Karabiber

Bitki adı: Pepper, fruit
Bilimsel adı: Piper nigrum
Cins: Piper
Familya: Piperaceae
Diğer adları: Pepper

Piper nigrum

Genel Bilgiler


Duke – Ethnobotany

Bilgi: Duke USEAGE: F | Burkill,1966
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Ayensu
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Burkill,1966
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Bliss
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Bliss
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Bliss
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Woi.8
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Steinmetz
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Woi.8
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Leung
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Hartwell
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Hartwell
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Hartwell
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Hartwell
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Leung
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Bliss
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Keys
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Steinmetz
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Leung
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Bliss
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Woi.8
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Burkill,1966
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Burkill,1966
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Woi.8
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Hartwell
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Ayensu
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Ayensu
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Bliss
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Tackholm
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Steinmetz
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Bliss
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Bliss
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Uphof
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Tackholm
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Keys
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Woi.8
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Steinmetz
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Woi.8
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Burkill,1966
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Ayensu
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Steinmetz
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Bliss
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Uphof
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Woi.8
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Lewis
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Takeda
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Woi.8
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Woi.8
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Ayensu
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Woi.8
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Uphof
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Uphof
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Uphof
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Leung
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Tackholm
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Woi.8
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Steinmetz
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Keys
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Takeda
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Steinmetz
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Ayensu
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Uphof
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Leung
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Tackholm
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Hartwell
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Woi.8
Kaynak: James A. Duke
Bilgi: Duke USEAGE: F | Hartwell
Kaynak: James A. Duke

Bilimsel Araştırmalar

Extensive documentation on the antimicrobial properties of essential oils and their constituents has been carried out by several workers. Although the mechanism of action of a few essential oil components has been elucidated in many pioneering works in the past, detailed knowledge of most of the compounds and their mechanism of action is still lacking. This knowledge is particularly important for the determination of the effect of essential oils on different microorganisms, how they work in combination with other antimicrobial compounds, and their interaction with food matrix components. Also, recent studies have demonstrated that nanoparticles (NPs) functionalized with essential oils have significant antimicrobial potential against multidrug- resistant pathogens due to an increase in chemical stability and solubility, decreased rapid evaporation and minimized degradation of active essential oil components. The application of encapsulated essential oils also supports their controlled and sustained release, which enhances their bioavailability and efficacy against multidrug-resistant pathogens. In the recent years, due to increasingly negative consumer perceptions of synthetic preservatives, interest in essential oils and their application in food preservation has been amplified. Moreover, the development of resistance to different antimicrobial agents by bacteria, fungi, viruses, parasites, etc. is a great challenge to the medical field for treating the infections caused by them, and hence, there is a pressing need to look for new and novel antimicrobials. To overcome these problems, nano-encapsulation of essential oils and exploiting the synergies between essential oils, constituents of essential oils, and antibiotics along with essential oils have been recommended as an answer to this problem. However, less is known about the interactions that lead to additive, synergistic, or antagonistic effects. A contributing role of this knowledge could be the design of new and more potent antimicrobial blends, and understanding of the interplay between the components of crude essential oils. This review is written with the purpose of giving an overview of current knowledge about the antimicrobial properties of essential oils and their mechanisms of action, components of essential oils, nano-encapsulated essential oils, and synergistic combinations of essential oils so as to find research areas that can facilitate applications of essential oils to overcome the problem of multidrug-resistant micro-organisms.

Makaleyi görüntüle
Tetrahydrocannabinol (THC) has been the primary focus of cannabis research since 1964, when Raphael Mechoulam isolated and synthesized it. More recently, the synergistic contributions of cannabidiol to cannabis pharmacology and analgesia have been scientifically demonstrated. Other phytocannabinoids, including tetrahydrocannabivarin, cannabigerol and cannabichromene, exert additional effects of therapeutic interest. Innovative conventional plant breeding has yielded cannabis chemotypes expressing high titres of each component for future study. This review will explore another echelon of phytotherapeutic agents, the cannabis terpenoids: limonene, myrcene, α-pinene, linalool, β-caryophyllene, caryophyllene oxide, nerolidol and phytol. Terpenoids share a precursor with phytocannabinoids, and are all flavour and fragrance components common to human diets that have been designated Generally Recognized as Safe by the US Food and Drug Administration and other regulatory agencies. Terpenoids are quite potent, and affect animal and even human behaviour when inhaled from ambient air at serum levels in the single digits ng·mL(-1) . They display unique therapeutic effects that may contribute meaningfully to the entourage effects of cannabis-based medicinal extracts. Particular focus will be placed on phytocannabinoid-terpenoid interactions that could produce synergy with respect to treatment of pain, inflammation, depression, anxiety, addiction, epilepsy, cancer, fungal and bacterial infections (including methicillin-resistant Staphylococcus aureus). Scientific evidence is presented for non-cannabinoid plant components as putative antidotes to intoxicating effects of THC that could increase its therapeutic index. Methods for investigating entourage effects in future experiments will be proposed. Phytocannabinoid-terpenoid synergy, if proven, increases the likelihood that an extensive pipeline of new therapeutic products is possible from this venerable plant. http://dx.doi.org/10.1111/bph.2011.163.issue-7.

Makaleyi görüntüle
The psychoactive cannabinoids from Cannabis sativa L. and the arachidonic acid-derived endocannabinoids are nonselective natural ligands for cannabinoid receptor type 1 (CB(1)) and CB(2) receptors. Although the CB(1) receptor is responsible for the psychomodulatory effects, activation of the CB(2) receptor is a potential therapeutic strategy for the treatment of inflammation, pain, atherosclerosis, and osteoporosis. Here, we report that the widespread plant volatile (E)-beta-caryophyllene [(E)-BCP] selectively binds to the CB(2) receptor (K(i) = 155 +/- 4 nM) and that it is a functional CB(2) agonist. Intriguingly, (E)-BCP is a common constituent of the essential oils of numerous spice and food plants and a major component in Cannabis. Molecular docking simulations have identified a putative binding site of (E)-BCP in the CB(2) receptor, showing ligand pi-pi stacking interactions with residues F117 and W258. Upon binding to the CB(2) receptor, (E)-BCP inhibits adenylate cylcase, leads to intracellular calcium transients and weakly activates the mitogen-activated kinases Erk1/2 and p38 in primary human monocytes. (E)-BCP (500 nM) inhibits lipopolysaccharide (LPS)-induced proinflammatory cytokine expression in peripheral blood and attenuates LPS-stimulated Erk1/2 and JNK1/2 phosphorylation in monocytes. Furthermore, peroral (E)-BCP at 5 mg/kg strongly reduces the carrageenan-induced inflammatory response in wild-type mice but not in mice lacking CB(2) receptors, providing evidence that this natural product exerts cannabimimetic effects in vivo. These results identify (E)-BCP as a functional nonpsychoactive CB(2) receptor ligand in foodstuff and as a macrocyclic antiinflammatory cannabinoid in Cannabis.

Makaleyi görüntüle
The volatile oils of black pepper [Piper nigrum L. (Piperaceae)], clove [Syzygium aromaticum (L.) Merr. & Perry (Myrtaceae)], geranium [Pelargonium graveolens L'Herit (Geraniaceae)], nutmeg [Myristica fragrans Houtt. (Myristicaceae), oregano [Origanum vulgare ssp. hirtum (Link) Letsw. (Lamiaceae)] and thyme [Thymus vulgaris L. (Lamiaceae)] were assessed for antibacterial activity against 25 different genera of bacteria. These included animal and plant pathogens, food poisoning and spoilage bacteria. The volatile oils exhibited considerable inhibitory effects against all the organisms under test while their major components demonstrated various degrees of growth inhibition.

Makaleyi görüntüle
The use of and search for drugs and dietary supplements derived from plants have accelerated in recent years. Ethnopharmacologists, botanists, microbiologists, and natural-products chemists are combing the Earth for phytochemicals and "leads" which could be developed for treatment of infectious diseases. While 25 to 50% of current pharmaceuticals are derived from plants, none are used as antimicrobials. Traditional healers have long used plants to prevent or cure infectious conditions; Western medicine is trying to duplicate their successes. Plants are rich in a wide variety of secondary metabolites, such as tannins, terpenoids, alkaloids, and flavonoids, which have been found in vitro to have antimicrobial properties. This review attempts to summarize the current status of botanical screening efforts, as well as in vivo studies of their effectiveness and toxicity. The structure and antimicrobial properties of phytochemicals are also addressed. Since many of these compounds are currently available as unregulated botanical preparations and their use by the public is increasing rapidly, clinicians need to consider the consequences of patients self-medicating with these preparations.

Makaleyi görüntüle

Kaynaklar ve Görseller

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