Beta Fulltext view is in preview — article structure may vary. Browse all articles
Contents
Open Access Journal of Gynecology Research Article 15 min read

Feasibility, Safety and Efficacy of Fractional Micro-Ablative CO2 Vaginal (FxCO2) Laser Treatment and Platelet-Rich Plasma (PRP) in Women with Urge Urinary Incontinence

Behnia-Willison F*, Nguyen TTT, Krneta S, McPhail C, Bahadori S, Willison N, Aryan P, Lam A and Paraiso MFR
* Corresponding author
ISSN: 2474-9230  10.23880/oajg-16000213  Received: March 10, 2021  Published: April 05, 2021
  views
 36 references
 2 tables
PDF
Keywords
Urge Urinary Incontinence Fractional Carbon Dioxide Vaginal Laser Therapy Platelet Rich Plasma Bladder Function Urinary Incontinence Urinary Urgency
Abstract

Background: Urge urinary incontinence (UUI) is the involuntary loss of urine associated with urgency, frequency, and nocturia. Current management involves behavioural therapies, which can be time-consuming and costly to the patient, and medications, which can have side effects. Fractional micro-ablative CO2 laser (FxCO2) and platelet-rich plasma (PRP) are two novel approaches that may offer symptomatic relief for women with UUI. Objectives: To evaluate the feasibility, safety, and efficacy of FxCO2 vaginal laser treatment and PRP in women with refractory UUI with urinary function and sexual function as secondary outcome measures. Study Design: This was a single-centre prospective cohort study. Participants with UUI underwent three treatments of transvaginal FxCO2 laser and PRP, administered at 4–6-week intervals. Outcomes were assessed with the Australian Pelvic Floor Questionnaire (APFQ) at baseline (T1), 3-6 months (T2), and ≥12 months follow-up (T3). The 12-month follow up data were obtained by face-to-face visit or follow up telephone call. The primary outcome was change in UUI symptoms. Secondary outcomes were related to overall bladder function and sexual function. Outcomes were assessed using Wilcoxon signed-rank test. Results: In this study, 121 participants underwent treatment with FxCO2 laser and PRP for UUI. There was a significant reduction in the average severity of all self-reported measures of primary and secondary outcomes from T1 to T2 (p<0.02). Improvements in all bladder function outcomes remained statistically at T3 (p<0.04). There were no adverse events in this cohort. Conclusion: This study suggests that FxCO2 laser with PRP appears to be a safe, feasible, and effective treatment for UUI, bladder function, and sexual function. FxCO2 laser and PRP may have a role as an alternative therapy for severe and refractory UUI.

Condensation

Combined fractional micro-ablative CO2 vaginal laser therapy and platelet-rich plasma is a safe and effective treatment of urge urinary incontinence in women with moderate to severe vaginal atrophy.

Introduction

Urge urinary incontinence (UUI) is involuntary leakage of urine accompanied or immediately preceded by urgency. Women who experience UUI may also complain of frequency and nocturia, symptoms which are attributed to detrusor muscle over activity [1]. Women suffering from troubling UUI may avoid seeking treatment due to embarrassment, misunderstanding of the cause and treatment of urinary incontinence (UI), or fear of social exclusion. Therefore, the prevalence of up to 45% of UUI in Australian women may be underestimated [2, 3]. The estimated national yearly cost of UI in Australia is upwards of $1.27 billion [4]. Behavioural therapy, weight loss, pelvic floor exercises, and bladder training are first line therapy for UUI. Second line therapy includes medical treatments such as vaginal estrogen, antimuscarinics, and beta-agonists. Third line treatment includes percutaneous tibial nerve stimulation (PTNS), cystoscopic intra-detrusor injections of botulinum toxin and sacral neuromodulation [5].

The high prevalence of urinary incontinence as well as the costs and side-effects associated with current treatments has opened the door to more novel approaches [6], which include FxCO2 laser and PRP.

Study Aim

This study hypothesises that women with UUI who are treated with FxCO2 laser and PRP will exhibit improvements in bothersome urinary symptoms as well as other secondary outcomes.

Material and Methods

This was a prospective cohort study of women with moderate to severe UUI. They were treated with FxCO2 laser (MonaLisa Touch, DEKA) and PRP (RegenLab). The Australian Pelvic Floor Questionnaire (APFQ) was used for quality-of-life assessment, which has been demonstrated to have good discriminant validity, convergent validity, and internal consistency. APFQ was completed at baseline (T1), at 3-6-month follow-up (T2), and at 12- month follow-up (T3). Subjective verbal scales were used to assess the degree of pain associated with PRP injections and laser treatment.

Participants: Inclusion criteria are patients with moderate to severe UUI with or without stress incontinence or prolapse. Exclusion criteria included urinary tract infection, current urogenital tract cancer, pregnancy, untreated cervical dysplasia, abnormal uterine bleeding, active genital herpes, and immunosuppressed patients.

Written informed consent was obtained and the study was approved by Bellberry Ethics Committee, Adelaide, South Australia, in adherence to the Declaration of Helsinki (Application ID: 2016-04-293).

Study Protocol

FxCO2 laser: Participants were treated with FxCO2 laser using the following settings: power 40 watts, dwell time 1,000, spacing 700, stack 3, and double pulse. Each patient received FxCO2 laser treatments with a 360-degree probe. An additional treatment with a 90° vaginal probe at the level of the bladder neck, then rotated and withdrawn in order to provide treatment of the anterior lower one-third and vestibule of the vagina as per Behnia-Willison, et al. [7, 8, 9, 10].

Platelet-rich plasma (PRP): Patient had 10mLs of blood drawn and centrifuged on site. The PRP from the 10mLs syringe was injected to the anterior lower one-third of the vaginal subepithelial and peri-urethral areas and rolled-up 28 ×11cm PRP- impregnated gauze was inserted into vagina for 2 hours.

Treatments were delivered at intervals of four to six weeks. Patients were advised to avoid vaginal intercourse for five days after each laser application to prevent infection and pain.

Data Collection

Demographics were gathered from patients at the time of their first consultation. Data assessing aspects of UUI and related symptoms were initially gathered from patients using the APFQ and entered into an electronic medical record that was used for reference throughout the study.

Statistical Analysis

Descriptive statistics were used to describe the clinical characteristics of the patient population and study outcomes were assessed based on responses to the APFQ at T1, T2, and T3. The responses were entered into a private database by members of the research team and later analysed using SPSS. The responses to each question at the 3 time-points were described using the median and interquartile range. Sign- rank test was used to test for differences in paired medians for each question between T1 and T2, and T1 and T3. A Bonferroni correction was applied to account for multiple comparisons, with statistical significance assessed using a 2-sided Type 1 error rate of alpha=0.002.

Results

This study involved 121 women with a mean age of 56.23 years (±14.26) and mean BMI of 27.51. Of the women, 90% (109/121) were multiparous, 71.7% (86/121) were postmenopausal, and 50% (57/114) used some variety of oestrogen treatment. Table 1 of the appendix summarises the demographics of the cohort.

Figure 1 (Appendix) shows changes in UUI symptoms. All participants experienced frequent or daily UUI symptoms at baseline. There were 89 women who were followed-up at 3 months (T2) and 58 at 12-24 months (T3). At T2, 80.9% (72 of 89) reported no or occasional UUI symptoms. These changes were also reflected in the median score reduction for UUI from pre-treatment score of 2 to post-treatment score of 1 as seen in Table 2 (Appendix). At T3 67.2% of women reported no or occasional UUI symptoms. Of the remaining 32.8%, 24.1% reported frequent and 8.6% reported daily UUI symptoms. The median post-treatment score of 1 at T2 remained the same at T3 as seen in Table 3 (Appendix).

Figure 2 (Appendix) shows 88% of the patients with moderate to severe UUI experienced symptomatic improvement, reporting ‘mildly affected’ or ‘normal’ bladder function. At T1 69.3% of women reported normal or mildly affected bladder function, with the remaining 30.7% reporting moderately and severely affected bladder function. At T2 96.4% of women reported normal or mildly affected bladder function, 3.6% reported moderately affected, and zero reported having severely affected bladder function. At T3

95.6% of women reported normal or mildly affected bladder function, 4.4% reported moderately affected bladder function, and zero reported severely affected bladder function.

There were self-reported improvements in 13 out of 15 bladder function parameters at T2 and T3 as seen in Figure 3 (Appendix).

Discussion

To the best of our knowledge, this is the first prospective cohort study to investigate FxCO2 laser and PRP as a treatment for UUI in women with moderate to severe vaginal atrophy as FxCO2 laser is dependent on water content of tissue. Therefore, adjuvant treatment with PRP was aimed to correct moderate to severe vaginal atrophy so that FxCO2 laser can be more effective.

FxCO2 laser is a potential non-surgical treatment for mild to moderate vaginal atrophy and various gynaecological conditions [7, 8, 9, 10, 11, 12]. The subclinical thermal tissue effect from the laser beam induces dermal fibroblasts to initiate an inflammatory healing cascade, stimulating de novo collagen and elastin synthesis, resulting in a thicker vaginal epithelium with larger diameter, glycogen-rich epithelial cells [7, 8, 9, 10]. There has not been a correlation found between non-ionising lasers such as those used for FxCO2 laser and an increased rate of malignancy [13].

Promising results have arisen from investigations into the use of FxCO2 laser in the treatment of stress urinary incontinence (SUI) [14, 15, 16, 17, 18], mixed urinary incontinence (MUI) [15, 17], vulvovaginal atrophy (VVA) [19] genitourinary syndrome of menopause (GSM) [18, 20, 21, 22, 23, 24, 25, 26], and overactive bladder (OAB) [27]. Salvatore et al. determined FxCO2 laser to be safe in remodelling tissue properties of many body regions and effective in promoting the growth of new collagen and elastic fibres [28]. They also concluded the technique to be effective in reducing symptoms of UUI in a small sample of patients with vaginal atrophy [29].

PRP treatment involves injecting autologous plasma containing concentrated platelets and growth factors to promote growth and repair damaged tissue [8, 9, 29, 30, 31, 32, 33]. PRP acts as a scaffold, stimulates angiogenesis, fibroblast synthesis, and collagen formation. Furthermore, PRP reduces healing time by 40-50% by inducing migration, proliferation and differentiation of stem cells and reducing inflammation [33]. PRP is associated with reduced treatment burden in conditions such as SUI [7, 8, 34, 35], GSM [32], lichen sclerosus [30] and other pelvic floor disorders [9] and could be appropriate for women who are unable to use current mainstream treatment options.

Gaspar et al. noted PRP to be an effective treatment for symptoms of VVA in combination with FxCO2 laser treatment through both subjective and objective measures [32]. Of the 92 participants, 40 received three FxCO2 laser and PRP treatments and 52 received only PRP injections. All women continued with pelvic floor exercises. There was a significant difference between the groups, with the former group reporting a 62.5% decrease in dyspareunia when compared to 15.4% in the latter group. The histological findings also showed a dramatic difference between the two groups, with a significant increase in the thickness of vaginal epithelium, fibroblast activity, and fibrin concentration within the cellular matrix of the former group [32].

A prospective observational study by Behnia-Willison, et al. explored FxCO2 laser and PRP for the treatment of SUI in 62 women [7, 8]. Each patient received three FxCO2 laser and PRP treatments with 4-6-week intervals. Patient outcomes were measured using the Australian Pelvic Floor Questionnaire (APFQ) at three points in time; baseline, 3-month follow-up, and 12-month follow-up. The 3-month follow-up showed a 66% improvement in incontinence symptoms and the improvement was 62% by the 12-month follow-up suggesting a need for annual booster treatments [7].

Laser
Author, year
[Reference]
LaserConditionNoStudy typeFollow-up
(months)
AssessmentsMain findings
Behnia-
Willison, et al.
[7]
Microablative
fractional
CO laser
2
(MonaLisa)
SUI58Prospective
observational
APFQ80% and 75% of patients
reported improvement
in SUI symptoms at 3-6
-month and 12–24-month
follow-up respectively
(p<0.01). Statistically
significant improvements
were seen in all secondary
outcomes.
Najafian, et al.
[14]
IDS Fractional
CO laser
2
SUI55Clinical trialSUI severity,
Visual analogue
scale
Reduction of SUI severity
score from 8.56±0.62 at
baseline to 7.87±0.93 at
6-month follow-up
(p<0.0001).
Menachem, et
al. [15]
Ablative vaginal
pixel CO laser
2
(FemiLift CO2
laser-Alma
Lasers)
SUI133Retrospective
multicentre
evaluation
03-DecPelvic floor
distress inventory
(PFDI), visual
analogue scale
(VAS), VVA
symptoms
questionnaires.
80.6% reported not using
pads following treatment
compared to 47.8% prior
to treatment. Over 97%
of patients reported no or
mild urgency compared to
the initial results of 7.9%
and 5.3% respectively.
Fistonic, et al.
[16]
Non-ablative
Vaginal
Erbium:Yag
(Fotona)
SUI39Labelled,
prospective,
single centre
pilot study
6International
Consultation on
Incontinence
Questionnaire-
Urinary
Incontinence
Short Form (ICIQ-
UI SF), Q tip test,
Short form 12
questionnaire
(SF-12q),
perineometry
Post-treatment evaluation
showed significant
improvement (p< 0.05) in
all the domains tested.
Franic, et al.
[17]
Fractional
vaginal pixel
CO laser
2
(FemiLift CO
2
laser-Alma
Lasers)
SUI85Prospective
twocentre
study
6ICIQ-UI SF, cough
test, VAS.
Mean ICIQ‐UI‐SF score
reduced from 12.0
(baseline), 7.0, (post first
treatment), and 3.5 (post-
second treatment) (P =
0.001). ICIQ UI SF score
was 5 at 6-month follow-
up. SUI symptoms were
improved with 53.5%
of women experiencing
moderate to severe SUI
symptoms at 6-month
follow-up compared to
73% at baseline, 2.4% of
which experienced very
severe symptoms.
Perino, et al.
[27]
Microablative
fractional
CO laser
2
(MonaLisa)
OAB30Prospective
observational
1VHI, VVA
symptoms on
VAS, micturition
diary, OAB
questionnaire
(OAB-q)
Improvements at T1 (1
month) were seen in VVA
symptoms, VHI score,
micturition diary, urge
episodes, and OAB-q
(p<0.0001)
Behnia-
Willison, et al.
[10]
Microablative
fractional
CO laser
2
(MonaLisa)
GSM102Prospective
observational
APFQ, GSM
symptoms
84% of patients reported
significant improvements
in GSM symptoms.
Secondary outcomes
showed statistically
significant improvement
(p>0.003).
Sokol, et al.
[26]
Microablative
fractional
CO laser
2
(MonaLisa)
GSM30Prospective
observational
12VAS for dryness,
pain, itching
or burning,
dyspareunia,
dysuria. VHIS,
FSFI, SF-12q
Significant improvements
were seen in VAS for all
symptoms as well as in the
VHI and FSFI (p<0.001).
92% ‘satisfied’ or ‘very
satisfied’ with treatment
outcomes.
Isaza, et al.
[18]
Microablative
fractional
CO laser
2
(MonaLisa)
GSM161Prospective
observational
361-h pad test,
ICIQ-UI SF
Significant improvement
in ICIQ-UI SF scores and
1-h pad weight test at 12
months (both p<0.001), 24
months (both p<0.001) and
36 months (both p<0.001).
Improvements remained
statistically significant at
36-month follow-up.

Table 1: Summary of the critical literature survey for the specific application of PRP and FxCO2 laser in conditions such as SUI,

Athanasiou, et
al. [23]
Microablative
fractional
CO laser
2
(MonaLisa)
GSM94Retrospective
observational
12-JanVAS, ICIQ-UI SF,
International
Consultation on
Incontinence
Questionnaires-
Female Urinary
Tract Symptoms
(ICIQ-FLUTS),
Urogenital
Distress
Inventory-6, FSFI
There was significant
improvement in symptoms
severity at 1 month post
final treat. Dyspareunia
and dryness decreased
from 9 and 8 at baseline
to 0 for both symptoms
(P<0.001) FSFI and
frequency of sexual
intercourse increased from
10.8 and 1 at baseline
to 27.8 and 4 (P<0.001).
These benefits
remained unchanged at
12-month follow-up.
Paraiso, et al.
[24]
Microablative
fractional
CO laser
2
(MonaLisa) vs
vaginal oestriol
cream
GSM69RCT6VAS vaginal
dryness score,
patient global
impression of
improvement
(PGI-I)
As per PGI-I, 85.8% of
laser participants rated
their improvement as
“better or much better”
and 78.5% reported being
either “satisfied or very
satisfied” compared to 70%
and 73.3% in the estrogen
group.
Pitsouni, et al.
[22]
Microablative
fractional
CO laser
2
(MonaLisa)
GSM53Prospective
observational
3VHI, FSFI,vaginal
maturity value
(VMV),ICIQ-
FLUTS, ICIQ-UI
SF, Urogenital
Distress
Inventory (UDI-
6), King’s Health
Questionnaire
(KHQ).
VMV, VHIS, and FSFI
increased significantly.
Significant improvement
was seen in symptoms
of dyspareunia, dryness,
burning, itching, dysuria,
frequency, urgency,
urgency incontinence,
stress incontinence and
scores on the ICIQ-FLUTS,
ICIQ-UI SF, UDI-6 and KHQ
at 3 -month follow up.
Cruz, et al.
[19]
Microablative
fractional
CO laser
2
(MonaLisa) vs
vaginal oestriol
vs Microablative
fractional
CO laser
2
(MonaLisa) and
vaginal oestriol
VVA45RCT5Vaginal health
index (VHI), VAS,
female sexual
function index
(FSFI)
Significant improvements
were seen in VHI in all
study groups (laser,
vaginal oestriol, and laser
with vaginal oestriol).
Improvements in dryness,
dyspareunia, and burning
were seen in laser plus
oestriol and laser only
(p<0.009). Laser plus
oestriol had significant
improvement in FSFI score
(p<0.004).
Salvatore, et
al. [28]
Microablative
fractional
CO laser
2
(MonaLisa)
VVA, vaginal
laxity, UI
38Prospective
observational
1VAS for dryness,
vaginal laxity,
itching or
burning, and
dyspareunia,
histological
examination
Reduction in mean VAS
values for dysuria (1.3 to
0.4), urinary urgency (2.6
to 0.8), UI (1.6 to 0.7), and
SUI (3.1 to 1.3) at baseline
and after 3 sessions
respectively. Histology
showed growth of new
collagen and elastic fibres.
Salvatore, et
al. [29]
Microablative
fractional
CO laser
2
(MonaLisa)
VVA50Prospective
observational
3FSFI, SF-12qVVA symptoms -vaginal
dryness, vaginal
burning, vaginal itching,
dyspareunia, dysuria-
improved at 12-week
follow-up p < 0.001). VHIS
increased from 13.1± 2.5
(baseline) to. 23.1 ± 1.9
(12-week follow-up) (p
< 0.001). Significant
improvement in quality of
life(p<0.001).
PRP
Author, year
[Reference]
Combined
therapy
ConditionNoStudy typeFollow-up
(months)
AssessmentsMain findings
Behnia-
Willison, et al.
[30]
NilLichen
Sclerosus
28Prospective
observational
Dec-24Verbal interview
on symptom
severity,
colposcopy
On colposcopy at 12
months, lesions were not
seen in 8, lesions were
smaller in 17, and lesions
were the same in 3 women.
15 women experienced
no associated symptoms
and 13 had intermittent
symptoms including itch,
pain, dyspareunia.
Laser and PRP
Author, year
[Reference]
LaserConditionNoStudy typeFollow-up
(months)
AssessmentsMain findings
Behnia-
Willison, et al.
[8]
Microablative
fractional
CO laser
2
(MonaLisa)
SUI62Prospective
observational
Dec-24APFQ66% (41/62) women
reported improved SUI
symptoms at 3–6-month
follow-up (p<0.001). Of
the women reached for
12-month follow-up,
62% (23/37) reported
maintained improvements
in SUI symptoms.
Gaspar, et al.
[32]
Microablative
fractional
CO laser
2
(MonaLisa)
VVA92Case control3Sexual health,
histology
Decreased discomfort
during sex and
improvement in vaginal
mucous histology.

Table 2: Summary of the critical literature survey for the specific application of PRP and FxCO2 laser in conditions such as SUI,

This study suggests that FxCO2 laser is a potential beneficial treatment for UUI and related bladder issues in women. Following treatment with FxCO2 laser and PRP, patients reported short-term improvements in self- reported measures of bladder function, urge incontinence, frequency, nocturia, urgency, pad use, UTI, daily activities effects, bothersome bladder problems, and limiting fluid. All symptom improvements remained statistically significant at the long-term (≥12-month) follow-up. These findings emerge in the context of a need for alternatives to conventional treatments for UUI, which may be costly, have side effects, and be sometimes unsuitable for patients. As UUI affects up 45% of women [1], it is important that patients are provided with options. A trend towards re- emergence of some symptoms at ≥12-month follow–up suggests the need for a booster treatment to maintain long-term symptomatic relief. The timing of a booster treatment depends on the aging process and menopause status. Interestingly, all improvements remained statistically significant at T3. Although vaginal estrogen was offered to all the women with vaginal atrophy only 50% of the cohort were compliant. Vaginal estrogen appears to maintain the symptom control in the group with improved urinary symptoms as seen at Cruz, et al. [19]. A study limitation was the attrition rate during COVID pandemic, with half of the women participating in the ≥12-month face-to-face follow- up, making it difficult to form comparisons from baseline to the final follow-up. However, through teleconsultations many of women who did not return for 12-month follow- up were found to have symptom resolution and successful conservative management measures. Secondly, symptom improvements following PRP treatment might be due to the tissue needling involved in the injection process, rather than to the bio-regenerative effects of the PRP. Subjecting tissue to micro-trauma may instigate the tissue repair cascade [36], and in the present circumstances, this cannot be ruled out as a confounding factor. Future studies should attempt to control for these potential treatment mechanisms in their design, which would include a placebo PRP and sham arm of laser therapy.

Conclusion

FxCO2 laser and PRP may improve UUI, sexual function, and overall bladder function. These treatments appear to be safe, tolerable, and have minimal downtime as they can resume their normal daily activities immediately after treatment with the exception of abstinence for three days. The treatment effects may diminish significantly by 12-18 months and may require a booster treatment to maintain symptom relief. Further randomised control trials are warranted to confirm the efficacy of these treatment modalities for UUI.

Disclosures

The authors have no conflict of interest and have not received any direct support (financial or otherwise) to conduct this study.

Conflicts of Interest

Dr Behnia-Willison worked as a consultant for Regenlab® for 6 months in 2018. The other authors have no conflict of interest and have not received any support (financial or otherwise) to conduct this study.

Funding

The study was funded by FBW Gynaecology Plus Pty Ltd.

Acknowledgement

The authors wish to acknowledge the staff from FBW Gynaecology Plus for assisting in running the study and participant follow-up.

References

  1. Buckley BS, Lapitan MC (2010) Prevalence of urinary incontinence in men, women, and children-- current evidence: findings of the Fourth International Consultation on Incontinence. Urology 76(2): 265-270.
  2. DeMaagd GA, Davenport TC (2012) Management of urinary incontinence. Pharmacy and Therapeutics 37(6): 345-361H.
  3. Botlero R, Davis SR, Urquhart DM, Shortreed S, Bell RJ (2009) Age-specific prevalence of, and factors associated with, different types of urinary incontinence in community-dwelling Australian women assessed with a validated questionnaire. Maturitas 62(2): 134-139.
  4. Doran CM, Chiarelli P, Cockburn J (2001) Economic costs of urinary incontinence in community-dwelling Australian women. The Medical Journal of Australia 174(9): 456-458.
  5. Faiena I, Patel N, Parihar JS, Calabrese M, Tunuguntla H (2015) Conservative Management of Urinary Incontinence in Women. Reviews in urology 17(3): 129- 139.
  6. Bhide AA, Khullar V, Swift S, Digesu GA (2018) The use of laser in urogynaecology. Int Urogynecol J 30(5): 683- 692.
  7. Behnia-Willison F, Nguyen T, Mohamadi B, Vancaillie TG, Lam A, et al. (2019) Fractional CO2 laser for treatment of stress urinary incontinence. European Journal of Obstetrics & Gynecology and Reproductive Biology 1: 100004.
  8. Behnia-Willison F, Nguyen T, Norbury AJ, Mohamadi B, Salvatore S, et al. (2020) Promising impact of platelet rich plasma and carbon dioxide laser for stress urinary incontinence. European Journal of Obstetrics & Gynecology and Reproductive Biology 5: 100099.
  9. Behnia-Willison F, Nguyen T, Salvatore S (2018) Promising Impact of CO2 Laser & Platelet Rich Plasma on Pelvic Floor Disorders. The European Urogynaecology Association 11th annual meeting, Milan, Italy.
  10. Behnia-Willison F, Salvatore S, Miller J, Mohamadi B, Care S, et al. (2017) Safety and long-trem efficacy of fractional CO2 laser treatment in women suffering from genitourinary syndrome of menopause. European Journal of Obstetrics & Gynecology and Reproductive Biology 213: 39-44.
  11. Phillips C, Hillard T, Salvatore S, Toozs-Hobson P, Cardozo L (2020) Lasers in gynaecology. European Journal of Obstetrics & Gynecology and Reproductive Biology 251: 146-155.
  12. Robinson D, Flint R, Veit-Rubin N, Araklitis G, Cardozo L (2020) Is there enough evidence to justify the use of laser and other thermal therapies in female lower urinary tract dysfunction? Report from the ICI‐RS 2019. Neurology and Urodynamics 39(3): S140-S147.
  13. Ash C, Town G, Whittall R, Tooze L, Phillips J (2017) Lasers and intense pulsed light (IPL) association with cancerous lesions. Lasers in Medical Science 32(8): 1927-1933.
  14. Najafian M, Jafrideh Y, Ghazisaeidi B (2018) Effectiveness of fractional CO2 laser in women with stress urinary incontinence. Frontiers in Biology 13(2): 145-148.
  15. Menachem A, Alexander B, Selih Martinec K, Gutman G (2016) The effect of vaginal CO2 laser treatment on stress urinary incontinence symptoms. ALMA Surgical FemiLift.
  16. Fistonic I, Gustek SF, Fistonic N (2012) Minimally invasive laser procedure for early stages of stress urinary incontinence. Journal of the Laser and Health Academy 1: 67-74.
  17. Franic D, Fistonic I, Franic-Ivanisevic M, Perdija Z, Krizmaric M (2020) Pixel CO2 Laser for the Treatment of Stress Urinary Incontinence: A Prospective Observational Multicenter Study. Lasers in Surgery and Medicine.
  18. Isaza PG, Jaguszewska K, Cardona JL, Lukaszuk M (2018) Long-term effect of thermoablative fractional CO2 laser treatment as a novel approach to urinary incontinence management in women with genitourinary syndrome of menopause. International Urogynecology Journal 29(2): 211-215.
  19. Cruz VL, Steiner ML, Pompei LM, Strufaldi R, Afonso Fonseca FL, et al. (2018) Randomized, double-blind, placebo-controlled clinical trial for evaluating the efficacy of fractional CO2 laser compared with topical estriol in the treatment of vaginal atrophy in post menopausal women. Menopause: The Journal of The North American Menopause Society 25(1): 21-28.
  20. Hutchinson-Colas J, Segal S (2015) Genitourinary syndrome of menopause and the use of laser therapy. Maturitas 82(4): 342-345.
  21. Pitsouni E, Grigoriadis T, Tsiveleka A, Zacharakis D, Salvatore S, et al. (2016) Microablative fractional CO2- laser therapy and the genitourinary syndrome of menopause: An observational study. Maturitas 9(4): 131-136.
  22. Pitsouni E, Grigoriadis T, Falagas ME, Salvatore S, Athanasiou S (2017) Laser therapy for the genitourinary syndrome of menopause. A systematic review and meta- analysis. Maturitas 103: 78-88.
  23. Athanasiou S, Pitsouni A, Grigoriadis T, Zacharakis D, Falagas ME, et al. (2018) Microablative fractional CO2 laser for the genitourinary syndrome of menopause: up to 12-month results. Menopause: The Journal of The North American Menopause Society 26(3): 248-255.
  24. Paraiso MFR, Ferrando CA, Sokol ER, Rardin CR, Matthews CA, et al. (2019) A randomized clinical trial comparing vaginal laser therapy to vaginal estrogen therapy in women with genitourinary syndrome of menopause: the VeLVET Trial. The Journal of The North American Menopause Society 27(1): 50-60.
  25. Tovar-Huamani J, Mercado-Olivares F, Grandez-Urbina JA, Pichardo-Rodrigues R, Tovar-Huamani M, et al. (2019) Efficacy of fractional CO2 laser in the treatment of genitourinary syndrome of menopause in Latin- American Population: First Peruvian experience. Lasers in surgery and medicine 51(6): 509-515.
  26. Sokol ER, Karram MM (2017) Use of a novel fractional CO2 laser for the treatment of genitourinary synfrome f menopause: 1-year outcomes. Menopause 24(7): 810- 814.
  27. Perino A, Cucinella G, Gugilotta G, Saitta S, Polito S, et al. (2016) Is vaginal fractional CO2 laser treatment effective in improving overactive bladder symptoms in post- menopausal patients? Preliminary results. European review of medical and pharmacological sciences 20(12): 2491-2497.
  28. Salvatore S, Calligaro A (2013) Use of CO2 laser therapy against vaginal atrophy, vaginal laxity and urinary incontinence. DEKA White Paper.
  29. Salvatore S, Nappi RE, Zerbinati N, Calligaro A, Ferrero S, et al. (2015) A 12-week treatment with fractional CO2 laser for vulvovaginal atrophy: a pilot study. Climacteric: the journal of the International Menopause Society 17(4): 363-369.
  30. Behnia-Willison F, Pour NR, Mohamadi B, Willison N, Rock M, et al. (2016) Use of Platelet-rich Plasma for Vulvovaginal Autoimmune Conditions Like Lichen Sclerosus. International Open Access Journal of the American Society of Plastic Surgeons 4(11): e1124.
  31. Dawood AS, Salem HA (2018) Current clinical applications of platelet-rich plasma in various gynecological disorders: An appraisal of theory and practice. Clinical and experimental reproductive medicine 45(2): 67-74.
  32. Gaspar A, Adamo G, Brandi H (2011) Vaginal Fractional CO2 Laser: A Minimally Invasive Option for Vaginal Rejuvenation. The American Journal of Cosmetic Surgery 28(3): 156-162.
  33. Abuaf OK, Yildiz H, Baloglu H, Bilgili ME, Simsek HA, et al. (2016) Histologic Evidence of New Collagen Formulation Using Platelet Rich Plasma in Skin Rejuvenation: A Prospective Controlled Clinical Study. Annals of dermatology 28(6): 718-724.
  34. Long C, Lin K, Shen R, Ker C, Liu Y, et al. (2021) A pilot study: effectiveness of local injection of autologous platelet‐rich plasma in treating women with stress urinary incontinence. Scientific reports 11: 1584.
  35. Nikolopoulos KI, Pergialiotis V, Perrea D, Doumouchtsis SK (2016) Restoration of the pubourethral ligament with platelet rich plasma for the treatment of stress urinary incontinence. Med Hypotheses 90: 29-31.
  36. Nofal E, Helmy A, Nofal A, Alakad R, Nasr M (2014) Platelet-rich plasma versus CROSS technique with 100% trichloroacetic acid versus combined skin needling and platelet rich plasma in the treatment of atrophic acne scars: a comparative study. Dermatological Surgery 40(8): 864-873.

Cite this article

BibTeX
APA
RIS
@article{behniawillison2021,
  title   = {Feasibility, Safety and Efficacy of Fractional Micro-Ablative CO2 Vaginal (FxCO2) Laser Treatment and Platelet-Rich Plasma (PRP) in Women with Urge Urinary Incontinence},
  author  = {Behnia-Willison F, Nguyen TTT, Krneta S, McPhail C, Bahadori S, Willison N, Aryan P, Lam A and Paraiso MFR},
  journal = {Open Access Journal of Gynecology},
  year    = {2021},
  volume  = {6},
  number  = {2},
  doi     = {10.23880/oajg-16000213}
}
Behnia-Willison F, Nguyen TTT, Krneta S, McPhail C, Bahadori S, Willison N, Aryan P, Lam A and Paraiso MFR (2021). Feasibility, Safety and Efficacy of Fractional Micro-Ablative CO2 Vaginal (FxCO2) Laser Treatment and Platelet-Rich Plasma (PRP) in Women with Urge Urinary Incontinence. Open Access Journal of Gynecology, 6(2). https://doi.org/10.23880/oajg-16000213
TY  - JOUR
TI  - Feasibility, Safety and Efficacy of Fractional Micro-Ablative CO2 Vaginal (FxCO2) Laser Treatment and Platelet-Rich Plasma (PRP) in Women with Urge Urinary Incontinence
AU  - Behnia-Willison F, Nguyen TTT, Krneta S, McPhail C, Bahadori S, Willison N, Aryan P, Lam A and Paraiso MFR
JO  - Open Access Journal of Gynecology
PY  - 2021
VL  - 6
IS  - 2
DO  - 10.23880/oajg-16000213
ER  -