of the waveguide 212 inside the human body along the forward direction of the waveguide 212, the optical fiber 230 can easily avoid exposure, thereby easily avoiding damage caused by the influence of high frequency.

[0159] At the same time, such as Figure 20 As shown, according to another embodiment of the present disclosure, the optical fiber support 460 employs a system combination configuration of an optical fiber retainer 461 and a retainer fixing cord 462. The optical fiber retainer covers around the optical fiber 230 and occupies a portion of the optical fiber 230 to suppress deformation of the optical fiber 230. The retainer fixing cord 462 is connected to the optical fiber retainer 461 and fixed to the waveguide 212 to guide the optical fiber 230 received in the optical fiber retainer 461 to be securely suspended at the center of the lipolysis fat aspiration channel 240.

[0160] In this case, the fiber optic retainer 461 is secured by the retainer fixing cord 462 and is located at or near the center of the lipolysis fat aspiration channel 240. In this case, the fiber optic retainer 461 and the retainer fixing cord 462 are made of plastics, rubber, leather, glass and ceramics, which are known to have good current prevention effects.

[0161] Here, the retainer fixing cord 462 is connected / fixed to the waveguide 212 and the fiber retainer 461 by various coupling devices such as insulating adhesive and insulating tape (of course, various modifications can be made to the method and coupling device for fixing the retainer fixing block 412 to the waveguide 212 and the fiber retainer 461 as appropriate).

[0162] In this case, the shape of the fiber optic retainer 461 can be modified in various ways, such as circular, angular or any other shape, and the coverage of the fiber optic retainer 461 on the fiber optic 230 can also be modified in various ways, depending on the circumstances.

[0163] Furthermore, the fiber retainer 461 may have a diameter similar to that of the fiber 230 to cover the corresponding fiber 230 more closely, and, depending on the circumstances, the fiber retainer 461 may have a diameter slightly larger than that of the fiber 230 (e.g., 110% of the diameter of the fiber 230) to cover the corresponding fiber 230 more loosely.

[0164] Here, the installation positions of the fiber optic retainer 461 and retainer fixing cord 462 can be modified in various ways depending on the situation, for example, near both ends of the waveguide 212, at the center of the waveguide 212, at one-third of the distance from one end of the waveguide 212, or any other position. In addition, the number of fiber optic retainers 461 and retainer fixing cords 462 installed can also be modified in various ways depending on the situation, for example, installing 2, 3, 4, etc.

[0165] Of course, since the retainer fixing rope 462 occupies only a portion of the lipolysis fat suction channel 240 in an optimal size, it is possible to maintain the smooth suction of lipolysis fat through the corresponding lipolysis fat suction channel 240 without being unnecessarily obstructed.

[0166] With the basic structure established, when the fat removal surgery in the subject's body B begins, the fat removal control terminal 230 operates the high-frequency processing module, the laser processing module, and the lipolysis fat aspiration processing module, for example, to simultaneously perform: the process of applying a high frequency to the waveguide 212, the process of applying a laser to the optical fiber 230, and the process of aspirating lipolysis fat through the lipolysis fat aspiration channel 240. In this case, the optical fiber 230 extending along the waveguide 212 is at risk of a series of deformations (e.g., forming a bent shape) due to various factors (e.g., weight, contact with human tissue).

[0167] In this dangerous situation, the fiber retainer 461 secures the fiber 230 suspended at or near the center of the lipolysis fat aspiration channel 240 and partially and tightly covers the corresponding fiber 230, thereby implementing a constraint mechanism to prevent deformation of the fiber 230.

[0168] Of course, under the constraint mechanism of the fiber retainer 461, the fiber 230 can be located at or near the center of the liposuction channel 240, which is least affected by the high frequency from the waveguide 212, so as to easily avoid unnecessary deformation (e.g., forming a curved shape). Thus, even if various factors (e.g., weight, contact with human tissue) are applied to the fiber 230 during the fat removal surgery, direct contact with the waveguide 212 and its corresponding damage are effectively avoided without any deformation.

[0169] Clearly, in another embodiment of this disclosure described above, a fat removal surgeon (e.g., a fat removal medical professional) can normally perform an effective fat removal surgery in which simultaneous high-frequency / laser emission and simultaneous lipolysis and fat aspiration can be performed simultaneously, while easily avoiding serious problems caused by the indiscriminate penetration / propagation of broken fiber optic debris into the body.

[0170] Meanwhile, in another embodiment of the present disclosure described above, action is taken to additionally coat the tip D of the waveguide 212 inside the human body with an insulating material 250 (e.g., a metal oxide material such as SiO2) to shield the high-frequency output.

[0171] Of course, with the additional coating of insulating material 250 (e.g., metal oxide material such as SiO2), it is possible to fundamentally shield the high frequency output from the tip D of waveguide 212 inside the human body, thereby easily avoiding damage caused by the effects of high frequency when the optical fiber 230 crosses the lateral region d of waveguide 212 and its end is exposed in the forward direction of waveguide 212.

[0172] In addition to the actions described above, in another embodiment of this disclosure, actions can also be taken to place the end of the optical fiber 230 within the lateral region d of the waveguide 212 inside the human body, such as... Figure 21 As shown.

[0173] Of course, in the case where the end of the optical fiber 230 is located within the transverse region d of the waveguide 212 inside the human body, even if a large amount of strong high frequency is output from the tip D of the waveguide 212 inside the human body along the forward direction of the waveguide 212, the optical fiber 230 can easily avoid exposure, thereby easily avoiding damage caused by the influence of high frequency.

[0174] At the same time, such as Figure 22 As shown, according to another embodiment of the present disclosure, the optical fiber support 470 includes a plurality of optical fiber fixing cords 472, which are continuously wound around the optical fiber 230 to form a cord roll 471 for suppressing deformation of the optical fiber 230, and have two ends, which are fixed to the waveguide 212 to guide the optical fiber 230 to be securely suspended at (or near) the center of the lipolysis fat aspiration channel 240.

[0175] In this case, the fiber optic fixing cord 472 is made of rubber and leather, which have good current prevention effects.

[0176] Here, the fiber optic fixing cord 472 is connected / fixed to the waveguide 212, for example, by various coupling devices such as insulating adhesive and insulating tape (of course, various modifications can be made to the method and coupling device for fixing the fiber optic fixing cord 473 to the waveguide 212 as appropriate).

[0177] In this case, various modifications can be made to the coverage area of ​​the 'rope roll 471 of the fiber optic fixing rope 472 on the fiber optic 230' as needed.

[0178] Here, the installation position of the fiber optic fixing rope 472 can be modified in various ways depending on the situation, such as near both ends of the waveguide 212, at the center of the waveguide 212, at 1 / 3 of the distance from one end of the waveguide 212, or any other position. In addition, the number of fiber optic fixing ropes 472 installed can also be modified in various ways depending on the situation, such as 2, 3, 4, etc.

[0179] Of course, since the fiber optic fixing cord 472 occupies only a portion of the lipolysis fat suction channel 240 in an optimal manner, it is possible to maintain the smooth suction of lipolysis fat through the corresponding lipolysis fat suction channel 240 without being unnecessarily obstructed by the fiber optic fixing cord 472.

[0180] With the basic structure established, when the fat removal surgery in the subject's body B begins, the fat removal control terminal 230 operates the high-frequency processing module, the laser processing module, and the lipolysis fat aspiration processing module, for example, to simultaneously perform: the process of applying a high frequency to the waveguide 212, the process of applying a laser to the optical fiber 230, and the process of aspirating lipolysis fat through the lipolysis fat aspiration channel 240. In this case, the optical fiber 230 extending along the waveguide 212 is at risk of a series of deformations (e.g., forming a bent shape) due to various factors (e.g., weight, contact with human tissue).

[0181] In this dangerous situation, the fiber optic fixing cord 472 secures the fiber optic cable 230 suspended at or near the center of the lipolysis fat suction channel 240, and tightly covers the corresponding fiber optic cable 230 with the cord coil 471, thereby implementing a constraint mechanism to prevent deformation of the fiber optic cable 230.

[0182] Of course, under the constraint mechanism of the rope coil 471 of the fiber optic fixing rope 472, the fiber optic 230 can be located at or near the center of the liposuction channel 240, which is least affected by the high frequency from the waveguide 212, so as to easily avoid unnecessary deformation (e.g., forming a curved shape). Thus, even if various factors (e.g., weight, contact with human tissue) are applied to the fiber optic 230 during the fat removal surgery, direct contact with the waveguide 212 and its corresponding damage are effectively avoided without any deformation.

[0183] Clearly, in another embodiment of this disclosure described above, a fat removal surgeon (e.g., a fat removal medical professional) can normally perform an effective fat removal surgery in which simultaneous high-frequency / laser emission and simultaneous lipolysis and fat aspiration can be performed simultaneously, while easily avoiding serious problems caused by the indiscriminate penetration / propagation of broken fiber optic debris into the body.

[0184] Meanwhile, in another embodiment of the present disclosure described above, an action is taken to additionally coat the tip D of the waveguide 212 inside the human body with an insulating material 250 (e.g., a metal oxide material such as SiO2) to shield the high-frequency output.

[0185] Of course, with the additional coating of insulating material 250 (e.g., metal oxide material such as SiO2), it is possible to fundamentally shield the high frequency output from the tip D of waveguide 212 inside the human body, thereby easily avoiding damage caused by the effects of high frequency when the optical fiber 230 crosses the lateral region d of waveguide 212 and its end is exposed in the forward direction of waveguide 212.

[0186] In addition to the actions described above, in another embodiment of this disclosure, actions can also be taken to place the end of the optical fiber 230 within the lateral region d of the waveguide 212 inside the human body, such as... Figure 23 As shown.

[0187] Of course, in the case where the end of the optical fiber 230 is located within the transverse region d of the waveguide 212 inside the human body, even if a large amount of strong high frequency is output from the tip D of the waveguide 212 inside the human body along the forward direction of the waveguide 212, the optical fiber 230 can easily avoid exposure, thereby easily avoiding damage caused by the influence of high frequency.

[0188] At the same time, such as Figure 24 As shown, according to another embodiment of this disclosure, the fiber optic support 480 employs a system combination configuration of a fiber optic retaining box 481 and a retaining box fixing rope 482. The fiber optic retaining box covers the fiber optic 230 through a receiving space 483 and occupies a portion of the fiber optic 230 to suppress deformation of the fiber optic 230. The retaining box fixing rope 482 is connected to the fiber optic retaining box 481 and fixed to the waveguide 212 to guide the fiber optic 230 received in the fiber optic retaining box 481 to be securely suspended at the center of the lipolysis fat aspiration channel 240.

[0189] In this case, the fiber optic retainer 481 is secured by the retainer retainer fixing cord 482 and is located at or near the center of the lipolysis fat aspiration channel 240. In this case, the fiber optic retainer 481 and the retainer retainer fixing cord 482 are made of plastics, rubber, leather, glass and ceramics, which are known to have good current prevention effects.

[0190] Here, the retaining box fixing rope 482 is fixed to the waveguide 212 and the fiber retaining box 481 by various coupling devices such as insulating adhesive and insulating tape (of course, various modifications can be made to the method and coupling device for fixing the retaining box fixing block 442 to the waveguide 212 and the fiber retaining box 481 as appropriate).

[0191] In this case, the shape of the fiber optic retainer 481 can be modified in various ways, such as circular, angular or any other shape, and the coverage of the fiber optic retainer 481 on the fiber optic 230 can also be modified in various ways, depending on the circumstances.

[0192] Here, the installation positions of the fiber optic retaining box 481 and retaining box fixing rope 482 can be modified in various ways depending on the situation. For example, near both ends of the waveguide 212, at the center of the waveguide 212, at 1 / 3 of the distance from one end of the waveguide 212, or any other position. Furthermore, the number of fiber optic retaining boxes 481 and retaining box fixing ropes 482 installed can be modified in various ways depending on the situation. For example, 2, 3, 4, etc. can be installed.

[0193] In addition, such as Figure 26 As shown, an insulating filler 484 may be additionally provided in the fiber optic holding box 481 to prevent movement of the received fiber optic cable 230 and the gap.

[0194] In particular, since the fiber optic retainer 481 occupies only a portion of the lipolysis fat aspiration channel 240 in an optimal size, it is possible to maintain the smooth aspiration of lipolysis fat through the corresponding lipolysis fat aspiration channel 240 without being unnecessarily obstructed by the fiber optic retainer 481.

[0195] With the basic structure established, when the fat removal surgery in the subject's body B begins, the fat removal control terminal 230 operates the high-frequency processing module, the laser processing module, and the lipolysis fat aspiration processing module, for example, to simultaneously perform: the process of applying a high frequency to the waveguide 212, the process of applying a laser to the optical fiber 230, and the process of aspirating lipolysis fat through the lipolysis fat aspiration channel 240. In this case, the optical fiber 230 extending along the waveguide 212 is at risk of a series of deformations (e.g., forming a bent shape) due to various factors (e.g., weight, contact with human tissue).

[0196] In this dangerous situation, the fiber holding box 481 secures the fiber 230 suspended at or near the center of the lipolysis fat aspiration channel 240 and partially covers the corresponding fiber 230, thereby implementing a constraint mechanism to prevent deformation of the fiber 230.

[0197] Of course, under the constraint mechanism of the fiber holding box 481, the fiber 230 can be located at or near the center of the liposuction channel 240, which is least affected by the high frequency from the waveguide 212, so as to easily avoid unnecessary deformation (e.g., forming a curved shape). Thus, even if various factors (e.g., weight, contact with human tissue) are applied to the fiber 230 during the fat removal surgery, direct contact with the waveguide 212 and its corresponding damage are effectively avoided without any deformation.

[0198] Clearly, in another embodiment of this disclosure described above, a fat removal surgeon (e.g., a fat removal medical professional) can normally perform an effective fat removal surgery in which simultaneous high-frequency / laser emission and simultaneous lipolysis and fat aspiration can be performed simultaneously, while easily avoiding serious problems caused by the indiscriminate penetration / propagation of broken fiber optic debris into the body.

[0199] Meanwhile, in another embodiment of the present disclosure described above, an action is taken to additionally coat the tip D of the waveguide 212 inside the human body with an insulating material 250 (e.g., a metal oxide material such as SiO2) to shield the high-frequency output.

[0200] Of course, with the additional coating of insulating material 250 (e.g., metal oxide material such as SiO2), it is possible to fundamentally shield the high frequency output from the tip D of waveguide 212 inside the human body, thereby easily avoiding damage caused by the effects of high frequency when the optical fiber 230 crosses the lateral region d of waveguide 212 and its end is exposed in the forward direction of waveguide 212.

[0201] In addition to the actions described above, in another embodiment of this disclosure, actions can also be taken to place the end of the optical fiber 230 within the lateral region d of the waveguide 212 inside the human body, such as... Figure 25 As shown.

[0202] Of course, in the case where the end of the optical fiber 230 is located within the transverse region d of the waveguide 212 inside the human body, even if a large amount of strong high frequency is output from the tip D of the waveguide 212 inside the human body along the forward direction of the waveguide 212, the optical fiber 230 can easily avoid exposure, thereby easily avoiding damage caused by the influence of high frequency.

[0203] As described above, since each embodiment of this disclosure additionally places / provides an optical fiber support on the liposuction channel of the waveguide, the optical fiber support being made of insulating material and fixed to the waveguide to support the optical fiber in a constrained state, thereby preventing the optical fiber from deforming and contacting the waveguide, in the context of embodiments of this disclosure, even when various factors (e.g., weight, contact with human tissue) are applied to the optical fiber during liposuction, it is possible to effectively avoid direct contact between the optical fiber and the waveguide and its corresponding damage by suppressing / regulating a series of deformations (e.g., bending shape) based on the strong constraint of the optical fiber support. This allows the liposuction surgeon (e.g., a liposuction medical professional) to normally perform an effective liposuction procedure in which simultaneous high-frequency / laser emission and simultaneous liposuction can be performed together, while easily avoiding serious problems caused by the indiscriminate penetration / propagation of broken optical fiber debris into the body.

[0204] This disclosure may be modified as appropriate.

[0205] For example, such as Figure 27 As shown, this disclosure improves the internal structure of the waveguide 212 to 'give the waveguide 212 itself an internal structure for suppressing the deformation of the optical fiber 212 and placing the corresponding optical fiber 212 near the center of the lipolysis fat aspiration channel 240'.

[0206] In this case, such as Figure 27 As shown, the inner insulating tube 212a of the insulating material is installed at the center of the lipolysis fat aspiration channel 240 and covers the fiber 230 to suppress the deformation of the fiber 230. The fixing frame 212b of the insulating material is installed on the outside of the inner insulating tube 212a and protrudes from the inner insulating tube 212a to fix the corresponding inner insulating tube 212a on the lipolysis fat aspiration channel 240. In this case, the fiber 230 is inserted into the insertion hole 212c of the inner insulating tube 212a and is firmly suspended at the center (or near) of the lipolysis fat aspiration channel 240.

[0207] In this case, the internal insulating tube 212a and the fixing frame 212b are made of plastics, glass and ceramics, which are well known to have good current prevention effects.

[0208] Here, since the internal insulating tube 212a and the fixing frame 212b occupy only a portion of the lipolysis fat suction channel 240 in an optimal size, it is possible to maintain the smooth suction of lipolysis fat through the corresponding lipolysis fat suction channel 240 without being unnecessarily obstructed by the internal insulating tube 212a and the fixing frame 212b.

[0209] With the basic structure established, when the fat removal surgery in the subject's body B begins, the fat removal control terminal 230 operates the high-frequency processing module, the laser processing module, and the lipolysis fat aspiration processing module, for example, to simultaneously perform: the process of applying a high frequency to the waveguide 212, the process of applying a laser to the optical fiber 230, and the process of aspirating lipolysis fat through the lipolysis fat aspiration channel 240. In this case, the optical fiber 230 extending along the waveguide 212 is at risk of a series of deformations (e.g., forming a bent shape) due to various factors (e.g., weight, contact with human tissue).

[0210] In this dangerous situation, the internal insulating tube 212a fixes the optical fiber 230 suspended at or near the center of the lipolysis fat aspiration channel 240 and covers the corresponding optical fiber 230, thereby implementing a constraint mechanism to prevent deformation of the optical fiber 230.

[0211] Of course, under the constraint mechanism of the internal insulating tube 212a, the optical fiber 230 can be located at or near the center of the liposuction channel 240, which is least affected by the high frequency from the waveguide 212, so as to easily avoid unnecessary deformation (e.g., forming a curved shape). Thus, even if various factors (e.g., weight, contact with human tissue) are applied to the optical fiber 230 during the fat removal surgery, direct contact with the waveguide 212 and its corresponding damage are effectively avoided without any deformation.

[0212] Clearly, in another embodiment of this disclosure described above, a fat removal surgeon (e.g., a fat removal medical professional) can normally perform an effective fat removal surgery in which simultaneous high-frequency / laser emission and simultaneous lipolysis and fat aspiration can be performed simultaneously, while easily avoiding serious problems caused by the indiscriminate penetration / propagation of broken fiber optic debris into the body.

[0213] Meanwhile, in another embodiment of the present disclosure described above, an action is taken to additionally coat the tip D of the waveguide 212 inside the human body with an insulating material 250 (e.g., a metal oxide material such as SiO2) to shield the high-frequency output.

[0214] Of course, with the additional coating of insulating material 250 (e.g., metal oxide material such as SiO2), it is possible to fundamentally shield the high frequency output from the tip D of waveguide 212 inside the human body, thereby easily avoiding damage caused by the effects of high frequency when the optical fiber 230 crosses the lateral region d of waveguide 212 and its end is exposed in the forward direction of waveguide 212.

[0215] In addition to the actions described above, in another embodiment of this disclosure, actions can be taken to place the end of the optical fiber 230 within the lateral region d of the waveguide 212 inside the human body, such as... Figure 28 As shown.

[0216] Of course, in the case where the end of the optical fiber 230 is located within the transverse region d of the waveguide 212 inside the human body, even if a large amount of strong high frequency is output from the tip D of the waveguide 212 inside the human body along the forward direction of the waveguide 212, the optical fiber 230 can easily avoid exposure, thereby easily avoiding damage caused by the influence of high frequency.

[0217] This disclosure is not limited to any particular field, but can be useful in all fields where high-frequency / laser surgery is required.

[0218] Furthermore, although specific embodiments of this disclosure have been described and illustrated above, it will be apparent to those skilled in the art that this disclosure can be practiced in various modifications.

[0219] These variations should not be understood separately from the scope or technical spirit of this disclosure, and should be understood to fall within the scope of the appended claims.

[0220] [Detailed Description of Key Components]

[0221] 200: Fat Removal Surgical Instruments

[0222] 212: Waveguide

[0223] 212a: Internal insulating tube

[0224] 212b: Fixed frame

[0225] 230: Fiber optic cable

[0226] 240: Liposuction Fat Removal Channel

[0227] 400, 410, 420, 430, 440, 450, 460, 470, 480: Fiber optic support components

[0228] 401, 451: Fiber optic holding packets

[0229] 402: Retaining Packaging Fixing Block

[0230] 411, 461: Fiber optic retainer

[0231] 412: Retaining element fixing block

[0232] 421: Body Block

[0233] 431: Matrix Block

[0234] 432: Fiber Optic Holding Ring

[0235] 441, 481: Fiber Optic Holding Box

[0236] 442: Retaining box fixing block

[0237] 452: Keep the bag secured with ropes

[0238] 462: Retaining element fixing rope

[0239] 471: Rope Roll

[0240] 472: Fiber Optic Fixing Rope

[0241] 482: Retaining box fixing rope

Claims

1. A liposuction apparatus, comprising: a waveguide defining a lipolytic fat suction passage for suctioning lipolytic fat and configured to emit electromagnetic waves during a liposuction surgery; an optical fiber installed on the lipolytic fat suction passage of the waveguide and configured to emit laser light during the liposuction surgery; and a fiber support made of an insulating material and fixed to the waveguide to support the optical fiber in a restrained state so as to prevent deformation of the optical fiber and contact with the waveguide, wherein the fiber support includes: a fiber holding wrap continuously extending along substantially the entire length of the waveguide and completely surrounding the optical fiber to suppress deformation of the optical fiber; and a holding wrap fixing block integrally formed with the fiber holding wrap and protruding from the fiber holding wrap at a plurality of different predetermined positions and mechanically fixed to the waveguide to guide the optical fiber received in the fiber holding wrap to be securely suspended at a predetermined center of the lipolytic fat suction passage.

2. A liposuction apparatus, comprising: a waveguide defining a lipolytic fat suction passage for suctioning lipolytic fat and configured to emit electromagnetic waves during a liposuction surgery; an optical fiber installed on the lipolytic fat suction passage of the waveguide and configured to emit laser light during the liposuction surgery; and a fiber support made of an insulating material and fixed to the waveguide to support the optical fiber in a restrained state so as to prevent deformation of the optical fiber and contact with the waveguide, wherein the fiber support includes: a fiber holding wrap continuously extending along substantially the entire length of the waveguide and completely surrounding the optical fiber to suppress deformation of the optical fiber; and a holding wrap fixing cord connected to the fiber holding wrap and fixed to the waveguide to guide the optical fiber received in the fiber holding wrap to be securely suspended at a predetermined center of the lipolytic fat suction passage.

3. A liposuction apparatus, comprising: a waveguide defining a lipolytic fat suction passage for suctioning lipolytic fat and configured to emit electromagnetic waves during a liposuction surgery; and an optical fiber installed on the lipolytic fat suction passage of the waveguide and configured to emit laser light during the liposuction surgery, wherein an inner insulating tube of an insulating material is installed at a center of the lipolytic fat suction passage, continuously extends along substantially the entire length of the waveguide, and completely surrounds the optical fiber to suppress deformation of the optical fiber, a fixing frame of an insulating material is installed outside the inner insulating tube and protrudes from the inner insulating tube to fix the corresponding inner insulating tube on the lipolytic fat suction passage, and the optical fiber is inserted into the inner insulating tube and securely suspended at a predetermined center of the lipolytic fat suction passage. ​ ​ ​ 4. The liposuction surgical instrument of claim 3, wherein, The inner insulating tube and the fixing frame are made of plastic.

5. The liposuction surgical instrument of any one of claims 1-3, wherein, An insulating material is additionally applied at the tip of the waveguide in the human body to shield the output of the electromagnetic waves.

6. The liposuction surgical instrument of any one of claims 1-3, wherein, The end of the optical fiber is located inside the tip region of the waveguide in the human body.

Images