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星期二

王修含醫師演講:應用光熱治療強化皮秒雷射光聲效應的研究 (台灣醫用雷射光電學會)

王修含醫師演講

主題:應用光熱治療強化皮秒雷射光聲效應的研究

Application of photothermal therapy to enhance the photoacoustic effect of picosecond laser

時間:2022.3.12 Saturday 09:15-09:30

地點:華南銀行國際會議中心 (110 台北市信義區松仁路123 號2.3樓)

會議名稱:2022 台灣醫用雷射光電學會 –春季學術研討會

 

 2022 台灣醫用雷射光電學會 –春季學術研討會
一
. 研討會日期:111 年 3 月 12 日(六) ~ 111 年 3 月 13 日(日)
二. 研討會地點:華南銀行國際會議中心 (110 台北市信義區松仁路123 號2.3樓)
三. 主辦單位:台灣醫用雷射光電學會
四
. 協辦單位:台灣整形外科醫學會.台灣皮膚暨美容外科醫學會.台灣白內障及屈光手術醫學會
五
. 教育積分 : 皮膚科積分:13點 整形外科積分:10分(點數:2點) 眼科積分:4.5 

 


親愛的醫師們:
感謝各位醫師對台灣醫用雷射光電學會的認同支持.
111年3月12~13日於華南會議中心( 110台北市信義區松仁路123號2&3樓)
所舉辦之【台灣醫用雷射光電學會-2022春季學術研討會】
報到程序及相關事項如下:


一. 報到
1.兩日報到起始時間均為-8:00 ( 9:00會議準時開始)
因應嚴重特殊傳染性肺炎(COVID-19)防疫.故採「兩日均需報到簽名」.敬請協助配合.謝謝!
2.報到時.請出示「有照片」之身分證 或 健保卡 或駕照 或可以證明身分之證件.至各報到處簽到及領取會議資料.
報到處一、 會員(台灣醫用雷射光電學會)
報到處二、 非會員及協辦會員
( 台灣整形外科醫學會,台灣皮膚暨美容外科醫學會,台灣白內障及屈光手術醫學會)
報到處三、 座長、講師、展場廠商及衛星會議廠商
報到處四、 現場報名暨服務處
3.領取資料袋-[內含識別證&識別證帶、參加證、L型夾、研討會繳費收據、大會手冊、原子筆、大會口罩]
4.需要皮膚科、整外及眼科積分的醫師們.請記得於報到時於作【持續教育積分認定簽到表】之簽名


二.會議
1.防疫期間.採實名制簽到記錄.因此請「全程配戴識別證」.及「全程確實配戴口罩」.
提袋內亦有提供大會口罩.謝謝!
2.會議過程中.請確實佩戴識別證方能進入會議室.再麻煩各位醫師協助配合工作人員確認識別證.謝謝!
3.會議過程中.為了尊重講師及其他參加者.請將手機關靜音.並請協助配合「勿錄影」及「勿拍攝」.
工作人員若有上前勸導.也麻煩醫師們能協助配合.感恩!
4.會議期間因為要維持會議室內適當的空調溫度.避免每個人對溫度的感知差異.建議攜帶外套.而能及時保暖.


三.餐點
1. Coffee Break 時段可於茶點區享用點心、熱飲(咖啡.茶)及瓶裝礦泉水(展覽廳有茶點區標示)
再麻煩各位醫師自行拿取享用喔! (茶點亦可以攜帶至會議室享用)
2. 午餐便當會在上午堂課程結束後.於二樓大廳處提供.可於第一及第二會議室內享用午餐.
 

四.有報名春季研討會尚未繳110年度及111年度年費之醫師會員.記得報到時繳納~才有會員優惠喔!感恩!
 

五.台灣醫用雷射光電學會聯絡方式
聯絡電話:0983275377 EMAI L : newlasermed@gmail.com 聯絡人:王秘書/李秘書
 

提醒您 ~ 防疫期間.會議全程請配戴口罩.謝謝您!
台灣醫用雷射光電學會 秘書處 感謝您!

 

 

 

星期日

鉺雅克雷射(Er:YAG laser)簡介


Hello~我是皮膚科  王修含 醫師,
本站搬家囉!

由於Yahoo奇摩部落格將停止服務,
本文之完整版已搬遷至
 
http://www.skin168.net/2013/10/Er-YAG-laser-instruction.html,謝謝!










鉺雅克雷射(Er:YAG laser)簡介

皮膚科  王修含 醫師

    在皮膚科眾多的雷射之中,鉺雅克雷射(Erbium: YAG laser,亦有人翻譯作「鉺雅各」雷射、「鉺雅鉻」雷射)是最基本的皮膚科治療用雷射,可應用於點痣、除斑、治療痘疤、磨皮、去除皮膚腫瘤……等治療。鉺雅克雷射與二氧化碳雷射(CO2 laser)皆為「剝離式」(ablative)的汽化型雷射,亦即藉由汽化皮膚內部的水份,由表層至深層逐層剝離皮膚組織,達到破壞病灶的目的。

    鉺雅克雷射的名稱由來,是因為這種雷射的光源來自「鉺雅克晶體」(Er:YAG crystal)。鉺雅克晶體(Er:Y3Al5O12) 是以稀土元素「鉺」(Er, erbium),以大約50%的濃度摻入「釔鋁石榴石」(YAG, yttrium aluminium garnet, Y3Al5O12) 晶體形成的一種人造結晶材料。附帶一提,皮膚科另一種「釹雅克雷射」(Nd:YAG laser),例如常用的「C6淨膚雷射」,則是利用摻有釹元素的YAG晶體發出波長1064nm的雷射(「釹雅克雷射」有時會誤寫為「銣雅克雷射」、「銣雅鉻雷射」)。


圖:鉺雅各雷射(Er:YAG laser)晶體成份--「鉺(Er, Erbium)」金屬的外觀
(原圖引用自http://en.wikipedia.org/wiki/File:Erbium-crop.jpg)

    若以波長介於600至800 nm之間的閃光燈趨動鉺雅克晶體,可激發出波長2940 nm的紅外線雷射光,即為鉺雅克雷射。由於原子共振(atomic resonances)的緣故,水分子對於這個波長的能量吸收度甚高,而且一般組織內的水份約佔70%的體積,因此鉺雅克雷射照射至皮膚後,可讓皮膚內的水分子吸收,在達到攝氏100度的溫度後,形成汽化狀態,進而移除該部位的組織。

    除了水分子,鉺雅克雷射的波長也會被氫氧基磷灰石(hydroxyapatite)所吸收,這種物質為人體骨骼中的主要成份之一,因此鉺雅克雷射亦可用於切割骨骼組織或牙齒。除了在皮膚科治療方面具有重要角色,鉺雅克雷射也是牙科的重要雷射工具。

    皮膚科常用的鉺雅克雷射廠牌繁多,以Fotona XS Dualis Er:YAG laser為例,其參數如下
波長(Laser wavelength):     2940 nm
最大脈衝能量(Max. pulse energy):     3000 mJ
最大平均功率(Max. average power):     20 W
最大頻率(Max. frequency):     20 Hz
光點直徑(Spot sizes):  0.5 to 12 mm
脈衝寬度(Pulsewidth):    
      VSP Mode: 100 microseconds
      SP Mode: 300 microseconds
      LP Mode: 600 microseconds
      XLP Mode: 1500 microseconds

Fotona XS Dualis鉺雅克雷射的特點,在於可藉由改變不同的脈衝寬度,調整鉺雅克雷射的穿透深度與產生的熱效應,並可外接點陣式的掃描器,產生飛梭化的能量輸出,可進行鉺雅克波長的飛梭式治療。

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星期六

以Fraxel飛梭雷射強化毛囊再生

賀!生髮新研究發表:以Fraxel飛梭雷射強化毛囊再生之研究論文


 

台大皮膚科與台大醫學工程研究所林頌然教授團隊新發表的研究題目:
以非剝離式飛梭雷射(即台灣俗稱的Fraxel二代飛梭雷射)強化毛囊再生功能
獲刊登於Lasers in Surgery and Medicine期刊。

王修含醫師有幸參與此研究,特將此論文摘要附錄於下:


 

 


Lasers Surg Med. 2015 Apr;47(4):331-41. doi: 10.1002/lsm.22330. Epub 2015 Apr 10.

 


Enhancing hair follicle regeneration by nonablative fractional laser: Assessment of irradiation parameters and tissue response.



 


 



Authors: Yueh‐Feng Wu, Shiou‐Han Wang, Pei‐Shan Wu, Sabrina Mai‐Yi Fan, Hsien‐Yi Chiu, Tsung‐Hua Tsai, Sung‐Jan Lin
作者:吳岳峰, 王修含, 吳佩珊, 范邁儀, 邱顯鎰, 蔡宗樺, 林頌然

 

 



Background and Objective


Identification of methods to enhance anagen entry can be helpful for alopecia. Recently, nonablative laser has been proposed as a potential treatment for alopecia. However, how the laser parameters affect stem cell activity, hair cycles and the associated side effects have not been well characterized. Here we examine the effects of irradiation parameters of 1,550-nm fractional laser on hair cycles.



Study Design/Materials and Methods


The dorsal skin of eight-week-old female C57BL/6 mice with hair follicles in synchronized telogen was shaved and irradiated with a 1,550-nm fractional erbium-glass laser (Fraxel RE:STORE (SR1500) Laser System, Solta Medical, U.S.A.) with varied beam energies (5–35 mJ) and beam densities (500–3500 microthermal zones/cm2). The cutaneous changes were evaluated both grossly and histologically. Hair follicle stem cell activity was detected by BrdU incorporation and changes in gene expression were quantified by real-time PCR.



Results


Direct thermal injury to hair follicles could be observed early after irradiation, especially at higher beam energy. Anagen induction in the irradiated skin showed an all-or-non change. Anagen induction and ulcer formation were affected by the combination of beam energy and density. The lowest beam energy of 5 mJ failed to promote anagen entry at all beam densities tested. As beam energy increased from 10 mJ to 35 mJ, we found a decreasing trend of beam density that could induce anagen entry within 7–9 days with activation of hair follicle stem cells. Beam density above the pro-regeneration density could lead to ulcers and scarring followed by anagen entry in adjacent skin. Analysis of inflammatory cytokines, including TNF-α, IL-1β, and IL-6, revealed that transient moderate inflammation was associated with anagen induction and intense prolonged inflammation preceded ulcer formation.











 

Fig. 1. Laser irradiation. A. The skin on sides of the trunk was firmly stretched and irradiated with

a 1,550nm fractional erbium-glass laser. B. The red rectangle indicated the irradiated area. C.

Schematic diagram of the post-natal synchronized hair cycles on the back of C57BL/6 mice. The

second telogen started at week 7 and persisted for about 5 weeks. Laser irradiation was performed

on week 8. M: morphogenesis; C: catagen; T: telogen; A: anagen.













 
Fig. 2. Laser beam energy and MTZ. Irradiated skin was sampled 1 day after irradiation. A.
Histology. MTZ could be identified by denatured collagen that showed a homogenized bluish
change. H&E staining. Bar¼100 mm. B. There was an increasing trend of the depth of MTZ as
beam energy was elevated. *P<0.05 compared with 5mJ group (N¼5). C. There was an
increasing trend of the width of MTZ as beam energy was elevated. *P<0.05 compared with 5mJ
group (N¼5).












 

Fig. 3. The effect of laser irradiation parameters on anagen induction and ulcer formation. A. Laser

beam energy was increased from 5 to 35mJ and laser beam density was increased from 500 to

3500MTZ/cm2. Yellow color indicated the therapeutic window in which premature anagen was

induced without ulcer formation. B. Quantification of the dynamics of anagen entry at various

irradiation parameters. P<0.05 compared with day 0 (N=5) in each group. 80103mm.

 













 

Fig. 4. Changes of skin and hair cycles. Laser beam energy was 15 mJ. At beam density of 552 MTZ/

cm2, no premature anagen entry was induced. At beam density of 1048MTZ/cm2, irradiated skin

started to turn grayish on day 9 to day 11(blue arrow head), indicating initiation of anagen. No skin

erosion or ulcer was observed. At beam density of 1600MTZ/cm2 and 2010MTZ/cm2, an ulcer

developed in the center of irradiated skin on day 5 and day 7 respectively (red arrow head).

Premature anagen entry surrounding the scar tissue was observed (yellow arrow head).













 

Fig. 5. Histological changes during hair cycle progression. Beam energy was 15mJ and beam

density was 1048MTZ/cm2. A. Comparison of gross skin change and histology. H&E staining.

Bar?100mm. B. Quantification of anagen entry area. * P<0.05 compared with day 0 (N=5). C.

Quantification of hair follicle length. * P<0.05 compared with day 0 (N=5).














 

Fig. 6(A). Dynamic changes of cell proliferation in hair follicles. Beam energy was 15mJ and beam

density was 1048MTZ/cm2. A. Double staining for BrdU and p-cadherin.

 










 

Fig. 6(B). Dynamic changes of cell proliferation in hair follicles. Beam energy was 15mJ and beam

density was 1048MTZ/cm2. A. Double staining for BrdU and p-cadherin. B. Double staining for

BrdU and K15. Secondary hair germ was positive for p-cadherin and HFSC was identified by K15.

From day 1 to day 5, BrdU was positive above bulge (yellow arrow heads). On day 7, BrdU was

positive in secondary hair germ to lower bulge (white arrow heads). On day 9 and day 11, BrdU was positive in bulge (red arrow heads). Many BrdU positive cells could be found in the hair matrix on day 9 to day 13 (green arrow heads). DP: dermal papilla; SG: secondary hair germ; BG: bulge.

Bar=50mm.










 

Fig. 7. Expression of IL-6 (A), TNF-a (B), and IL-1b (C) after laser

irradiation of varied beam densities. Laser beam energy was

15 mJ. At beam density of 552 MTZ/cm2, very slight increase of IL-

6, TNF-a, and IL-1b was detected after irradiation. At beam

density of 1048MTZ/cm2, a moderate increase of IL-6, TNF-a, and

IL-1b was observed from day 1 to day 3. At beam density of

1600MTZ/cm2, prolonged and higher levels of IL-6, TNF-a, and

IL-1b were observed.


 




Conclusion


To avoid side effects of hair follicle injury and scarring, appropriate combination of beam energy and density is required. Parameters outside the therapeutic window can result in either no anagen promotion or ulcer formation.



Keywords:




  • alopecia;

  • 1,550-nm erbium glass laser;

  • hair follicle regeneration;

  • stem cell;

  • inflammation






Lasers Surg. Med. 47:331–341, 2015. © 2015 Wiley Periodicals, Inc.





 


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星期四

Papers on Pulsed dye laser

  




Prospective comparison treatment of 595-nm pulsed-dye lasers for virgin port-wine stain.



Yu W, Ma G, Qiu Y, Chen H, Jin Y, Yang X, Chang L, Wang T, Hu X, Li W, Lin X.


Br J Dermatol. 2015 Mar;172(3):684-91. doi: 10.1111/bjd.13356. Epub 2015 Jan 28.




PMID:
25130205






2.


Superficial hemangioma: pulsed dye laser versus wait-and-see.



Kessels JP, Hamers ET, Ostertag JU.


Dermatol Surg. 2013 Mar;39(3 Pt 1):414-21. doi: 10.1111/dsu.12081. Epub 2012 Dec 26.




PMID:
23279058






3.


Accelerated resolution of laser-induced bruising with topical 20% arnica: a rater-blinded randomized controlled trial.



Leu S, Havey J, White LE, Martin N, Yoo SS, Rademaker AW, Alam M.


Br J Dermatol. 2010 Sep;163(3):557-63. doi: 10.1111/j.1365-2133.2010.09813.x.




PMID:
20412090






4.


Using the ultra-long pulse width pulsed dye laser and elliptical spot to treat resistant nasal telangiectasia.



Madan V, Ferguson J.


Lasers Med Sci. 2010 Jan;25(1):151-4. doi: 10.1007/s10103-009-0713-0. Epub 2009 Jul 28.




PMID:
19636662






5.


Clinical effect of a single pulsed dye laser treatment of fresh surgical scars: randomized controlled trial.



Alam M, Pon K, Van Laborde S, Kaminer MS, Arndt KA, Dover JS.


Dermatol Surg. 2006 Jan;32(1):21-5.




PMID:
16393594






6.


Granuloma faciale treated with the pulsed-dye laser: a case series.



Cheung ST, Lanigan SW.


Clin Exp Dermatol. 2005 Jul;30(4):373-5.




PMID:
15953073






7.


Treatment of hemorrhagic lymphatic malformation of the tongue with a pulsed-dye laser.



Wang LC, Krunic AL, Medenica MM, Soltani K, Busbey S.


J Am Acad Dermatol. 2005 Jun;52(6):1088-90. Erratum in: J Am Acad Dermatol. 2005 Sep;53(3):496.




PMID:
15928635






8.


Does pulse stacking improve the results of treatment with variable-pulse pulsed-dye lasers?



Rohrer TE, Chatrath V, Iyengar V.


Dermatol Surg. 2004 Feb;30(2 Pt 1):163-7; discussion 167.




PMID:
14756644





 


 http://www.ncbi.nlm.nih.gov/pubmed/12828690


Dermatol Surg. 2003 Jul;29(7):681-4; discussion 685.
Treatment of facial telangiectasia with variable-pulse high-fluence pulsed-dye laser: comparison of efficacy with fluences immediately above and below the purpura threshold.
Alam M1, Dover JS, Arndt KA.
Author information
Abstract
BACKGROUND:


: Pulsed-dye laser treatment has been shown to be highly effective for the treatment of facial telangiectasia. Posttreatment purpura after such treatment has limited patient acceptance of the procedure.
OBJECTIVE:


: To determine whether purpura-free treatment with recently introduced variable-pulsed pulsed-dye lasers can effectively reduce facial telangiectasia.
METHODS:


: This was a prospective, randomized, controlled, nonblinded trial. Eleven patients received variable-pulse pulsed-dye laser treatment with and without induction of purpura. Telangiectasia were graded on a "telangiectasia density scale," on which a 1 signified extremely fine, sparsely distributed telangiectasia, and 5 referred to thick, ropelike telangiectasia covering the affected area. For each subject, two areas on either side of the facial midline with equivalent telangiectasia density ratings were randomized to the purpura and purpura-free treatment groups, respectively. All treatments used a 7-mm spot size and a 10-ms pulse duration. The fluence associated with the purpura threshold for each patient was determined in test areas. Purpura-free treatment entailed a fluence 1.0 J/cm2 less than the purpura threshold, and purpura-level treatment entailed a fluence 0.5 J/cm2 greater than the threshold.
RESULTS:


: Six weeks after a single purpura-free treatment, mean telangiectasia ratings were reduced from 2.7 to 2.4. Purpura-level treatments resulted in a decrease to 1.4 from the same baseline. Thicker, denser telangiectasia appeared to benefit more from purpura-level treatment (a mean telangiectasia density scale reduction of 1.7) than finer, sparser telangiectasia (a mean reduction of 0.8). In 81% of cases, both investigators and patients rated the side treated with purpura as undergoing a greater reduction in telangiectasia density.
CONCLUSION:


: Although facial telangiectasia do improve after a single purpura-free treatment with the variable-pulse pulsed-dye laser, they improve more after purpura is induced. Purpura-free and purpura-level treatments may be close to equivalent for treating fine telangiectasia, but purpura-level treatments have a distinct advantage for treating thicker telangiectasia. Significantly, the variable-pulse pulsed-dye laser offers patients the option of effective treatment of some telangiectasia without bruising.


 


 



http://www.ncbi.nlm.nih.gov/pubmed/14756644


Dermatol Surg. 2004 Feb;30(2 Pt 1):163-7; discussion 167.
Does pulse stacking improve the results of treatment with variable-pulse pulsed-dye lasers?
Rohrer TE1, Chatrath V, Iyengar V.
Author information
Abstract
BACKGROUND:


It has been suggested that multiple stacked pulses of lower fluence may have a similar effect on targets as a single pulse of higher fluence. When treating vascular lesions, increasing the fluence beyond a certain point will increase the risk of purpura given a constant pulse duration. Stacking pulses of lower fluence may have the advantage of heating vessels to a critical temperature without creating purpura.
OBJECTIVE:


To determine whether stacking low-fluence pulses of a variable-pulse pulsed-dye laser would improve clinical results without significantly increasing side and adverse effects.
METHODS:


Twenty-five patients between the ages of 18 and 65 years with facial telangiectasia and skin types I-IV were enrolled in the study. For each subject, the cheek or nasal ala areas on either side of the facial midline with similar telangiectasia density ratings were randomized to single pulse and multiple stacked pulse groups. One side of the cheek or nasal ala was treated with single nonoverlapping pulses with the Candela Vbeam 595-nm pulsed-dye laser. The opposite side of the cheek or nose was treated with the same parameters but with three or four pulses stacked on top of each other at a 1.5-Hz repetition rate. Patients were asked to rate the pain of the procedure on each side on a 0 to 3 scale. Investigators rated the erythema and edema after the procedure as well as vessel clearing and overall telangiectasia density scale at 1 and 6 weeks after the procedure.
RESULTS:


Twenty-three patients completed the study. The mean pain rating was 1.58 for the pulse stacked side and 1.38 for the single-pass side. The mean erythema score after the procedure was 1.17 for the pulsed stacked side and 1.09 for the single pulsed side. The mean vessel clearing 1 week after the treatment was 74.3% for the pulse stacked side and 58.5% for the single pulsed side. The mean vessel clearing 6 weeks after the treatment was 87.6% for the pulse stacked side and 67.4% for the single pulsed side. The mean telangiectasia density scale score before treatment was 2.67 for the pulse stacked side and 2.59 for the single pulsed side. At 1 week after treatment, the mean telangiectasia density scale score was 1.06 for the pulsed stacked side and 1.5 for the single pulsed side. At 6 weeks after treatment, the mean telangiectasia density scale score was 0.72 for the pulsed stacked side and 1.30 for the single pulsed side. No patients experienced purpura in either group, and there were no cases of hyperpigmentation, hypopigmentation, or scar formation. One patient experienced significant edema on the side of the cheeks treated with pulse stacking.
CONCLUSIONS:


Treating superficial facial telangiectasia with a pulse stacking technique may improve clinical results without significantly increasing adverse effects.


PMID:
14756644
[PubMed - indexed for MEDLINE]


 


 


【演講公告】臺灣皮膚科醫學會-102 年度美容醫學教育訓練課程-光電治療課程-北區第三場

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本文之完整版已搬遷至「
臺灣皮膚科醫學會-102年美容醫學教育訓練課程」:



http://www.skin168.net/2013/10/102.html,謝謝




臺灣皮膚科醫學會


【102 年度美容醫學教育訓練課程-北區第三場】


光電治療課程


上課日期:102年10月26日


上課地點:台北醫學大學附設醫院11F 會議室


課 程 表


時間


主題


講師


08:50~09:10


報到/登記


09:10~10:00


電波拉皮之原理及應用


王修含皮膚科 王修含醫師


10:00~10:20


Coffee break


 


10:20~11:10


光波、雙極、三極拉皮和超音波拉皮之應用與實務


鄭國良皮膚科 鄭國良醫師


11:10~12:00


染料雷射之原理及應用


張英睿皮膚科 張英睿醫師


12:00~13:00


午餐及休息


 


13:00~13:50


體外溶脂


盧靜怡皮膚科 盧靜怡醫師


13:50~14:40


雷射術後護理


台大雲林醫院 邱品齊醫師


14:40~15:00


Coffee break


 


15:00~15:50


常見藥妝成份


台大雲林醫院 邱品齊醫師


15:50~16:00


考前預備


 


16:00~17:00


測驗


 


 



臺灣皮膚科醫學會


【102年度美容醫學教育訓練課程-北區第二場】


 


一、  主辦單位:台北醫學大學


二、  指導單位:臺灣皮膚科醫學會


三、  上課地點:台北醫學大學附設醫院11F 會議室


停車資訊(恕不提供停車優惠)


四、  上課日期:102年10/5、10/12、10/19、10/26、11/2共五場次,最後一場(11/2)有半天為實機操作課程


五、  課程內容:課程表請見附件;主辦單位保留本課程講題及講師異動之權利。


六、  報名方式:網路報名。


報名人數若未達預定基本開課人數20人,本會將取消該次課程 (於開課二週前通知),已報名完成者將另行安排場次或退還所有費用。


七、  課程費用:可擇一場次報名,每場次課程新臺幣玖仟元整,實機操作課程新臺幣壹萬貳仟元整;五場次課程一次報名新臺幣肆萬元整。


(含講師費、場地費、講義、資料袋、餐費-午餐&Coffee Break)


*因故不克參加要求退費者,請來電通知及索取退費申請表,退費規則如下:


開課日前21日(含)以上,申請退費者,退90%研習費


開課日前11~20日,申請退費者,退80%研習費


開課日前 4~10日,申請退費者,退70%研習費


開課日前1~3日,申請退費者,退30%研習費


開課後恕不退費


各項退費程序說明及規定,敬請參閱「退費申請表」。


八、  學分:美容醫學「光電治療」繼續教育時數每場次六小時。


九、  學員請攜帶身份證或健保卡報到及簽退。


十、  每場次課程結束後需通過測驗始能取得積分。


本課程非定期辦理,不開放學員補課、補考、保留時數。




星期六

演講公告:雷射採購初探--醫美雷射應用之過去與未來


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演講公告:醫學美容雷射應用之過去與未來」:
http://www.skin168.net/2013/10/blog-post_28.html,謝謝!




研討會名稱:第九次雷射、脈衝光教育訓練課程
講師:王修含醫師   王修含皮膚科診所院長
日期:2013年7月14日(週日)
時間:16:10~17:10
講題:雷射採購初探:醫美雷射應用之過去與未來
主辦單位:中華民國美容醫學醫學會

中華民國美容醫學醫學會
第九梯次雷射、脈衝光教育訓練課程
近 年來美容醫學更是發展出各式不同波長的雷射光來因應各種不同的肌膚問題,依本會教育目標與理念,本理監事會與衛生署積極爭取下,本會2004 年7 月成功取得行政院衛生署同意,針對雷射脈衝光的認識與應用、皮膚組織學,生理學及病理學等基本概念、雷射術前術後探討與實務、醫學倫理等方向開設「雷射、 脈衝光等教育課程」。本會多方邀請醫學中心級講師、雷射脈衝光業界龍頭,讓本會會員接受課程訓練時,可更貼切醫美市場實務需求,讓參與本訓練之會員於理論 課程訓練外,透過實際操作課程內容,了解其操作技巧與各適應症的處理方式。

一、主辦單位:中華民國美容醫學醫學會
二、上課地點:台北市延平南路127 號文化大學大新館
三、上課日期:2013 年07 月07 日起(每星期日)
六、停 車 費:自付
七、學 分:40 分
九、上課地點:台北市延平南路127 號文化大學大新館B1 圓型演講廳02-2331-8668
捷運板南線-西門捷運站3 號出口,旁邊設有告示看板