Hyptis Suaveolens

Bitki adı: Hyptis Suaveolens
Bilimsel adı: Hyptis suaveolens
Cins: Hyptis
Familya: Lamiaceae

Genel Bilgiler


Duke – Ethnobotany

Bilgi: Duke USEAGE: M | Woi.5
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb22: 95
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Woi.5
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb30: 136
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Wong
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Uphof
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Uphof
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb22: 95
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Woi.5
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Liogier
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb22: 96
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Hartwell
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Liogier
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Woi.5
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb30: 136
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb22: 95
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Brutus
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Wong
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Woi.5
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Burkill,1966
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Uphof
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb30: 136
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Wong
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Woi.5
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Wong
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb30: 136
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Liogier
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb22: 95
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Burkill,1966
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb22: 95
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Woi.5
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb30: 136
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Wong
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb30: 136
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Wong
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Wong
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb30: 136
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb22: 96
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Martinez
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Burkill,1966
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Woi.5
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb22: 96
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Wong
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb30: 136
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Wong
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb30: 136
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb22: 95
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb22: 95
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Pittier
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb22: 95
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb30: 136
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Wong
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb22: 95
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Duke,1972
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Woi.5
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Woi.5
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb22: 95
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Woi.5
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb30: 136
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Liogier
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Burkill,1966
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Uphof
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Woi.5
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Wong
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Liogier
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Woi.5
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Woi.5
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Burkill,1966
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Uphof
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb22: 95
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Hartwell
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Woi.5
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Eb30: 136
Kaynak: James A. Duke
Bilgi: Duke USEAGE: M | Wong
Kaynak: James A. Duke

Bilimsel Araştırmalar

Over the years, synthetic pesticides like herbicides, algicides, miticides, bactericides, fumigants, termiticides, repellents, insecticides, molluscicides, nematicides, and pheromones have been used to improve crop yield. When pesticides are used, the over-application and excess discharge into water bodies during rainfall often lead to death of fish and other aquatic life. Even when the fishes still live, their consumption by humans may lead to the biomagnification of chemicals in the body system and can cause deadly diseases, such as cancer, kidney diseases, diabetes, liver dysfunction, eczema, neurological destruction, cardiovascular diseases, and so on. Equally, synthetic pesticides harm the soil texture, soil microbes, animals, and plants. The dangers associated with the use of synthetic pesticides have necessitated the need for alternative use of organic pesticides (biopesticides), which are cheaper, environment friendly, and sustainable. Biopesticides can be sourced from microbes (e.g., metabolites), plants (e.g., from their exudates, essential oil, and extracts from bark, root, and leaves), and nanoparticles of biological origin (e.g., silver and gold nanoparticles). Unlike synthetic pesticides, microbial pesticides are specific in action, can be easily sourced without the need for expensive chemicals, and are environmentally sustainable without residual effects. Phytopesticides have myriad of phytochemical compounds that make them exhibit various mechanisms of action, likewise, they are not associated with the release of greenhouse gases and are of lesser risks to human health compared to the available synthetic pesticides. Nanobiopesticides have higher pesticidal activity, targeted or controlled release with top-notch biocompatibility and biodegradability. In this review, we examined the different types of pesticides, the merits, and demerits of synthetic pesticides and biopesticides, but more importantly, we x-rayed appropriate and sustainable approaches to improve the acceptability and commercial usage of microbial pesticides, phytopesticides, and nanobiopesticides for plant nutrition, crop protection/yield, animal/human health promotion, and their possible incorporation into the integrated pest management system.

Makaleyi görüntüle
Polyphenolic acids are the widely occurring natural products in almost each herbal plant, among which rosmarinic acid (RA, C 18 H 16 O 8 ) is well-known, and is present in over 160 species belonging to many families, especially the Lamiaceae. Aside from this herbal ingredient, dozens of its natural derivatives have also been isolated and characterized from many natural plants. In recent years, with the increasing focus on the natural products as alternative treatments, a large number of pharmacological studies have been carried out to demonstrate the various biological activities of RA such as anti-inflammation, anti-oxidation, anti-diabetes, anti-virus, anti-tumor, neuroprotection, hepatoprotection, etc. In addition, investigations concerning its biosynthesis, extraction, analysis, clinical applications, and pharmacokinetics have also been performed. Although many achievements have been made in various research aspects, there still exist some problems or issues to be answered, especially its toxicity and bioavailability. Thus, we hope that in the case of natural products, the present review can not only provide a comprehensive understanding on RA covering its miscellaneous research fields, but also highlight some of the present issues and future perspectives worth investigating later, in order to help us utilize this polyphenolic acid more efficiently, widely, and safely.

Makaleyi görüntüle
The therapeutic properties of plants have been recognised since time immemorial. Many pathological conditions have been treated using plant-derived medicines. These medicines are used as concoctions or concentrated plant extracts without isolation of active compounds. Modern medicine however, requires the isolation and purification of one or two active compounds. There are however a lot of global health challenges with diseases such as cancer, degenerative diseases, HIV/AIDS and diabetes, of which modern medicine is struggling to provide cures. Many times the isolation of "active compound" has made the compound ineffective. Drug discovery is a multidimensional problem requiring several parameters of both natural and synthetic compounds such as safety, pharmacokinetics and efficacy to be evaluated during drug candidate selection. The advent of latest technologies that enhance drug design hypotheses such as Artificial Intelligence, the use of 'organ-on chip' and microfluidics technologies, means that automation has become part of drug discovery. This has resulted in increased speed in drug discovery and evaluation of the safety, pharmacokinetics and efficacy of candidate compounds whilst allowing novel ways of drug design and synthesis based on natural compounds. Recent advances in analytical and computational techniques have opened new avenues to process complex natural products and to use their structures to derive new and innovative drugs. Indeed, we are in the era of computational molecular design, as applied to natural products. Predictive computational softwares have contributed to the discovery of molecular targets of natural products and their derivatives. In future the use of quantum computing, computational softwares and databases in modelling molecular interactions and predicting features and parameters needed for drug development, such as pharmacokinetic and pharmacodynamics, will result in few false positive leads in drug development. This review discusses plant-based natural product drug discovery and how innovative technologies play a role in next-generation drug discovery.

Makaleyi görüntüle
Aromatic and medicinal plants produce essential oils in the form of secondary metabolites. These essential oils can be used in diverse applications in food, perfume, and cosmetic industries. The use of essential oils as antimicrobials and food preservative agents is of concern because of several reported side effects of synthetic oils. Essential oils have the potential to be used as a food preservative for cereals, grains, pulses, fruits, and vegetables. In this review, we briefly describe the results in relevant literature and summarize the uses of essential oils with special emphasis on their antibacterial, bactericidal, antifungal, fungicidal, and food preservative properties. Essential oils have pronounced antimicrobial and food preservative properties because they consist of a variety of active constituents (e.g., terpenes, terpenoids, carotenoids, coumarins, curcumins) that have great significance in the food industry. Thus, the various properties of essential oils offer the possibility of using natural, safe, eco-friendly, cost-effective, renewable, and easily biodegradable antimicrobials for food commodity preservation in the near future.

Makaleyi görüntüle
Plant-based repellents have been used for generations in traditional practice as a personal protection measure against host-seeking mosquitoes. Knowledge on traditional repellent plants obtained through ethnobotanical studies is a valuable resource for the development of new natural products. Recently, commercial repellent products containing plant-based ingredients have gained increasing popularity among consumers, as these are commonly perceived as "safe" in comparison to long-established synthetic repellents although this is sometimes a misconception. To date insufficient studies have followed standard WHO Pesticide Evaluation Scheme guidelines for repellent testing. There is a need for further standardized studies in order to better evaluate repellent compounds and develop new products that offer high repellency as well as good consumer safety. This paper presents a summary of recent information on testing, efficacy and safety of plant-based repellents as well as promising new developments in the field.

Makaleyi görüntüle

Kaynaklar ve Görseller

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