Book contents
- Frontmatter
- Contents
- PREFACE
- CONTRIBUTORS
- PART ONE ANATOMY AND THE AGING PROCESS
- PART TWO ANESTHESIA AND SEDATION FOR OFFICE COSMETIC PROCEDURES
- PART THREE FILLERS AND NEUROTOXINS
- PART FOUR COSMETIC APPLICATIONS OF LIGHT, RADIOFREQUENCY, AND ULTRASOUND ENERGY
- Chap. 42 TREATMENT OF TELANGIECTASIA, POIKILODERMA, AND FACE AND LEG VEINS
- Chap. 43 VASCULAR LASERS
- Chap. 44 OVERVIEW OF CO2 AND ER:YAG LASERS AND PLASMA DEVICES
- Chap. 45 CONTEMPORARY CO2 LASER RESURFACING
- Chap. 46 ER:YAG
- Chap. 47 PLASMA SKIN REJUVENATION OF THE HANDS
- Chap. 48 NONABLATIVE LASER TISSUE REMODELING: 1,064-, 1,320-, 1,450-, AND 1,540-NM LASER SYSTEMS
- Chap. 49 OVERVIEW OF BROADBAND LIGHT DEVICES
- Chap. 50 TITAN: INDUCING DERMAL CONTRACTION
- Chap. 51 SCITON BROADBAND LIGHT AND ER:YAG MICROPEEL COMBINATION
- Chap. 52 AMINOLEVULINIC ACID PHOTODYNAMIC THERAPY FOR FACIAL REJUVENATION AND ACNE
- Chap. 53 THERMAGE FOR FACE AND BODY
- Chap. 54 LUMENIS ALUMA SKIN TIGHTENING SYSTEM
- Chap. 55 ELLMAN RADIOFREQUENCY DEVICE FOR SKIN TIGHTENING
- Chap. 56 ALMA ACCENT DUAL RADIOFREQUENCY DEVICE FOR TISSUE CONTOURING
- Chap. 57 COMBINED LIGHT AND BIPOLAR RADIOFREQUENCY
- Chap. 58 FRACTIONAL LASERS: GENERAL CONCEPTS
- Chap. 59 PALOMAR LUX 1,540-NM FRACTIONAL LASER
- Chap. 60 FRAXEL 1,550-NM LASER (FRAXEL RE:STORE)
- Chap. 61 1,440-NM FRACTIONAL LASER: CYNOSURE AFFIRM
- Chap. 62 SCITON ER:YAG 2,940-NM FRACTIONAL LASER
- Chap. 63 ALMA PIXEL ER:YAG FRACTIONAL LASER
- Chap. 64 FRACTIONATED CO2 LASER
- Chap. 65 LED PHOTOREJUVENATION DEVICES
- Chap. 66 PHOTOPNEUMATIC THERAPY
- Chap. 67 HAIR REMOVAL: LASER AND BROADBAND LIGHT DEVICES
- Chap. 68 ACNE AND ACNE SCARS: LASER AND LIGHT TREATMENTS
- Chap. 69 FAT AND CELLULITE REDUCTION: GENERAL PRINCIPLES
- Chap. 70 ULTRASHAPE FOCUSED ULTRASOUND FAT REDUCTION DEVICE
- Chap. 71 LIPOSONIX ULTRASOUND DEVICE FOR BODY SCULPTING
- PART FIVE OTHER PROCEDURES
- INDEX
Chap. 58 - FRACTIONAL LASERS: GENERAL CONCEPTS
from PART FOUR - COSMETIC APPLICATIONS OF LIGHT, RADIOFREQUENCY, AND ULTRASOUND ENERGY
Published online by Cambridge University Press: 06 July 2010
- Frontmatter
- Contents
- PREFACE
- CONTRIBUTORS
- PART ONE ANATOMY AND THE AGING PROCESS
- PART TWO ANESTHESIA AND SEDATION FOR OFFICE COSMETIC PROCEDURES
- PART THREE FILLERS AND NEUROTOXINS
- PART FOUR COSMETIC APPLICATIONS OF LIGHT, RADIOFREQUENCY, AND ULTRASOUND ENERGY
- Chap. 42 TREATMENT OF TELANGIECTASIA, POIKILODERMA, AND FACE AND LEG VEINS
- Chap. 43 VASCULAR LASERS
- Chap. 44 OVERVIEW OF CO2 AND ER:YAG LASERS AND PLASMA DEVICES
- Chap. 45 CONTEMPORARY CO2 LASER RESURFACING
- Chap. 46 ER:YAG
- Chap. 47 PLASMA SKIN REJUVENATION OF THE HANDS
- Chap. 48 NONABLATIVE LASER TISSUE REMODELING: 1,064-, 1,320-, 1,450-, AND 1,540-NM LASER SYSTEMS
- Chap. 49 OVERVIEW OF BROADBAND LIGHT DEVICES
- Chap. 50 TITAN: INDUCING DERMAL CONTRACTION
- Chap. 51 SCITON BROADBAND LIGHT AND ER:YAG MICROPEEL COMBINATION
- Chap. 52 AMINOLEVULINIC ACID PHOTODYNAMIC THERAPY FOR FACIAL REJUVENATION AND ACNE
- Chap. 53 THERMAGE FOR FACE AND BODY
- Chap. 54 LUMENIS ALUMA SKIN TIGHTENING SYSTEM
- Chap. 55 ELLMAN RADIOFREQUENCY DEVICE FOR SKIN TIGHTENING
- Chap. 56 ALMA ACCENT DUAL RADIOFREQUENCY DEVICE FOR TISSUE CONTOURING
- Chap. 57 COMBINED LIGHT AND BIPOLAR RADIOFREQUENCY
- Chap. 58 FRACTIONAL LASERS: GENERAL CONCEPTS
- Chap. 59 PALOMAR LUX 1,540-NM FRACTIONAL LASER
- Chap. 60 FRAXEL 1,550-NM LASER (FRAXEL RE:STORE)
- Chap. 61 1,440-NM FRACTIONAL LASER: CYNOSURE AFFIRM
- Chap. 62 SCITON ER:YAG 2,940-NM FRACTIONAL LASER
- Chap. 63 ALMA PIXEL ER:YAG FRACTIONAL LASER
- Chap. 64 FRACTIONATED CO2 LASER
- Chap. 65 LED PHOTOREJUVENATION DEVICES
- Chap. 66 PHOTOPNEUMATIC THERAPY
- Chap. 67 HAIR REMOVAL: LASER AND BROADBAND LIGHT DEVICES
- Chap. 68 ACNE AND ACNE SCARS: LASER AND LIGHT TREATMENTS
- Chap. 69 FAT AND CELLULITE REDUCTION: GENERAL PRINCIPLES
- Chap. 70 ULTRASHAPE FOCUSED ULTRASOUND FAT REDUCTION DEVICE
- Chap. 71 LIPOSONIX ULTRASOUND DEVICE FOR BODY SCULPTING
- PART FIVE OTHER PROCEDURES
- INDEX
Summary
Ablative CO2 laser resurfacing using computerized scanners became widely used in 1995. Results were great, but so were challenges with healing and complications. Soon thereafter, ablative scanned Er:YAG lasers were also introduced as a less aggressive method, but even after significant technological improvements, skin tightening results with Er:YAG lasers, in the opinion of many users, were never of the level achieved by the CO2 lasers. For the past dozen years, ablative resurfacing, particularly with CO2 lasers, has remained the gold standard for treatment of age- and actinic-related rhytids of the facial skin. The combination of technological improvements with the lasers, experience in how to use these lasers, and know-how in managing the treated areas has dramatically reduced the problems that were initially encountered with these modalities. Nevertheless, prolonged healing time, need for intensive follow-up, significant complication risks, a high incidence of residual hypopigmentation, unimpressive results for acne scars, counterindication of use for darker skin types, and limitations of use for the face only have been major stimulants in the search for better alternatives. For a while, it was felt that nonablative resurfacing and skin tightening with lasers, broadband light, or radiofrequency devices would provide the searched for alternative. In spite of significant and ongoing improvements with nonablative technology, including such innovative ideas as the use of skin suction devices to better position the tissues for energy delivery, results of nonablative resurfacing have lagged far behind ablative techniques.
- Type
- Chapter
- Information
- Office-Based Cosmetic Procedures and Techniques , pp. 259 - 264Publisher: Cambridge University PressPrint publication year: 2010