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Mature skin is prone to bruising, resulting in a condition known as actinic purpura, characterized by unsightly ecchymosis and purple patches. Similar to other skin conditions, the incidence of actinic purpura increases with advancing age and occurs with equal frequency among men and women. The unsightly appearance of actinic purpura may be a source of emotional distress among the elderly. A new product has been formulated specifically for the treatment of actinic purpura. This product contains retinol, ahydroxy acids, arnica oil, ceramides, niacinamide, and phytonadione, which effectively treat actinic purpura by improving local circulation, thickening the skin, and repairing the skin barrier. The objective of this paper is to review the beneficial properties of these ingredients and their respective roles in the treatment of actinic purpura.
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4444 JCAD journal of clinical and aesthetic dermatology June 2017 Volume 10 Number 6
I
Mature skin is prone to bruising,
resulting in a condition known
as actinic purpura,
characterized by unsightly
ecchymosis and purple
patches. Similar to other skin
conditions, the incidence of
actinic purpura increases with
advancing age and occurs with
equal frequency among men
and women. The unsightly
appearance of actinic purpura
may be a source of emotional
distress among the elderly. A
new product has been
formulated specically for the
treatment of actinic purpura.
This product contains retinol, α-
hydroxy acids, arnica oil,
ceramides, niacinamide, and
phytonadione, which
eectively treat actinic purpura
by improving local circulation,
thickening the skin, and
repairing the skin barrier. The
objective of this paper is to
review the benecial properties
of these ingredients and their
respective roles in the
treatment of actinic purpura.
J Clin Aesthet Dermatol.
2017;10(6):44–50.
A B S T R A C T R E V I E W
Treatment of Actinic Purpura
ROGER I. CEILLEY, MD
Dermatology PC, West Des Moines, Iowa
IN RECENT YEARS, THE
incidence of actinic purpura has
increased substantially among the
older patients in my dermatology
practice. Although not a serious
condition, its unsightly appearance is
a significant cause of anxiety and the
principle available treatment has
been reassurance that the lesions will
eventually resolve. The goal of this
paper is to briefly review actinic
purpura and describe a new product
specifically developed for the
treatment of actinic purpura and the
prevention of future lesions.
AGING SKIN AND THE AGING
POPULATION
Skin aging is a complex process
associated with cumulative DNA
damage1due to intrinsic factors, such
as the action of reactive oxygen
species,2and exogenous factors
including exposure to ultraviolet
light.3The skin becomes thinner and
less elastic (solar elastosis),4and the
barrier function of the skin decreases
due to depletion of lipids in the
stratum corneum.5This fragility
syndrome has been termed
dermatoporosis.6Changes in normal
skin physiology include increased
susceptibility to infection,
diminished superficial pain
Disclosure: The author acknowledges the editorial assistance of Dr. Carl S. Hornfeldt,
Apothekon, Inc., with funding provided by Ferndale Healthcare.
Author correspondence: Roger I. Ceilley, MD; E-mail: rceil45@gmail.com
4545
JCAD journal of clinical and aesthetic dermatology June 2017 Volume 10 Number 6
R E V I E W
perception, and decreased
immune and inflammatory
responses.7
In addition, the incidence of
skin disorders increases with
age.8,9 Among patients 65 years of
age or older in one study
(N=198), all had one or more
dermatologic conditions. These
included solar lentigines, senile
angiomas, xerosis, seborrheic
keratoses, varicose veins, and
pruritus.10 Patients 75 years of
age or older were more likely to
suffer from solar lentigines, clavi,
solar keratoses, and
onychomycosis.1 0 Unfortunately,
the overall incidence of skin
disorders is likely to increase as
the world population continues to
age. In the United States, it is
estimated that the number of
people 65 and older will double
from 41 million in the year 2010
to 86 million by the year 2050.11
Consequently, there will be a
substantial increase in age-related
dermatologic diseases and
conditions in the future.
ACTINIC PURPURA
Mature skin is often prone to
significant bruising due to
reduction in connective tissue,
loss of subcutaneous fat to
support the skin structure,
flattening of the dermal junction,
and effacement of the dermal
papillae. The connective tissue of
the dermis is no longer able to
adequately support the
microvasculature. Consequently,
minor trauma can rupture blood
vessels, leading to extravasation
of blood. This age-related
condition is called actinic
purpura. Also known as senile
purpura,12 solar purpura,13
traumatic purpura, and Bateman’s
disease,14 it is characterized by
unsightly ecchymoses and purple
patches on the arms or legs of
elderly persons caused by blood
extravasation following minor
trauma.
Actinic purpura occurs almost
exclusively among the elderly
population, although it may
occasionally occur in younger
people. Similar to other skin
conditions, the incidence of
actinic purpura increases with
advancing age and occurs with
equal frequency among men and
women. One source suggests
actinic purpura affects
approximately two percent of
people 60 to 70 years old,
increasing to as many as 25
percent of people in the 90- to
100-year age group. Another
suggests actinic purpura affects
less than 10 percent of people
over 50 years old. It is closely
associated with photoaged skin15
and may be worse among people
taking aspirin, nonsteroidal anti-
inflammatory drugs, or
anticoagulants. Treatment is
usually unnecessary and
complications are rarely
reported.16 Following
extravasation, blood is typically
resorbed in 10 to 14 days.17
Delayed resorption for as long as
three weeks may be due to the
absence of a normal phagocytic
response. Post-inflammatory
hyperpigmentation may occur.
ACTINIC PURPURA AND QUALITY
OF LIFE
The consequences of
photodamaged skin include
increased rhytides, pigmentary
changes, skin laxity and
roughness, and telangiectasias,
which may have a negative
impact on overall quality of life
including interpersonal
interactions and self-esteem.1 8
Similarly, actinic purpura is a
cosmetic condition that can also
be associated with significant
psychological distress.12 Its
unattractive appearance may lead
to aversion by others.19 While not
a dangerous condition, effective
treatment of actinic purpura is of
great clinical importance for the
wellbeing of the elderly patient.
PRIOR TREATMENTS FOR ACTINIC
PURPURA
Published work describing
available treatments for actinic
purpura are limited. In one small,
double-blind study (N=14),
healthy subjects 60 to 80 years
old with at least two actinic
purpura lesions of approximately
equal size on each forearm were
enrolled. Subjects were
randomized to receive twice-daily
treatment with 0.1% retinoic acid
cream or non-medicated vehicle
on each arm for 16 weeks.17 After
two weeks of treatment, there
were fewer lesions on the retinoic
acid-treated arm (p<0.05);
however, there were no
significant differences after that
time.
More recently, a small open-
label study assessed the
effectiveness of human epidermal
4646 JCAD journal of clinical and aesthetic dermatology June 2017 Volume 10 Number 6
R E V I E W
growth factor for the treatment of
actinic purpura when applied
twice daily for six weeks (N=6).12
Ultrasound measurements
indicated a mean (SEM) skin
thickening of 195.2 (35.7) m
while the mean number of
purpuric lesions decreased from
15 (4.6) to 2.3 (0.7) over the same
time period.
NEW MOISTURIZING BRUISE
FORMULA
A new moisturizing bruise
product (DerMend®, Ferndale
Healthcare) has been formulated
specifically for the treatment of
actinic purpura. This product
contains ingredients that
effectively treat actinic purpura
by improving local circulation,
thickening the skin, and repairing
the skin barrier. Each of these
ingredients and their known
beneficial effects are described in
detail below.
Retinol. Numerous studies
have demonstrated the beneficial
effects of topical retinol, a
precursor of retinoic acid. In one
study, retinol 0.1% was applied to
the skin of healthy women 35 to
55 years old (N=41) every other
day for two weeks, then daily for
10 additional weeks. This
treatment increased epidermal
thickness, and upregulated genes
for collagen type 1, and collagen
type 3 with corresponding
increases in procollagen I and
procollagen 3 protein expression
and a significant reduction in
facial wrinkles.20 Similarly, the
topical application of 0.1%
retinol in another study increased
keratinocyte proliferation and
epidermal thickness and
improved major signs of skin
aging.21
A 52-week, double-blind,
vehicle-controlled study
demonstrated the ability of a
retinol 0.1% formulation to
significantly improve the
appearance of photodamaged skin
including a 44-percent
improvement in lateral canthal
fine lines and an 84-percent
improvement in the appearance of
mottled skin.22 Histology studies
demonstrated increased
expression of type 1 procollagen,
hyaluronan, and Ki67, a marker
for cell proliferation. When
combined with a vitamin C-
containing moisturizer, the
application of topical retinol
0.1% for 12 weeks improved the
appearance of women with mild-
to-moderate hyperpigmented and
photodamaged facial skin.23
While no study has assessed
the effects of retinol for the
treatment of actinic purpura, the
combination of topical 0.3%
retinol and 1% vitamin K
shortened the duration of laser-
induced purpura when applied for
two weeks prior and two weeks
after undergoing treatment with a
pulsed dye laser.24
Alpha hydroxy acids.
DerMend contains glycolic
compound 4.4, a combination of
glycolic acid and ammonium
glycolate. Products containing the
α-hydroxy acids glycolic acid and
lactic acid and the b-hydroxy acid
salicylic acid have been used for
treating cosmetic skin conditions,
such as seborrheic keratoses,
melasma, actinic keratoses, and
verrucae vulgares, and the
rejuvenation of photoaged skin,
for many years.25,26
In vitro studies have shown
that dermal fibroblasts grown in
the presence of glycolic acid for
24 hours resulted in increased
collagen production.27 Clinically,
measured improvements in skin
quality include decreased skin
roughness, skin dryness,
discoloration, solar keratoses, and
overall pigmentation, increased
collagen I and procollagen I, and
improved quality of elastic skin
bers.25,28,29 The long-term use of
an α-hydroxy acid-containing
product resulted in significant
clinical improvements in facial
skin tone and fine wrinkling,
which were associated with
psychosocial benefits.30
Arnica oil. Arnica oil is
derived from the medicinal plant
Arnica montana L. Extracts of A.
montana are rich in flavonoids
and phenolic acids and
demonstrate antioxidant activity
in vitro and protection against
oxidative damage in fibroblast-
like cells.31 The topical
application of an A. montana-
containing gel demonstrated
beneficial effects on experimental
wound healing in an animal
model32 and an A. montana-
containing ointment improved
pulsed-dye laser-induced bruising
in human volunteers.33
Ceramides. The barrier
function of the stratum corneum
is dependent on the presence of a
lipid matrix that includes the
epidermal sphingolipid
ceramides.34,35 As a result of skin
barrier defects, up to 75 percent
4747
JCAD journal of clinical and aesthetic dermatology June 2017 Volume 10 Number 6
R E V I E W
of elderly patients are affected by
xerosis.36 Ceramides also play a
role in the differentiation of
keratinocytes and regulation of
cell signaling.37 DerMend
contains a proprietary blend of
specifically targeted ceramides
(ceramide NP, ceramide NS,
ceramide EOS, ceramide EOP,
and ceramide AP), and several
studies have demonstrated the
beneficial effects of this
combination of ceramides in
mature skin.
Using an in vitro model, the
effects of the ceramides
phytosphingosine, sphingosine,
sphinganine and their hexanoyl-,
stearoyl- and salicyl-derivatives
were assessed using human
keratinocytes.3 7 Most of these
substances were found to be
potent promoters of keratinocyte
differentiation. Improvements in
skin barrier function have been
demonstrated following the
topical application of physiologic
amounts of the ceramides
sphingosine, phytosphingosine,
esterified fatty acids, omega
hydroxy fatty acids, normal fatty
acids, and alpha-hydroxy fatty
acid in human volunteers.38
A controlled clinical trial
assessed the beneficial effects of
a ceramide 3-containing emollient
using an experimental skin barrier
dysfunction model in healthy
volunteers.39 Skin barrier
dysfunction was caused by tape
stripping, which resulted in
erythema and increased
transepidermal water loss
associated with up-regulation of
cycling cells, involucrin, and
expression of cytokeratin-16.
Half the injured areas were
treated once daily with the test
product for five days. On Day 4,
the ceramide-containing
emollient significantly decreased
erythema, transepidermal water
loss, and cycling cells vs. the
untreated site.
Niacinamide. Niacinamide (or
niacin) is a form of vitamin B3
with antioxidant properties that
help improve skin appearance. It
regulates poly-ADP ribose-
polymerase 1, an enzyme with
important roles in DNA repair
and the expression of
inflammatory cytokines.40
Niacinamide has been shown to
increase the beneficial effects of
moisturizers for treating xerosis
by improving the integrity of the
stratum corneum41 and increasing
corneal hydration.42–44
The application of niacinamide
can also improve the appearance
of fine lines and wrinkles,45,46
hyperpigmentation spots, texture,
red blotchiness, and sallowness.46
In one randomized clinical trial,
female subjects (N=50) with
signs of facial photoaging
including fine lines and wrinkles,
poor texture, and hyperpigmented
spots applied 5% niacinamide to
half of the face and its vehicle
control to the other half twice
daily for 12 weeks.47 Facial
images and instrumental
measures were obtained at
baseline and at four-week
intervals. Significant
improvements in skin appearance
included reduction in fine lines
and wrinkles, hyperpigmented
spots, red blotchiness,
sallowness, and skin elasticity.
Interestingly, oral nicotinamide
Figure 1. The appearance of actinic purpura (left) is greatly improved after treatment for 56 days (right).
4848 JCAD journal of clinical and aesthetic dermatology June 2017 Volume 10 Number 6
has recently been shown to be
effective for reducing
nonmelanoma skin cancers and
actinic keratoses in high-risk
patients.4 8
Phytonadione. Topically
applied phytonadione, or vitamin
K1, has been shown to have
beneficial effects on injured skin.
Using an animal model, a topical
vitamin K cream increased
experimental wound healing.49
Clinically, topical vitamin K
enhanced the healing of bruises
caused by laser treatment. In one
randomized, double-blind,
placebo-controlled study (N=22),
subjects applied vitamin K cream
to one side of their face for two
weeks before and/or two weeks
after laser treatment for facial
telangiectases using a 585nm
pulsed dye laser.50 There was no
difference in the extent of
bruising on the topical vitamin K-
treated sides; however, the
severity of bruising was
significantly less on the vitamin
K-treated sides. In a similar
randomized, controlled study, the
application of vitamin K gel
following pulsed dye laser
treatment shortened the time for
resolution of facial bruising.51
RECOMMENDATIONS FOR THE
TREATMENT OF ACTINIC PURPURA
My personal observation is that
DerMend is very effective for the
treatment of actinic purpura. My
patients are exceedingly pleased
with the results they have
achieved as shown in Figures 1
and 2. I recommend that patients
treat their hands and forearms
where sun damage is more
pronounced and where the skin is
thinner and skin injury is more
likely to occur. For some patients,
this may also include the lower
legs. The product should be
applied to all areas twice daily to
improve skin quality and prevent
or minimize future lesions and
three times daily on bruised areas
to improve healing. Sunscreens
that provide both UVA and UVB
protection should be applied
daily, especially to affected areas.
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R E V I E W
... More recently in 2007, Kaya and Saurat [2] coined the term dermatoporosis to describe the chronic cutaneous fragility of aging skin. This condition affects anywhere from 2% to 25% of those aged over 50 years old and is equally common in males and females [3]. Dermatoporosis features include thinning atrophic skin, purpura, skin lacerations, and delayed healing. ...
... Histologically, the epidermis is thinned, and the dermis demonstrates significantly reduced amounts of collagen replaced by abnormal elastic fibers, as well as extravasated red blood cells [4]. Risk factors include the use of oral or topical corticosteroids and anticoagulants [3,4]. With age and sun damage, the skin becomes thin, and as a result, even negligible trauma to the skin leads to superficial vessels tearing. ...
... Ceilley published his experience with DerMend® (Ferndale Healthcare, Detroit, MI), a topical preparation with retinol, alpha hydroxyl acids, arnica oil, ceramides, niacinamide, and phytonadione [3]. While his "personal observation is that DerMend is very effective for the treatment of actinic purpura," he did not perform a clinical study with statistical analysis and simply reported that his "patients are exceedingly pleased with the results" [3]; therefore, a clinical study is necessary to determine its efficacy. ...
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Background and Objectives Senile purpura is a common condition characterized by recurrent ecchymoses in the elderly on the extensor surfaces of the forearms, hands, and legs. Our objective is to assess the efficacy and safety of a protocol using intense pulsed light (BBL; Sciton Inc., Palo Alto, CA) to improve the appearance of senile purpura on subjects' extensor forearms. Study Design/Materials and Methods Five subjects over 65 years of age, with ecchymotic lesions measuring over 1 cm on each forearm and five younger subjects under 35 years of age, without any ecchymotic lesions, were included in the study. The subjects were treated on one randomized forearm with a new intense pulsed light protocol for four weekly sessions. Photographs and subject questionnaires were taken weekly before each treatment as well as 1 month after all treatments. Skin biopsies were taken 1 day after the last of four weekly treatments. Histological analysis, including hematoxylin and eosin, elastic van Gieson, and Masson's Trichrome staining, were carried out to assess both the epidermal thickness and dermal connective tissue structure. The protocol consists of multiple passes using an intense pulsed light (BBL; Sciton Inc.) device in which the wavelength, filter, and fluence are adjusted for each step. Step 1 uses infrared light (800–1,400 nm), high intensity, a smooth adapter, and a constant motion technique. Step 2 employs a 590‐nm filter with two different fluences and step 3 utilizes a 560‐nm filter. The fluence of steps 2–3 is increased by 1 J each treatment if no side effects are noted. Results Using a new intense pulsed light protocol in subjects with senile purpura, both the number and square area of ecchymoses on the treated arm were significantly reduced (P = 0.02 and P = 0.04, respectively, paired t test) as compared with the untreated arm at 1 month after four weekly treatments. Despite this pilot study including challenging cases of subjects on both inhaled and injected corticosteroids and blood thinners, all subjects with senile purpura had at least a 50% reduction in the total square area of their ecchymoses on their treated arm. There were no significant or long‐lasting side effects, and all subjects reported satisfaction with the treatment with a desire to continue treatments on their control arm. Blinded evaluators were able to select 100% of the time in the subjects with senile purpura, which was the treated arm as compared with the control arm when reviewing photographs from 1 month after the last treatment. In addition, several subjects were noted to have a significant improvement in the appearance of hemosiderin deposition and photodamage. Histologically, intense pulsed light treatments significantly increased epidermal thickness in elderly subjects by 21.14% (P = 0.0153, two‐tailed, paired t test), to levels comparable with young subjects. Such restoration is consistent with the other histological observations by blinded evaluators of more abundant and organized collagen fibers in the dermis and reduced aggregates of disorganized elastin fibers. Conclusion This new intense pulsed light protocol is safe and effective in improving the clinical appearance of senile purpura as well as preventing future lesions by improving the structure of the skin by increasing epidermal thickness and improving collagen and elastic fiber morphology. The treatment was well‐tolerated, adverse effects were minimal, and there was high patient satisfaction. Lasers Surg. Med. 2020. © 2020 Wiley Periodicals LLC
... Actinic purpura is a dermatological condition described by Batermanin 1918, which is common in the elderly (71). It is a benign condition of the dermal connective tissues, which is caused by sun exposure (72). It is also known as the senile purple Bateman and appears in the form of dark purple spots on regions predominantly exposed to the sun, including the dorsal part of the hands and the extension surface of the forearm (71)(72)(73). ...
... It is a benign condition of the dermal connective tissues, which is caused by sun exposure (72). It is also known as the senile purple Bateman and appears in the form of dark purple spots on regions predominantly exposed to the sun, including the dorsal part of the hands and the extension surface of the forearm (71)(72)(73). Chronic exposure to solar UV is one of the central environmental aspects that can hasten the ageing process, followed by progressive deterioration of epidermal stem cell function (74). ...
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Melatonin is a hormone secreted by the pineal gland in accordance with the circadian rhythm when the light level decreases. Reduction of melatonin secretion with age may be associated with physiological aging in neurode-generative diseases by affecting the suprachiasmatic nucleus or of the neuronal pathways of transmission to the pineal gland. A significant decrease in melatonin synthesis has been reported in various disorders and diseases, including cardiovascular diseases, metabolic disorders (particularly diabetes type 2), cancer and endocrine diseases. In addition to the fact, that melatonin is a sleep inducer, it also exerts cytoprotective properties as an antioxidant and free radical scavenger. The therapeutic role of melatonin has been demonstrated in sleep disorders, eye damage and cardiovascular disease. The association between melatonin and β-blockers has had a positive impact on sleep disorders in clinical trials. Previous studies have reported the anti-inflammatory effect of melatonin by adjusting levels of pro-inflammatory cytokines, including interleukin (IL)-6, IL-1β and tumor necrosis factor-α. Melatonin treatment has been demonstrated to decrease IL-6 and IL-10 expression levels and efficiently attenuate T-cell proliferation. Currently, there is an inconsistency of scientific data regarding the lowest optimal dose and safety of melatonin for long-term use. The aim of the present review was to summarize the evidence on the role of melatonin in various clinical conditions and highlight the future research in this area.
... Although various pharmaceutical preparations are available, the current wound care products are generally expensive, which impose a substantial financial burden to the patient and the healthcare system (Tricco et al., 2015). The situation is also compounded by the rising cases of bacterial resistance and adverse effects associated with the commercial wound care products (Ceilley, 2017). Therefore, there is a need to find alternative therapies that could promote wound healing, reduce treatment cost, and minimize the possibility of severe wound complications (Lordani et al., 2018). ...
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The increasing prevalence of chronic wounds, associated with aging, obesity, and diabetes, is compounded by bacterial resistance and adverse effects associated with commercial wound care products. Therefore, treatment modalities to accelerate the healing process are constantly being sought. This study aimed to investigate the phytochemical composition, antioxidant, and wound healing potential of the aqueous extract derived from the stems and leaves of Polygonum minus. The extract was subjected to phytochemical evaluation to assess the diversity of secondary metabolites. The total phenolic content (TPC) and total flavonoid content (TFC) were measured using the Folin-Ciocalteu colorimetric and aluminium chloride methods, respectively. The antioxidant activity was determined using the 2,2-diphenyl-1-picrylhydrazyl (DPPH) free radical scavenging and ferric-reducing antioxidant power (FRAP) assays. The wound healing effects were evaluated using proliferation and migration assays on human epidermal keratinocyte (HaCaT) cells. The phytochemical evaluation of the aqueous extract revealed the presence of flavonoids, terpenoids, alkaloids, saponins, tannins, steroids, and cardiac glycosides. Furthermore, the extract exhibited high TPC (137.74 ± 0.75 µg/mL GAE) and TFC (177.08 ± 3.16 µg/mL QE) values, as well as radical scavenging activity at 79.50% in the DPPH assay and a FRAP value of 1485.67 ± 0.05 µM/g Fe2+. At the lowest concentration of 7.81 μg/mL, the extract significantly stimulated cell proliferation and migration within 24 hours of treatment. The stimulation of cell migration was comparable with that of allantoin, which was used as a positive control. This study indicated that the P. minus aqueous extract contains a high concentration of phenolic compounds, which could contribute significantly to its antioxidant activity and promote the proliferation and migration of keratinocytes. The findings suggest that the extract may merit further investigation for potential applications in topical therapy related to wound healing.
... The prevalence of bleeding increases with age, since capillaries become frailer. Ecchymoses in the elderly (senile purpura) is estimated to be present in about 12% of individuals after the age of 50 years and up to 30% after age 75, especially those with fair skin [30]. Common concomitant conditions in this age group further lead to an increased risk both of serious bleedings and of cardiovascular events [31]. ...
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Following reports of bleeding upon Ginkgo intake, we assessed whether Ginkgo extract EGb 761® affects coagulation or platelet function or increases the risk of bleeding. In a double-blind, placebo-controlled trial, prothrombin time, activated partial thromboplastin time, international normalized ratio and bleeding time were measured in patients with Alzheimer’s dementia at baseline, weeks 6 and 26. A total of 513 patients were randomized to 120 mg (n = 169) or 240 mg EGb 761® (n = 170) or placebo (n = 174). No relevant changes were found for coagulation parameters and bleeding time. Numbers of bleeding-related adverse events were similar in all groups. Concomitant intake of acetylsalicylic acid was documented for 68 patients in the placebo group and 105 in the EGb 761® groups. Within these groups, the means at baseline and week 26 differed by less than 1 unit for prothrombin time and bleeding time and less than 0.1 unit for international normalized ratio. Data on warfarin treatment in nine patients each taking placebo or EGb 761® did not indicate enhancement of warfarin effects by EGb 761®. No evidence was found that EGb 761® affects hemostasis or increases the bleeding risk. No pharmacodynamic interactions with warfarin or acetylsalicylic acid were found.
... As ageing causes the skin and blood vessels to become more fragile, acitinic purpura can result, characterised by ecchymosis (dark purple patches on the skin). Although individuals may consider them unsightly, there is no specific treatment unless it is of great concern, when a topical retinoid may be used to thicken the skin (Ceilley, 2017). ...
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Skin tears frequently occur following a simple trauma, but can become chronic and complex wounds if inappropriately assessed and managed, particularly if on the lower leg. It is important for health professionals, patients and carers to understand the principles of prevention and the importance of fundamental skin care. Identifying those at risk can help with the development of a specific preventive approach. This article offers a brief overview of the International Skin Tear Advisory Panel (ISTAP) best practice recommendations for holistic strategies to promote and maintain skin integrity.
Chapter
Purpura results from coalesced petechia, which are small (≤4 mm), flat, red, discrete areas of the skin due to erythrocyte extravasation, which can be seen as an isolated phenomenon or as a part of systemic disease. Purpura is mostly seen due to platelet and coagulation disorders. Vasculitis, vasculopathy, infectious diseases, embolus and other diseases can cause purpura. The treatment varies according to the underlying cause.
Chapter
Purpura is defined as the extravasation of blood into the skin or mucous membrane. Purpuric lesions vary in morphology, size, distribution, and number of lesions depending on their etiology. In evaluating a case of skin purpura, a detailed medical history is essential to find signs or symptoms of systemic disease or exposures. The identification of systemic causes, especially those related to coagulation disturbances, is essential in more extensive cases.KeywordsPurpuraPetechiaeEcchymosisPalpable purpuraRetiform purpuraOrthostatic purpuraSenile purpuraActinic purpuraSolar purpuraBateman’s diseaseThrombotic thrombocytopenic purpuraPurpura fulminansDrug-induced immune thrombocytopenia
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Xerosis affects up to 75% of older people and develops as a result of a skin barrier defect. Emollients are widely used to treat xerosis; however, there is limited understanding of the differences between them and their effects on the skin barrier in older people. This study aimed to compare the effect of a commercially available emollient containing 5% urea, ceramide NP and lactate (test emollient) to an alternative emollient without these additives (control emollient) on the properties of the skin barrier in older people. Two cohorts of 21 volunteers aged 60+ years with dry skin were recruited. The first applied the test emollient to one forearm and no treatment to the other for 28-days. The second compared the test emollient to the control emollient observing the same parameters. Effects on the skin barrier were determined by measuring skin barrier function, hydration, skin surface pH and by analyzing FTIR spectra before and after treatment. A third cohort of 6 young adults was recruited to investigate the effect of a single treatment with the test emollient on the molecular structure of the skin barrier at greater depths by employing the tape-stripping technique. The test emollient hydrated the skin to a significantly greater extent and for a longer period of time compared to the control emollient, an effect associated with a significant elevation of carboxylate groups (a marker of NMF content) within the stratum corneum. Furthermore, the test emollient imparted additional benefits to the structure and function of the skin barrier not exhibited by the control emollient. In conclusion the test emollient addressed the pathological features of xerotic aged skin, supporting its use as first-line therapy for xerotic skin conditions in this population.
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Skin is the largest human organ. Skin continually reconstructs itself to ensure its viability, integrity, and ability to provide protection for the body. Some areas of skin are continuously exposed to a variety of environmental stressors that can inflict direct and indirect damage to skin cell DNA. Skin homeostasis is maintained by mesenchymal stem cells in inner layer dermis and epidermal stem cells (ESCs) in the outer layer epidermis. Reduction of skin stem cell number and function has been linked to impaired skin homeostasis (e.g., skin premature aging and skin cancers). Skin stem cells, with self-renewal capability and multipotency, are frequently affected by environment. Ultraviolet radiation (UVR), a major cause of stem cell DNA damage, can contribute to depletion of stem cells (ESCs and mesenchymal stem cells) and damage of stem cell niche, eventually leading to photoinduced skin aging. In this review, we discuss the role of UV-induced DNA damage and oxidative stress in the skin stem cell aging in order to gain insights into the pathogenesis and develop a way to reduce photoaging of skin cells.
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Background: Nonmelanoma skin cancers, such as basal-cell carcinoma and squamous-cell carcinoma, are common cancers that are caused principally by ultraviolet (UV) radiation. Nicotinamide (vitamin B3) has been shown to have protective effects against damage caused by UV radiation and to reduce the rate of new premalignant actinic keratoses. Methods: In this phase 3, double-blind, randomized, controlled trial, we randomly assigned, in a 1:1 ratio, 386 participants who had had at least two nonmelanoma skin cancers in the previous 5 years to receive 500 mg of nicotinamide twice daily or placebo for 12 months. Participants were evaluated by dermatologists at 3-month intervals for 18 months. The primary end point was the number of new nonmelanoma skin cancers (i.e., basal-cell carcinomas plus squamous-cell carcinomas) during the 12-month intervention period. Secondary end points included the number of new squamous-cell carcinomas and basal-cell carcinomas and the number of actinic keratoses during the 12-month intervention period, the number of nonmelanoma skin cancers in the 6-month postintervention period, and the safety of nicotinamide. Results: At 12 months, the rate of new nonmelanoma skin cancers was lower by 23% (95% confidence interval [CI], 4 to 38) in the nicotinamide group than in the placebo group (P=0.02). Similar differences were found between the nicotinamide group and the placebo group with respect to new basal-cell carcinomas (20% [95% CI, -6 to 39] lower rate with nicotinamide, P=0.12) and new squamous-cell carcinomas (30% [95% CI, 0 to 51] lower rate, P=0.05). The number of actinic keratoses was 11% lower in the nicotinamide group than in the placebo group at 3 months (P=0.01), 14% lower at 6 months (P<0.001), 20% lower at 9 months (P<0.001), and 13% lower at 12 months (P=0.001). No noteworthy between-group differences were found with respect to the number or types of adverse events during the 12-month intervention period, and there was no evidence of benefit after nicotinamide was discontinued. Conclusions: Oral nicotinamide was safe and effective in reducing the rates of new nonmelanoma skin cancers and actinic keratoses in high-risk patients. (Funded by the National Health and Medical Research Council; ONTRAC Australian New Zealand Clinical Trials Registry number, ACTRN12612000625875.).
Article
Background: Senile purpura presents itself as a largely unexplored challenge as it has been long thought of as a benign condition without long-term health sequelae. It is becoming increasingly accepted that skin aging not only results in cosmetic disturbances, but as a functional ones. With modern increases in lifespan, skin atrophy associated with solar damage is presenting as a clinically significant inability to mechanically protect patients. This chronic cutaneous insufficiency/fragility syndrome was recently termed dermatoporosis and senile purpura appears to be a visible marker of early stage dysfunction. Objective: To examine the effects of topically human epidermal growth factor on the clinical presence of senile purpura and its effect on skin thickness as measured via cutaneous ultrasound. Methods: Six subjects applied human epidermal growth factor morning and night for six weeks. Clinical outcomes were evaluated by comparing initial clinical photos to 6-week photos and performing a blinded investigator's global assessment (IGA). Skin thickness was evaluated via cutaneous ultrasound measurement. Results: Ultrasound measurements indicated a mean skin thickening of 195.2 ± 35.7 um (SEM) over 6 weeks. The average number of purpuric lesions decreased from 15 ± 4.6 (SEM) to 2.3 ± 0.7 (SEM) over that same period. Conclusion: Senile purpura presents itself as a cosmetic disturbance posing significant psychological distress and serves as a marker of the severity of skin thinning. In this study, we demonstrate that topical h-EGF diminishes the appearance of senile purpura by thickening skin and may help prevent the development of late stage dermatoporosis.
Article
A 12-week open-label, single-center clinical usage trial was conducted to determine the effectiveness of a dual product regimen consisting of a 0.5% retinol treatment and an anti-aging moisturizer with 30% vitamin C in women with mild to moderate hyperpigmented and photodamaged facial skin. Clinical grading of several efficacy parameters, tolerability evaluations, subject self-assessment questionnaires, and digital photography were completed at baseline and at weeks 4, 8, and 12. A total of 44 women completed the study. Effective ingredients incorporated into the 0.5% retinol treatment included encapsulated retinol for a retinol concentration of 0.5%, bakuchiol, and Ophiopogon japonicus root extract. The anti-aging moisturizer with 30% vitamin C contained 30% vitamin C in the form of tetrahexyldecyl ascorbate (THD ascorbate), alpha-tocopheryl acetate (vitamin E) and ubiquinone (coenzyme Q10). The facial regimen produced a statistically significant decrease (improvement) in clinical grading scores for all parameters assessed at weeks 8 and 12 when compared with baseline scores. In addition, the majority of these parameters were improved at week 4. The test regimen was well-perceived by the subjects for various inquiries regarding facial skin condition, product efficacy, and product attributes. Several tolerability parameters were assessed with no statistically significant increase except for dryness. A statistically significant increase in clinical grading scores for dryness on the face occurred at weeks 4 and 8 when compared to baseline scores. The increase in dryness is expected when introducing a retinol product to a facial regimen and the dryness did not persist to the week 12 time point. J Drugs Dermatol. 2016;15(4):476-482.
Article
Background All-trans retinol, a precursor of retinoic acid, is an effective anti-aging treatment widely used in skin care products. In comparison, topical retinoic acid is believed to provide even greater anti-aging effects; however, there is limited research directly comparing the effects of retinol and retinoic acid on skin. Objectives In this study, we compare the effects of retinol and retinoic acid on skin structure and expression of skin function-related genes and proteins. We also examine the effect of retinol treatment on skin appearance. Methods Skin histology was examined by H&E staining and invivo confocal microscopy. Expression levels of skin genes and proteins were analyzed using RT-PCR and immunohistochemistry. The efficacy of a retinol formulation in improving skin appearance was assessed using digital image-based wrinkle analysis. ResultsFour weeks of retinoic acid and retinol treatments both increased epidermal thickness, and upregulated genes for collagen type 1 (COL1A1), and collagen type 3 (COL3A1) with corresponding increases in procollagen I and procollagen III protein expression. Facial image analysis showed a significant reduction in facial wrinkles following 12weeks of retinol application. Conclusions The results of this study demonstrate that topical application of retinol significantly affects both cellular and molecular properties of the epidermis and dermis, as shown by skin biopsy and noninvasive imaging analyses. Although the magnitude tends to be smaller, retinol induces similar changes in skin histology, and gene and protein expression as compared to retinoic acid application. These results were confirmed by the significant facial anti-aging effect observed in the retinol efficacy clinical study.
Article
Skin problems in the elderly population have rarely been the subject of scientific research. The present study aimed to determine the prevalences of the most common dermatological conditions in elderly subjects and to investigate their associations with systemic diseases. The study involved a group of 198 consecutive patients aged ≥65 years who were admitted to the Departments of Dermatology and Geriatrics at the study institution. All participants were thoroughly evaluated in a clinical interview and physical examination in which special emphasis was placed on dermatological issues. All subjects presented at least one dermatological condition. A significant correlation was found between the number of systemic diseases and the number of different skin lesions observed. The most common skin disorders included solar lentigines, senile angiomas, xerosis, seborrheic warts, varicose veins, edema of the lower legs, and pruritus. Patients aged ≥75 years demonstrated solar lentigines, edema of the lower legs, clavi, solar keratoses, and onychomycosis significantly more often, whereas patients aged <75 years suffered more frequently from psoriasis. Diabetes was associated with the development of onychomycosis; hypercholesterolemia promoted the incidence of xanthomas and drug-induced skin reactions; chronic obstructive pulmonary disease was associated with senile purpura; and hypothyroidism favored the occurrence of varicose veins in the lower legs and telogen effluvium. Skin disorders are common in elderly people. Systemic diseases promote the development of dermatological conditions. A comprehensive approach to health problems in elderly subjects requires knowledge of dermatology. © 2015 The International Society of Dermatology.
Article
Retinol, a precursor of retinoic acid, has great potentials as a topical anti-aging molecule; however, only a handful of clinical investigations have been published to date. This study aimed to assess the efficacy and safety of 0.1% stabilized retinol on photodamaged skin during a one-year treatment. The investigation included two 52-week, double-blind, vehicle-controlled studies. In the main study, 62 subjects applied either a stabilized retinol formulation or its vehicle to the full face. A second exploratory study evaluated histological/histochemical markers in 12 subjects after 52 weeks of either retinol or vehicle use on contralateral dorsal forearms. The retinol group showed significant photodamage improvement over vehicle at all timepoints during the study. After 52 weeks, retinol had improved crow's feet fine lines by 44%, and mottled pigmentation by 84%, with over 50% of subjects showing +2 grades of improvement in many parameters. Additionally, at week 52, histochemical data confirmed the clinical results, showing increased expression of type I procollagen, hyaluronan, and Ki67 as compared to vehicle This study confirms that a stabilized retinol (0.1%) formulation can significantly improve the signs of photoaging, and improvements in photodamage continue with prolonged use. J Drugs Dermatol . 2015;14(3):271-276.
Article
The skin is the largest organ of the body, whose main function is to protect the body against the loss of physiologically important components as well as harmful environmental insults. From the inside to the outside, the skin comprises three major structural layers: the hypodermis, the dermis and the epidermis. The epidermis contains four different sublayers, the stratum corneum (SC), stratum granulosum, stratum spinosum and stratum basale, where the barrier function of the skin mainly lies in the outermost layer of the epidermis, the SC. The SC contains corneocytes that are embedded in a lipid matrix existing in the form of lipid bilayers. The lipid bilayers are formed mainly from ceramides, free fatty acids and cholesterol, constitute the only continuous pathway across the SC and are responsible for the barrier function of the skin. However, the depletion or disturbance of SC lipids in the SC leads to a perturbation of the barrier function of the skin, and, conversely, several skin diseases such as psoriasis and atopic dermatitis are associated with the depletion of these SC lipids. Therefore, it is of paramount importance to understand the interrelationship between the depletion of SC lipids and skin diseases as well as factors that affect the composition and organization of SC lipids in order to assess the potential benefit of a direct replacement of the missing SC lipids as a means of treating affected, aged or diseased skin. © 2014 S. Karger AG, Basel.