Abstract
Background: The use of herbal extracts as the source of antioxidant substances capable of neutralizing free radicals and providing protection from ionizing radiation appears to be an alternative therapy for radiodermatitis. As concerns the prevention and treatment of side effects, a lot of recommendations are based on proper experience of radiotherapy centers. We summarize recent research aiming at reducing radiation-induced skin injuries by use of proper skin care, using topical preparations with herbal extracts including onco-cosmetics. Methods: This article is limited to a critical analysis of scientific and professional literature. It concerns preparations in different physicochemical forms, e.g., gels, emulsions, ointments. We stress the connection between the type of applied skin care (type of preparation, its composition, the dose), the properties of the herbal extract and the evaluation of its efficiency in preventing and treating radiation reaction on skin. Conclusions: Herbal extracts can be added to recipes because they are part of a category of cosmeceutical supplements and can be introduced into preparations without prescription. The effectiveness evaluation for herbal extracts in radiotherapy is not an easy task since there are no strict guidelines. Studies should be preceded by the analysis of herbal extracts and recipe in terms of physicochemical, dermatological and performance characteristics.
1. Introduction
Radiotherapy is a treatment method using ionizing radiation (most frequently X rays) applied in oncology for treatment of tumors and for relieving the pain related to the disseminated tumor process [1]. Its purpose is to stop the growth of the tumor tissue while at the same time preserving the healthy tissue surrounding the tumor. High frequency waves used during treatment cause the electron to be knocked out of the atom orbit which in turn leads to tissues’ ionization. Moreover, free electrons lead to the creation of free radicals and peroxides causing negative changes in the DNA, proteins and cellular membranes [2,3]. As concerns free electrons, the damage occurs as a consequence of direct effect, whereas we talk about indirect effect when the damage to the DNA structure is caused by free radicals. Most of the damages occur as indirect effect. In any case, for 6–8 h after the radiation, the enzymes can repair part of the damages [4,5]. The necessity of repeating the radiation sessions leads to the damage of the defensive systems responsible for removing free radicals. In case of large damage, repair may not be successfully completed and cells die by apoptosis. Even if the normal cell function is restored, their incomplete reconstruction causes permanent changes or mutations leading to cells dysfunction [4,6,7].
Among general side effects of radiotherapy, the following examples can be mentioned: general weakness, lack of appetite, decline in activity, changes in bold parameters, post-radiation skin reaction, hair loss, mucosal reactions in the mouth, throat, larynx and nasal cavities, reaction of respiratory tract, the heart, the intestines and the bladder. Complications and secondary effects observed by patients can occur in early stages or later [8]. The early complications concern constantly multiplying cells of marrow, epithelium—including skin, digestive track or urinary tract [2,6,7,9]. Mostly those do not cause serious consequences for patients. The second group of complications appears several months or even years after the radiation. It concerns slowly proliferating tissues like lungs, kidneys, liver, blood vessels and central nervous system [4,6,7]. The importance of secondary effects of the radiation depends on the part of the body it was applied to, the irradiation dose, and the degree of irradiation cumulated by the cells [4,6,7,9,10,11].
In this article, we focused only on secondary effects occurring on the skin, their prevention and treatment, and the possibility of using herbal extracts applied topically on skin.
1.1. Skin Reactions following Radiotherapy
Radiodermatitis (or radiation dermatitis, radiation induced skin reactions or radiation injury, radiation tissue damage) is a significant secondary effect of the ionizing radiation applied to the skin during a cancer treatment but also being a result of nuclear attacks or disasters [8,12]. Radiation skin damages or injuries relate to morphological and functional changes that occur in non-cancerous tissue as a direct result of ionizing radiation [6,13]. The most vulnerable parts of the skin are those at the junction of two skin surfaces like breasts and crotch, those with thin and smooth epidermis (crotch, face, armpits), but also zones with already damaged skin layers (burns, postoperative wounds, skin scales) [14]. Tissue reaction during radiotherapy also depends on the preexisting conditions, age, malnutrition, smoking, medication, chemotherapy, and skin color [9].
Among the first side effects observed by patients are skin dryness, pigmentation disorder, hair loss and erythema [4,11,12,15]. Those symptoms are caused by the damage to sebaceous and sweat glands, to hair follicles and an overstimulation of the pigmentation cells but also an increased pro-inflammatory cytokine release like interleukin 1 and 6 TNF-α, TGF-β [4,8]. Sequentially, following the damage of keratinocytes of the basal layer of the epidermis, there is dry desquamation and moist desquamation accompanied by serous effusion. This leads to the destruction of all the cells in the basal layers of epidermis and the exposure of the dermis [8,12]. Dry desquamation causes a frequent and very nagging symptom, namely itching. In case of a heavy radiation dermatitis, exposure to further fractional doses prevents cell repopulation and hence healing [16].
Late radiation reaction usually appears a few months after the completion of the therapy. It is the fibroblasts’ reaction to the radiation. The decrease in fibroblast population (fibroblasts are cells with low proliferation index) and the resorption of collagen fibers lead to atrophy-like changes causing the skin to lose its elasticity and the appearance of thickening and fibrosis, telangiectasia, atrophy of the sebaceous and sweat glands as well as of hair follicles, and can even lead to skin necrosis [4]. The changes can occur immediately and last up to several months, or become permanent [8,15]. The skin response time to radiotherapy includes hemostasis (immediate), inflammation (day 0–4), granulation tissue formation (day 3–3 weeks), matrix deposition and remodeling (week 3–2 years) [6,17].
Accurate assessment and classification of radiation dermatitis is essential for appropriate treatment, management, and monitoring in clinical practice [8]. Table 1 presents the scale of the skin damage (RTOG scale) according to The Radiation Therapy Oncology Group and European Organization for Research and Treatment of Cancer.
Table 1.
The Radiation Therapy Oncology Group and European Organization for Research and Treatment of Cancer acute skin toxicity scale [18].
It is estimated that even 95% of patients subjected to radiation treatment experience radiodermatitis [4,6,19]. Observed post-radiation skin reactions and their complications have a severe impact on a patient’s organism, and may cause countless complications including treatment delay, lowering of the quality of life (physical and psychological pain) or esthetic effects [8,15,18].
Appropriate preventive actions can be applied to improve the quality of life of patients treated for cancer. These therapeutic strategies can be divided in four categories: physical therapy, external-use dressing/cream, biological therapy and surgical reconstruction [4,11]. Properly conducted preventive actions also protect patient’s skin during radiotherapy from additional injuries, irritation or UV radiation [4,16,18,20,21].
1.2. Skin Care during Radiotherapy–Preventive Measures for Radiodermatitis
Skin care during radiotherapy should be properly adapted to patient’s needs. The purpose of a normal care therapy is to ensure the skin is clean, which will facilitate its healing afterwards, but also bring comfort and relief to the irritated skin, reduce pain and protect the skin against injuries, and prevent and fight infections [11,15]. Therefore, the skin care plan should include gentle cleansing, moisturizing and regeneration [11,12,22,23,24]. What is also important in skin care is the protection against UV radiation, appropriate clothing and appropriate diet [8,25]. There is a group of cosmetics available on the market which are dedicated to oncology patients, they are called cosmeceuticals and more precisely onco-cosmetics [11,12,22,23,24].
Products used for skin care and treatment during radiotherapy can be classified according to their physicochemical form (Table 2) and their purpose (Table 3).
Table 2.
Physicochemical form of skin care products for oncological treatment [15,26,27,28].
Table 3.
Classification of preparations applied to skin care during radiotherapy according to their type of action.
Their composition should not include any irritating substances, preservatives or colorants. Whereas they are rich in substances rebuilding protective barrier (like free fatty acids, ceramides, squalene, phospholipids), moisturizing (like urea, niacinamide, hyaluronic acid), reducing itching (hemp oil, calendula oil, polidocanol), regenerating, oiling (squalene), soothing (allantoin, panthenol, epigallocatechin gallate) anti-inflammatory, protecting skin from oxidative stress caused by free radicals and environmental factors such as UV radiation or pollution (ascorbic acid, plant extracts or chemical substances isolated from plants: polysaccharides, anthocyanins, galantonin, polyphenols) [30,40]. Their pH is appropriate for sensitive skin. They mostly come as light lotions to prevent unpleasant viscosity and difficulty spreading [2,12].
A separate group of preparations widely applied for skin care and treatment during radiotherapy are dressings: collagen [41,42], hydrogels [43,44,45], based on alginate [46], silicon [47] or containing silver ions [48]. They are applied for soothing the skin friction, preventing irritations, reducing pain, improving comfort or controlling moist peeling [4,30].
1.3. Active Substances in Skin Care Preparations after Radiotherapy
In case of a strong radiation reaction, skin care alone after radiotherapy may be insufficient. In such cases patients receive treatment by topical glucocorticosteroids for their anti-inflammatory action, special dressings and antibiotics [18,30]. Despite general use of steroids and some chemical-containing ointments, e.g., trolamine and biaffine, their prolonged use may cause serious side effects [2].
The main factors that damage skin are the free radicals originating from irradiated water molecules and from granulocytes in the inflammation area (H2O ≥ H• + •OH + e− + H3O+ + H2O2 ≥ e− + O2 ≥ O2•−) [49]. Hence, the use of antioxidant substances including herbal extracts containing antioxidants, capable of neutralizing free radicals and providing protection from ionizing radiation appears as an alternative therapy for radiodermatitis [18,50]. Studies of radioprotective action of herbal extracts components are of immense use because in addition to protecting the normal tissue, they will also permit the use of higher doses of radiation to obtain better cancer control and possible cure. Unfortunately, radioprotective action of many of the substances is limited. These substances possess inadequate clinical application principally due to their inherent systemic toxicity at their optimal protective concentrations [51].
Despite this, herbal extracts are applied in skin care and treatment during radiotherapy. The first research direction concerns their application as diet supplement and as drugs administered either orally or intraperitoneally where they demonstrate radioprotective systemic action. Not only do they act as antioxidants, but they also show a range of beneficial biologic properties such as anti-inflammatory, antiemetic or antibacterial effects which contribute to improvements of patients’ quality of life [52,53,54,55,56]. Another research concerns their introduction into medicated preparations and cosmetics in form of creams, ointments and gels. Applied topically, they act as antioxidants, they reduce irritations and redness, they help heal and protect from UV radiations.
The source of plant materials used for this purpose include crops and harvest from natural stands. As the content of active substances in plants of a given species varies and depends on many factors, they are subject to the process of standardization from processing (collection, drying, stabilization, storage) to clinical study in the process of product development. Standardization is based on the pharmacopoeia standards of a given country or on the basis of quality standards for a given raw material or preparation. The standardized raw material contains a strictly defined amount of ingredients responsible for the therapeutic effect.
Some market products containing herbal extracts for treatment of dermatosis are: My GirlsTM Skin Care, RadiaGel®, RadiaPlex® Gel, Medline Remedy® Lotion, DIFINSA53 Skin Protectant Lotion, Miaderm® Radiation Relief, Pharmaceris X—Xrays Liposubtilium, AQUASTOP® Radiotherapy cream, VICCO Turmeric Skin Cream, Holoil® gel, Holoil® oil, RayGel, Capilen® cream, RadioProtect, RadioXar, Radx Oncology Therapy Cream, OnCosmetics.
Some of the above-mentioned preparations are specifically intended for skin care after radiotherapy whereas others are well known for their therapeutic actions, namely anti-inflammatory, antioxidant, and healing. The research of safe and efficient preparations containing herbal extracts is subject to R&D research and clinical trials.
2. Materials and Methods
2.1. Scope
The first attempt to gather all the information concerning the application and the role of herbal extracts in prevention and treatment of radiodermatitis was carried out by Kalekhan et al. [57] and Heydariard et al. [58]. Heydariard and co-workers [58] focused on collecting data from randomized control trials, which compared herbal compounds against a standard medication or placebo treatment or prevention of radiodermatitis. Five dimensions were evaluated: bias related to the errors in the randomization process, bias due to not receiving the desired treatment, bias due to missing data related to the outcome, bias in evaluating and measuring the outcome variables and incomplete or selective reporting outcomes. Kalekhan et al. [57] summarizes clinical observations on the prevention of radiodermatitis by plant products such as: Adlay bran, Aloe vera, Calendula officinalis, Cucumis sativus, honey, Achillea millefolium, Matricaria chamomilla, olive oil and green tea (containing epigallocatechin-3-gallate) and some of polyherbal creams.
As concerns the prevention and treatment of side effects, a lot of recommendations are based on proper experience of radiotherapy centers [23]. That is why in our literature review we summarize recent research aiming at reducing radiation-induced skin injuries by use of proper skin care, using topical preparations with herbal extracts. Our literature review concerns preparations in different physicochemical forms, e.g., gels, emulsions (creams, lotions), ointments. We stress the connection between the type of applied skin care (type of preparation, its composition, the dose), the properties of the herbal extract and the evaluation of its efficiency in preventing and treating radiation reaction on skin.
2.2. Methods
This overview article is limited to a critical analysis of scientific and professional literature (included guidelines, clinical and preclinical studies and reports of clinical trials). Patents and articles in a language other than English were excluded. Animal research and basic laboratory-based research are included. In order to prepare a literature review, search engines such as PubMed, MEDLINE, Scopus, NCBI, Google Scholar, Google Books, and ResearchGate were used. Date of access: 15 December 2021 and revisited on 20 April 2022.
Main search terms chosen were: radiodermatitis treatment; topical agents in treatment radiodermatitis; herbal in radiotherapy; topical antioxidants in radiodermatitis; skin care of patients undergoing radiotherapy; herbal creams; plant extract in prevention of radiodermatitis; Aloe vera extract; Achillea millefolium extract; Azadirachta indica extract; Boswellia serrata extract; Calendula officinalis extract; Centella asiatica extract; Chamomilla recutita extract; Cucumis sativus extract; Glycyrrhiza glabra extract; Green Tea extract; Silymarin extract, Turmeric curcuma longa extract; Nigella sativa extract; Ocimum sanctum extract; Angelica gigas extract; Lithospermum radix extract; Annona muricata extract; Camellia sinensis extract; Hypercium perforatum extract; Thunbergia caurifolia. Relevant research was systematically categorized by name of plant and appraised according to study design. To exclude risk of bias, two authors independently collected and evaluated quality of all selected data and extracted data on recipe and form product, its applications, purpose of study, subjects, methodology, and key findings. Evaluation was based on reviewers’ knowledge. Reference lists of relevant articles were reviewed to identify further studies. The review was performed in accordance with PRISMA guideline. The review was not registered. The protocol was not prepared. Automation tools were not used in the process.
3. Results
The study flowchart for the selection of the relevant research is presented in Figure 1.
Figure 1.
The study flowchart for the selection of the relevant research, e.g.,: randomized clinical trail, clinical trial, articles, clinical and preclinical studies.
A total of 327 articles were evaluated, of which 34 are included in review. Summaries of analyzed research are provided in Table 4. Plant species from which the extract was obtained were sorted in alphabetical order.
Table 4.
Type of plant, form of the preparation for topical use, the recipe, study descriptions and key findings. Index of abbreviations: ARD—Acute Radiation Dermatitis; ARMSC—Acute Radiation Morbidity Scoring Criteria; ARSR—Acute Radiation Skin Reactions, Radiation-induced Acute Skin Reactions; BC—breast cancer; CT—Clinical trials; CTC—Common Toxicity Criteria; CTCAE—Common Terminology Criteria for Adverse Events; NCI-CTCAE National Cancer Institute Common Terminology for Adverse Events; PL—placebo; QLQ-C30—Core Quality of Life Questionnaire; QoL—Quality of life; RCT—Randomized Clinical Trial; RD—Radiation-induced Dermatitis; RISR—Radiation-induced Skin Reactions; RT—Radiotherapy Treatment; RTOG—Radiation Oncology Group; SARO—Scientific Association of Swiss Radiation Oncology, VAS—Visual Analogue Scale.
4. Discussion
In this literature review we quoted the results of 34 studies (between 1996 and 2021), three of which concern preparations containing more than one herbal extract (paste with a mixture of Aloe vera L., Turmeric curcuma longa, Azadirachta indica and Ocimum sanctum [74,75], ointment Jaungo containing Angelica gigas, Lithospermum radix [78,79]). In addition, in two presented studies, two or more preparations were analyzed in parallel: specifically, preparations containing Achillea millefolium or Glycyrrhiza glabra [59], or the preparations containing respectively Centella asiatica, Cucumis sativus or Thunbergia laurifolia [88]. In the study by Franco et al. [94] the carrier of Hypericum perforatum extract was neem oil with curative properties.
In total, 36.4%, which is the highest fraction of the quoted studies, used Aloe vera L. (12 studies). This is due to the fact that Aloe vera L. is the most used plant with soothing properties. The most important therapeutic effects described after applying Aloe vera L. are: the reduction of dermatitis, reduction of skin colonization by bacteria and healing acceleration. Second place is occupied by studies concerning Calendula officinalis (15.2%, 5 studies). In total, 4 studies (12.1%) concern the application of Turmeric curcuma longa, and 2 (6%) Silybum marianum.
Plant materials are one the best remedies for the treatment of wide variety of persistent diseases due to the presence of large number of bioactive natural products with potential biological properties. The plants used to carry out the study were characterized by various actions and indications in skin care after radiotherapy following due to presence of compounds such as flavonoids, saponin, polyphenols, polysaccharides, phytosterols, tannins, etc. (Table 5).
Table 5.
Selected plants with confirmed therapeutic and care effect, applied in preparations for radiotherapy.
The dominant actions among the plants presented in the table are: anti-inflammatory, antioxidant and antimicrobial. This is linked to the mechanism of formation and healing of radiodermatitis but also to the physician’s actions aiming at preventing and treating inflammation, pain or skin damage and bleeding which are prone to bacterial superinfection. Some of the plants used in the study prove efficient in skin smoothing and moisturizing because dry skin with a pathological basis caused by dermatosis requires the same care as dry non-pathological skin [23]. Works of Hoopfer et al. [65], Byun et al. [2], Pajonk et al. [91] were the only ones including the analysis of the herbal extract as such. The main purpose of these studies was to discover skin protection mechanisms for the given extract and to link it to the effectiveness in reducing radiation skin reaction severity.
For a cosmeceutical to be effective, its recipe is essential. Recipe assumptions concern not only the esthetic aspect such as application, scent, sensation on the skin (which are certainly important for oncological patients), but they also allow for the maximum action during regular application [103]. Therefore, the recipe is an integral part of the system for providing active substance aiming at maximum action and visible effect for the consumer, meaning the cosmetic is effective. The effectiveness concerns immediate effects, short term effects and effects occurring after 30–60 days. Besides, the process of healing for the skin takes 4–5 weeks. Hence, the studies evaluated the skin condition weekly, after various time lapses until, on average, 2–6 and even 8 weeks after the end of the radiotherapy. They allowed us to demonstrate the preparation’s long-term effectiveness. The longest study of preparation impact on the skin was analyzed in [74,75] and lasted 6 months. To determine the timing of application resulting in the best effect, in studies [60,97], cosmeceutical was applied beginning on day −7, 0, +7 relative to the day of irradiation (day 0) and continued for 5 weeks and applied beginning on day −14, 0 +14 respectively.
For a full assessment of the cosmetic’s impact on skin after radiotherapy, a threefold approach should be considered: instrumental measurement of skin condition, expert’s evaluation, and self-evaluation by the participants to the study group. A double-blind testing with control group using placebo or positive control of the prescribed product carried out by independent experts using a statistically significant number of participants are also acceptable sources of information. In total, 83.5% of the studies presented by us were randomized clinical studies and clinical studies. Studies on animals included 11.76% of the quoted studies. In most discussed clinical studies, the assessment was done by a team of experts or the members of the study group. To do this, the assessment tools were: the scale (guidelines) RTOG/EORTC [59,66,67,71,74,75,78,81,82,83,84,85,86,88,89,90,94,96,97,98,99], Acute Radiation Morbidity Scoring Criteria [73], Common Toxicity Criteria [63,64], modified 10-point Catterall scale [65], Common Terminology Criteria for Adverse Events [92] or National Cancer Institute Common Terminology for Adverse Events [96]. Photographs of skin were taken in studies [11,63,72,81,89,90]. To measure erythema Near Infrared Spectroscopy, Laser Doppler Imaging and Digital Colour Photography were applied [72]. A subject’s skin comfort [64] and skin-related quality of life (SRQOL) [95] was also evaluated, mostly using QLQ-C30 questionnaire [74,75]. The effectiveness was also evaluated by defining the degree of improvement of skin lesions [69].
The availability and the effectiveness of the given component can be modified depending on the phase in which it was added to the preparation during production. The type of the solvent used for extraction is hence essential. The effectiveness can be increased by using a proper substrate and carrier system. Known ways of delivery of herbal extract in topical therapy are: creams and water-based liquids, ointments based on oils and waxes, powders and pastes, masks from freshly cut herbs, warming compresses or compresses from warm soaked herbs [104]. Among the analyzed physicochemical forms including extracts, 42.9% were gels (15 studies), 28.6% were creams (10 studies), 11.4% ointments (4 studies). Rarely used substances were (5.8%): lotions and oils (2 studies each), but also pastes and solutions (single studies, 2.8%). One work among presented studies analyzed more than one physicochemical form of the preparation [94]. A gel preparation gives a refreshing sensation, and it is oil-free, which is a more appropriate formulation to apply in skin exposed to radiation therapy, avoiding a bolus-like effect and making it easier to remove before the next radiation therapy session.
In terms of products’ effectiveness assessment, it should be emphasized that in case of radiation reaction, its characteristics should be analyzed, and appropriate treatment and care should be adopted for the given degree. In the case of dry desquamation, treatments aim mainly at moisturizing the skin and reducing the skin discomfort linked to burning and itching. Hence, hydrophilic preparation (mostly gels) with neutral pH are most appropriate. They are often combined with the topical application of corticosteroids. Corticosteroids however have a lot of side effects. In works [74,75] the effectiveness of the paste with herbal extracts was compared to Beclomethasone cream. The evaluation of paste effectiveness as compared to corticosteroids was analyzed in [79]. In case of moist desquamation, the principle of treating the moist with the moist is applied; hence, the best option seems to be hydrocolloid dressings.
Most of the quoted studies aimed at preventing dermatitis. Hence, the studied preparation was applied throughout the whole treatment. Possible changes in treatment were linked to allergy or to development of dermatitis of second degree or higher, which required the introduction of corticosteroids, antibiotics or analgesics. In the case of moist desquamation, individual works [71,88] stopped the application of the preparation in the area of occurrence. Only the studies carried out by the team Franco et al. [94] included the application of two forms of preparations depending on the type of radiodermatitis observed. Thus, for erythema and/or oedema, gel preparation was employed. For patchy moist desquamation, the oil preparation was administered.
In the works quoted, multiple forms of preparations were compared simultaneously during the study; for example, cream and oil or powder [65,71,98,99], creams with water infusion [88], gels with creams [11,62,63,64,72,89,90,100], gels with soap [67], gels with ointments [60], gels with oils [94]. We know currently that the skin barrier layer should not only be moisturized but also rebuilt, which cannot be done with preparations such as soap. Besides, in studies [11,61,67,78,83,84,100] standard care was recommended or moisturizing preparations were applied together with the analyzed one [88,92]. The study results presented in [65] speak in favor of dry skin care instead of applying moisturizing creams enriched with herbal extracts.
In some of the clinical studies [60,64,66,71,72,82,83,84,88,91,92,94,97,98,99,100] generally available, market products were applied (they were not registered as medical products hence they did not have any specific use recommendations). They had no antioxidant, moisturizing or redness reducing action, which should characterize preparations after radiotherapy. Market preparations played a role of placebo [60,72,83,84,87,92], or extract carrier [59], but were also a well-known preparation containing active substances of plant origin like Juango ointment [78,79] or Vicco Turmeric cream [98,99]. Besides, some of the placebo preparations contained active substances [60]. One of the certain defects of the presented works [11,61,62,63,67,71,79,84,88,89,90,91,92,96,99] is the lack of composition for evaluated products.
From a scientific but also from practical point of view, the time of application of cosmeceuticals and the dosage are important. As shown in [60], there was no effect if the gel was applied only before irradiation or beginning 1 week after irradiation. According to [97], the minimal application time is two weeks before the beginning of radiotherapy, while a significant part of the works concerned studies in which the preparation application started at the same time as the irradiation. Studies [73,79,102] mentioned the doses of applied products.
5. Conclusions
In the current review paper, the literature data have been systematically reviewed and we discussed the connection between the type of applied skin care (type of preparation, its composition, the dose), the properties of the herbal extract, and the evaluation of its efficiency in preventing and treating radiation reaction on skin.
From this research, the following conclusions can be drawn:
- The application of herbal extracts in preparations preventing radiodermatitis is important and still up-to-date (most recent publications about ongoing clinical studies are from 2021). Moreover, many herbal extracts such as Dilenia idica, and the Lamicale Family show potential in treating dermatitis but have not been introduced in the recipes of ointments, creams or gels.
- Herbal extracts obtained from plants can be added to recipes because they are part of a category of cosmeceutical supplements which are not subject to regulations and can be introduced into preparations without prescription. Herbal extracts can be a raw material from which active substances are isolated. For example, tea is a source of epigallocate-hin-3-gallatechin. Polysaccharides can be obtained from Annona muricata L. Both have potential in the treatment of dermatitis.
- The dominant actions among the plants are: anti-inflammatory, antioxidant and antimicrobial. This is linked to the mechanism of formation and healing of radiodermatitis but also to the physician’s actions aiming at preventing and treating inflammation, pain or skin damage and bleeding which are prone to bacterial superinfection. Some of the plants used in the study prove efficient in skin smoothing and moisturizing because dry skin with a pathological basis caused by dermatosis requires the same care as dry non-pathological skin.
- In the available study results there is conflicting information concerning the effectiveness in treatment and prevention of radiodermatitis by the products containing herbal extracts in their recipe (e.g., Aloe vera). There are also works mentioning that preparations such as ointments are poorly tolerated and appreciated by patients, and that some preparations cause allergies. Hence there are premises indicating that there is a need to widen the preparations offer for radiotherapy patients, the recipe of which is projected already at the evaluation stage of herbal extracts.
- The effectiveness evaluation for herbal extracts in radiotherapy is not an easy task since there are no strict guidelines. Studies should include both apparatus analyses of the skin condition and clinical studies including patients. They should also be preceded by the analysis of herbal extracts and recipe in terms of physicochemical, dermatological, and performance characteristics.
Author Contributions
Conceptualization, A.K.-P.; writing—original draft preparation, review and editing A.K.-P., W.J.G. All authors have read and agreed to the published version of the manuscript.
Funding
This research received no external funding.
Institutional Review Board Statement
Not applicable.
Informed Consent Statement
Not applicable.
Data Availability Statement
Not applicable.
Acknowledgments
Authors would like to thank Anna Riondet for providing language help.
Conflicts of Interest
The authors declare no conflict of interest.
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