|Year : 2009 | Volume
| Issue : 6 | Page : 280-306
The genus chenopodium: Phytochemistry, ethnopharmacology and pharmacology
Zlatina Kokanova-Nedialkova, Paraskev T Nedialkov, Stefan D Nikolov
Pharmacognosy Department, Faculty of Pharmacy, Medical University of Sofia, Dunav str. 2, 1000 Sofia, Bulgaria
|Date of Web Publication||24-Feb-2010|
Pharmacognosy Department, Faculty of Pharmacy, Medical University of Sofia, Dunav str. 2, 1000 Sofia
Source of Support: None, Conflict of Interest: None
The review includes 154 references on the genus Chenopodium covered up to December 2008 and has been compiled using references mainly from Chemical Abstracts and Pubmed. This article briefly reviews the phytochemistry, ethnopharmacology and pharmacology of Chenopodium genus. Three hundred seventy nine compounds isolated from different species are reported. Fenolics, flavonoids, saponins, ecdysteroids and triterpenoids were the major classes of phytoconstituents of this genus. The detailed distribution of these compounds among the different Chenopodium species with the related references is given in tables. In addition, this review discusses the traditional medicinal uses of different Chenopodium species as well as recent developments done in this aspect.
Keywords: Chenopodium, chemical constituents, folk medicine, pharmacology
|How to cite this article:|
Kokanova-Nedialkova Z, Nedialkov PT, Nikolov SD. The genus chenopodium: Phytochemistry, ethnopharmacology and pharmacology. Phcog Rev 2009;3:280-306
|How to cite this URL:|
Kokanova-Nedialkova Z, Nedialkov PT, Nikolov SD. The genus chenopodium: Phytochemistry, ethnopharmacology and pharmacology. Phcog Rev [serial online] 2009 [cited 2017 Oct 19];3:280-306. Available from: http://www.phcogrev.com/text.asp?2009/3/6/280/59528
| Introduction|| |
According to the WHO, about three-quarters of the world population relies upon traditional remedies (mainly herbs) for the health care of its people. In fact, plants are the oldest friends of mankind. They not only provided food and shelter but also served the humanity to cure different ailments  . The family Chenopodiaceae is a large family comprising about 102 genera and 1400 species  . The genus Chenopodium includes varieties of weedy herbs (more than 200 species) native to Europe, Asia, and both North and South America  . Many of these possess therapeutic and edible properties. However, at present, the medicinal uses of Chenopodium are not widely known.
The review includes 154 references on the genus Chenopodium and has been compiled using mainly Chemical Abstracts and Pubmed. The article briefly reviews the phytochemistry, ethnopharmacology and pharmacology. Three hundred seventy nine compounds of diverse chemical nature (fenolics, saponins, ecdysteroids, triterpenoids, etc.) isolated from different species were included. The detailed distribution of these compounds among the different species of Chenopodium is shown in the [Table 1] and [Table 2]. A wide range of applications in folk medicine as well as pharmacological activities of chenopods (antimicrobial, antiviral, antifungal, anthelmintic, antioxidant, trypanocidal, antineoplastic, immunomodulatory, etc.) appeared in the literature have been discussed as well.
The authors hope to attract the attention of the scientific community on the unexplored potential of the Chenopodium species so that potential species can be exploited as therapeutic agents.
| Phytochemistry|| |
The widespread uses of Chenopodium genus in traditional medicine have resulted in considerable chemical analysis of the plants and their active principles. The phytochemical investigations of genus Chenopodium have afforded compounds with vast variety of structural patterns. From the phytochemical point of view, the chenopods were reported to contain: minerals, primary metabolites- carbohydrates, amino acids, nonpolar constituents, proteins, aromatic cytokinins, hormones [Table 1] and secondary metabolites- flavonoids, saponins, terpenes, sterols, alkaloids and vitamins. A detailed distribution of later classes of metabolites in Chenopodium species were shown in [Table 2].
The content of oxalic acid in C. album is with a range of values from 360 to 2000 mg/100g  . Oxalic, malic and succinic acids were identified in the EtOH and H 2 O-EtOH extracts of C. ambrosioides  .
Phenol derivatives-alcohols, aldexydes and glycosides
Analysis of the aqueous solution of the hydro-alcoholic extract from the twigs of C. album after acetone precipitation, led to the isolation of 4-vinyl phenol 1  . Resorcinol 2 and 4methyl resorcinol 3 were tentatively identified as being the principal phenolic compounds of C. pallidicaule  . The analysis of the aqueous solution of the hydro-alcoholic extract from the leaves of C. album after acetone precipitation, led to the isolation of 4 , vanillic alcohol 5 and 4-methyl benzaldehyde 6  . Vanillic acid 7 was identified in C. pallidicaule (canihua) and its amount was higher than that in oats, sorghum, barley, wheat and purple corn, suggesting that canihua is an important source of this phenolic acid  . Previously, vanillic acid glucosyl ester 8 was found in the seeds of C. quinoa  . Cell-suspension cultures of C. rubrum accumulate various soluble secondary phenolic metabolites such as glycosides 9 and 10  . A new phenolic glycoside, named chenoalbuside 11 was isolated from the methanol extract of the seeds of C. album  . Cinnamic acid 12 , sinapic acid 14 , ferulic acid 16 and their derivatives 13 and methyl ferulate 17 were isolated from the leaves of C. album  . Ferulic acid 16 was also reported for C. pallidicaule  . The hydroxycinnamic acylglycosides 15 and 18-20 were isolated from the cell-suspension cultures of C. rubrum  . In 0addition, Strack et al. isolated 18 and 20 from the cellsuspension cultures of C. rubrum  . New hydroxycinnamic acid esters 19 and 21 were also isolated from the cell suspension cultures of C. rubrum  . The structures 1-21 are shown in [Figure 1].
The analysis of the aqueous solution of the hydro-alcoholic extract from the leaves of C. album after acetone precipitation, led to the isolation of 7 lignans: pinoresinol 22 , syringaresinol 23 , lariciresinol 24 its derivative compound 25 and three sesquilignans 26-28  . Compounds 27 and 28 were new natural products. The structures 22-28 are shown in [Figure 2].
One coumarin scopoletin 29 was isolated from the aerial parts of C. murale  . The structure is shown in [Figure 2].
Rustembekova et al. reported the occurence of the flavon chrysoeriol 30 in the methanolic extract from the aerial parts of C. botrys. The compound was not previously found in any representatives of Chenopodium  . From C. botrys have been isolated 5 flavons: salvigenin 31 , sinensetin 34 , hispidulin 35 and their derivatives 32 and 33 . None of them have been previously reported for C. botrys  . Bahrman et al. investigated 5 species of Chenopodium: C. ambrosioides, C. botrys, C. hybridum, C. murale and C. quinoa. The flavons hispidulin 35 and jaclosidin 36 were found only in C. botrys  . Kamil et al. isolated a novel flavon glycoside 37 from the fruits of C. ambrosioides  . The structures 30-37 are shown in [Figure 3].
Flavonol and their glycosides
Kaempferol 38 , quercetin 61 , isorhamnetin 75 and herbacetin 82 and their glycosides were the only flavonols isolated from Chenopodium species. Quercetin 61 was found in 7, kaempferol 38 in 5, isorhamnetin 75 in 2 and herbacetin 82 in 1 species. Kaempferol 38 was encountered in C. ambrosioides  , in the aerial parts of C. album  and C. murale , as well as in C. pallidicaule  . The occurrence of quercetin 61 in the aerial parts and fruits of C. ambrosioides , as well as in the aerial parts of C. album  , C. botrys  , C. hybridum  , C. murale , , C. pallidicaule  and C. quinoa  was reported. Isorhamnetin 75 was found in the fruits of C. ambrosioides  and C. quinoa  . The aerial part of C. murale also produced herbacetin 82  . The structures are shown in [Figure 3].
The group of kaempferol glycosides 39-60 includes mono, di and triglycosides. These were found in the aerial parts of C. album ,,, , C. ambrosioides  , C. ficifolium  , C. murale ,,, , C. opulifolium  as well as in the seeds of C. pallidicaule  , C. quinoa ,, in the fruits  and leaves  of C. ambrosioides and in the leaves of C. hircinum  . Arisawa and co-workers isolated a kaemferol triglycoside named ambroside from the leaves of C. ambrosioides and four variants 43a-43d of its structure were suggested  . The structures 39-60 are shown in [Figure 3].
Quercetin glycosides 62-74 were found in 7 species of Chenopodium. These were isolated from the aerial parts of C. album ,, , C. botrys  , C. murale  and C. opulifolium  , seeds of C. pallidicaule  and C. quinoa  as well as from the leaves of C. album and C. hirsutum  . Four flavonol glycosides 76-79 of isorhamnetin 75 were isolated from the seeds of C. pallidicaule, of which 79 was a new natural product  . Phytochemical evaluation of the whole plant of C. murale revealed the presence of two flavonols: 80 and 81 . These compounds were known, but isolated for the first time from this plant species  . The structures 62-81 are shown in [Figure 3].
Flavanones and isoflavones
The flavanone dihydrowogonin 83 as well as the isoflavones irilin A 84 and irilin B 85 were isolated from the dichloromethane extract of the aerial parts of C. procerum  . The structures 83-85 are shown in [Figure 3].
Penarrieta et al. reported the presence of catechin 86 in the water-soluble extract from C. pallidicaule, while catechin gallate 87 was encountered in the water-insoluble extract from this plant  . The structures of the reported catechins are shown in [Figure 3].
The occurrence of sitosterol 88 was encountered in the leaves and stems of C. album, C. urbicum and C. leptophyllum  . This compound was also found in cell the cultures of C. rubrum  and C. album  . Sitosterol 88 and its glucoside 89 were isolated from the aerial parts of C. ficifolium  . The later compound was also found in C. murale  . Sitostanol 90 was isolated from the leaves and stems of C. album  , while campesterol 95 was found in C. album, C. urbicum, C. leptophyllum  and in the cell cultures of C. rubrum  , respectively. Stigmasterol 91 was found to be a constituent of 4 species namely C. album , , C. leptophyllum  , C. rubrum  and C. urbicum  . The roots of C. ficifolium  and the aerial parts of C. murale  contain a stigmasterol glucoside 92 . Stigmasterol derivatives 93 and 94 were found in the aerial parts of C. multifidum  . Phytochemical investigation of the leaves and stems of C. ambrosioides, C. rubrum and C. urbicum revealed the presence of avenasterol 96 and spinasterol 97  . These compounds were also found in the leaves and stems of C. leptophyllum and C. album, respectively  . A spinasterol derivative 98 was found to be a constituent of C. ambrosioides, C. album, C. rubrum, C. urbicum and C. leptophyllum  . Corio-Costet and co-workers established the presence of two phytosterols 97 and 98 in the cell cultures of C. album  . The compound 99 was shown to be the major sterol in C. multifidum  . The structures 88-99 are shown in [Figure 4].
The group of zoosterols includes cholesterol 100. Cholesterol 100 was identified in the leaves and stems of C. album  . The structure is shown in [Figure 4].
20-hydroxyecdysone 101 was found in four species: in the aerial parts  , seeds  , leaves  and roots  of C. album, in the roots of C. bonus-henricus  , as well as in the seeds of C. pallidicaule  and C. quinoa , . The occurrence of its 20,22- and 2,3- monoacetonides compounds 102 and 103 , respectively were reported for the leaves of C. album  . The group of ecdysteroids includes makisterone A 104 and its derivatives 105 and 106. These were reported in the seeds of C. quinoa  . The presence of compound 106 was also established in the roots of C. bonus-henricus  . Compound 107 is a constituent in the seeds of C. album  , C. pallidicaule  and C. quinoa  . Three new ecdysteroids 108-110  and kancollosterone 112  were isolated from the seeds of C. quinoa. Polypodine B 113 was isolated from the roots  and the whole plant , of C. album and from the roots of C. bonus-henricus  . Phytochemical investigation of the leaves of C. album revealed the presence of poststerone 114 and a new ecdysteroid 115  . C. album also contains compound 111 , . The structures 101-115 are shown in [Figure 4].
Acyclic monoterpenoids - hydrocarbones monoterpenoids and alcohols
Three acyclic hydrocarbone monoterpenoids b-myrcene 116 , cis-b-ocimene 117 and its trans isomer 118 were isolated from the essential oil of the leaves of C. ambrosioides  . In addition, b-myrcene 116 was found also in other Chenopodium species, namely C. botrys, C. murale, C. opulifolium and C. polyspermum  . Two alcohols nerol 119  and geraniol 120  were reported in the oil of C. ambrosioides. Citronellyl acetate 121 and compound 122 were isolated from the essential oil of the leaves of C. ambrosioides  . The structures 116-122 are shown in [Figure 5].
Monocyclic monoterpenoids - hydrocarbones and aromatic monoterpenoids, alcohols, ketones, acetates, hydroperoxides and peroxides.
This group of monocyclic hydrocarbone monoterpenoids includes - limonene 123 , α-terpinene 124 and its γ-isomer 125 , α-terpinolen 126 , b-phellandrene 127 and three related derivatives 128- 130 that were found in different species- C. album, C. ambrosioides, C. bongs, C. ficifolium, C. foliosum, C. missouriense, C. murale, C. opulifolium, C. polyspermum, C. quinoa, C. rubrum, C. urbicum and C. vulvaria. Aromatic monoterpenoid p-cymene 131 was discovered in 13 species- C. album, C. ambrosioides, C. bongs, C. chilense, C. ficifolium, C. foliosum, C. missouriense, C. multifidum, C. murale, C. opulifolium, C. polyspermum, C. quinoa and C. urbicum while its derivative 132 only in one - C. ambrosioides. Carvacrol 133 was detected in four: C. ambrosioides, C. bongs , C. ficifolium, C. foliosum while thymol 134 was present in three: C. ambrosioides, C. botrys and C. foliosum. Phytochemical investigation of C. murale and C. quinoa led to the isolation of trans-carveol 136  . This compound was also reported for C. bongs  . C. ambrosioides contains trans-pinocarveol 137  and α-terpineol 138  while γ- terpineol 139 was reported for C. botrys  . The compound 140 was identified in C. ficifolium, C. foliosum, C. missouriense, C. urbicum while the compound 141 was found in C. foliosum, C. polyspermum, C. quinoa, C. urbicum  . Four related derivatives were isolated from C. ambrosioides- 142, 143  , 144  , 147  and from C. multifidum compounds 145 and 146  . Carvone 148  and pinocarvone 149 , were isolated from C. ambrosioides. Compound 149 was also identified in three species- C. murale, C. quinoa and C. urbicum  . In addition, the presence of piperitone 150  and its acetates 151  , 153 , 154  and 155 ,, were reported for C. ambrosioides. The later compound 155 was also found in C. album, C. botrys, C. ficifolium, C. foliosum, C. missouriense, C. murale, C. rubrum, C. vulvaria and C. quinoa  . The presence of compound 152 in C. multifidum was established  . Four monoterpene hydroperoxides 156-159  and trans-pinocarveylhydroperoxide 160  were isolated from the aerial parts of C. ambrosioides. The group of monoterpene peroxides includes ascaridole 161 , isoascaridole 162, dihydroascaridole 163 , piperitone oxide 164 , cariophyllenepoxide 168 and three related derivatives 165-167. The structures 123-168 are shown in [Figure 5].
Bicyclic Monoterpenes - carene, pinene and camphane derivatives
C. ambrosioides contains ∆ 3 -carene 169  and A 4 -carene 170 , . The former compound 169 was also found in C. ficifolium, C. polyspermum, C. rubrum, C. urbicum  and in the oil of C. multifidum  . Two pinen isomers α-pinene 171 and b-pinene 172 were found in different species of Chenopodium: C. album, C. ambrosioides, C. bongs, C. foliosum, C. murale, C. opulifolium, C. quinoa, C. vulvaria and C. urbicum. Both camphene 173 and camphor 174 were detected in C. foliosum, C. opulifolium and C. quinoa. The former 173 was also found in C. urbicum and C. botrys, while the later 174 in C. album  , C. botrys  and C. ambrosioides  . The aerial parts of C. ambrosioides contained chenopanone 175  while in the essential oil apiole 176 was found  . The structures 169-176 are shown in [Figure 5].
The presence of elemol 177 , , its acetate 178  was reported for the essential oil of C. bongs. b-Elemene 179 and β-caryophyllene 180 were identified in C. botrys, C. rubrum and C. urbicum. In addition the later 180 was found in C. quinoa, C. foliosum  and C. ambrosioides  . The later species also contained γ-curcumene 181  . The structures 177-181 are shown in [Figure 6].
Bicyclic sesquiterpenoids were found in C. botrys, C. rubrum and C. album. Guaiol 182  and its derivatives 183  and 184  were reported in C. bongs. The compound 183 was found to be a new sesquiterpen alcohol. The group of αcadinol 185  , botrydiol 189 , and selinan derivatives β-selinene 186  , 187  as well as 188  were also found in C. bout's. The compound 186 was also encountered in C. rubrum  . Further constituents of the essential oil of C. bongs were α-eudesmol 190 , β-eudesmol 192 , γ-eudesmol 194  as well as their acetates 191, 193, 195  and compounds 196  , 197 and 198  . α-Chenopodiol 199, b-chenopodiol 202 ,, , the  -monoacetate 207 , the  monoacetates 200, 201, 203 as well as chenopodienolone 208  were also identified in this plant. Phytochemical investigation of C. album revealed the presence of cryptomeridiol 204 and its 8-α-acetoxy derivative 206  . Acetate of cryptomeridiol 205 was detected in the essential oil of C. botrys  . Ten sesquiterpenes of eudesmane type were isolated from the aerial parts of C. botrys: three triols: chenopotriol 209, 3-epichenopotriol 211 , isochenopotriol 217 , two tetraols: chenopotetraol 213 , 3-epichenopotetraol 215 and their  -monoacetates 210, 212, 214, 216 and 218 , respectively  . The structures 182-218 are shown in [Figure 6].
A triterpene 219 was isolated from the aerial parts of C. multifidum  . The structure is shown in [Figure 7].
The main carotenoids in C. ambrosioides were α-carotene 220 and b-carotene 221  . Two new apocarotenoids 222 , 223 and 16 previously reported: S-(+)-abscisic alcohol 224 , 225-228 , blumenol A 229 , (+)-dehydrovomifoliol 230 , 231-236 , grasshopper ketone 237 and racemic allenic ketones 238 and 239 were isolated from the weed of C. album. Five of the known compounds ( 231 , 235 , 236 , 238 and 239 ) were previously reported only as synthetic compounds  . The structures 220-239 are shown in [Figure 7].
Sapogenins and their glycosides
The group includes four sapogenins: hederagenin 240 , oleanolic acid 250 , phytolaccagenic acid 264 and serjanic acid 275 . These were found in C. quinoa  - brans of the grains  , leaves and seeds  . Oleanolic acid 250 also was identified in the roots of C. ficifolium  .
Hederagenin glycosides 241-249 and phytolaccagenic acid glycosides 265-274 were isolated from the seeds of C. quinoa ,,,,,,, and C. pallidicaule  .
Phytochemical investigation of the flowers, fruits, seed coats and seeds of C. quinoa revealed the presence of serjanic acid glycosides 276-280 , . The structures 276 , 277 as well as 282 and 283 proved to be the new natural compounds  , while compound 281 was previously reported , . A further constituents of C. quinoa seeds were the glycosides of oleanolic acid calenduloside E 253  , chikusetsusaponin IVa 257 ,,, , quinoside D 256 ,, , quinoside A 249  and glycosides 251 , 252 , 255  , 259 , , 260  , 261 , . Compound 260 was also found in the seeds of C. pallidicaule . Constituents of the seeds of this species were also the glycosises 258 and 262  . The isolation of three glycosides of oleanolic acid calenduloside E 253 , chikusetsusaponin IVa 257 and 254 from the roots of C. album were reported  . A new triterpene saponin 263 together with the known compound 257 was obtained from the roots of C. ficifolium  . The structures 240-283 are shown in [Figure 8].
Piperidine, pyridine and tropane alkaloids are the major alkaloids of Chenopodium genus.
Phytochemical investigation of the aerial parts of C. murale let to the isolation of piperidine alkaloid piperine 284 for the first time  . Pyridine derivatives were obtained from C. rubrum  and C. quinoa  . Vulgaxanthin I 285 and vulgaxanthin II 286 were the constituents of the cells suspension cultures of C. rubrum  , while trigonelline 287 , its two esters 288 , 289 and compound 290 were found in the polar extracts of the seeds of C. quinoa  . The cells suspension cultures of C. rubrum were the source of aromatic indol derivatives such as betanin 291 , , amaranthin 292 , and celosianin II 293 ,, . The structures 284-293 are shown in [Figure 9].
Amides and amines
Choline 304 was detected in the water-soluble fraction of the MeOH extract from dry C. album herb  . Seven cinnamic acid amides 294-299 and 302 were isolated from C. album of which one 297 , was described for the first time  . Previously, phenolic amide 295 was found in the roots of C. album  . N-feruloylaspartate 300 was encountered in the cell-suspension cultures of C. rubrum  . A novel cinnamic acid amide alkaloid, chenoalbicine 301 was isolated from the roots of C. album  . Betaine 303 was found to be a constituent of the C. botrys herb. Rustembekova and coworkers reported 1.52% yield of betain  . Analysis of the polar extracts from C. quinoa seeds also led to the isolation of this compound  . The structures 294-304 are shown in [Figure 10].
Vitamin A 305 was isolated from C. album and the content was between 13,000 and 15,000 IU/ 100 mg fresh weight  . Vitamin C 307 was detected in C. album ,,,, and C. bonus-henricus  . C. album was found to contain further water-soluble vitamins: folic acid 306 , thiamine 308 and niacin 309  . The structures 305-309 are shown in [Figure 11].
| Ethnopharmacology|| |
The importance Chenopodium species was due to their wide variety of medicinal properties. A wide range of application in folk medicine of plants belonging to this genus has been reported. [Table 3] summarizes ethnopharmacological data on chenopods found in the literature.
| Biological Activity|| |
To validate traditional claims associated with the genus many studies have been carried out using various animal models and in vitro assays. These studies showed that the diverse Chenopodium species have a potential for developing potent remedial agents. Some major activities are described below.
Vichkanova and Goryunova showed that saponins from C. anthelminticum were the strongest antiviral agents tested against influenza type A infections in mouse tissue  .
The essential oil from aerial parts of C. botrys, expressed significant bactericidal activity against selected strains of G(+), G(-) bacteria comparable to that of the reference antibiotics amicacin and cephotaxim  . The essential oil obtained from C. botrys showed a strong activity against the tested dermatophytes - Trichophyton mentagrophytes, Epidermo phytonfoccosum and Microsporum canis. These results confirm that the oil possessed bactericidal but not bacteriostatic effects  . The essential oil from C. botrys exhibited significant antibacterial activity against Salmonella More Details aureus and Bacillus cereus. The residual water solution showed a good activity against Salmonella haidelberg and Bacillus cereus  . Ruggeri et al. investigated the total hydrocarbon fraction from the aerial parts of C. multifidum. The extract was active against G(+) bacteria  . Chinese drug composition for treatment of peptic ulcer and preparations thereof were formulated. Capsules of the weight 80 mg containing oil from C. ambrosioides about 39 mg and an oil from Adina pilulifera about 1mg. Among 633 cases the results of clinical symptom and Barium meal check showed that total effective rate was 95.26%. The patients were administered with 3 capsules and one course of treatment is 4 weeks  . A new capsule formulation of C. ambrosioides extract for treating gastritis and peptic ulcer caused by Helicobacter pylori and a new method for preparing C. ambrosioidesextracts were reported  . Easily obtainable raw material, simple preparation process, remarkable effect as well as less side effects were the major advantages of the invented product , .
The essential oil extracted from the leaves of C. ambrosioides inhibited the myceliar growth of Aspergillus flavus at 100 μg/ml. In addition, it also exhibited broad fungitoxic spectrum against Aspergillus niger, Aspergillus fumigatus, Botryodiplodia theobromae, Cladosporium cladosporioides, Helminthosporium oryzae, Pythium debaryanum at 100 μg/ml  . In an alternative investigation, the antifungal activity of essential oil from C. ambrosioides L. was evaluated by the poison food assay at concentrations of 0.3%, 0.1%, and 0.05% with eight postharvest deteriorating fungi (Aspergillus flavus, Aspergillus glaucus, Aspergillus niger, Aspergillus ochraceous, Colletotrichum gloesporioides, Colletotrichum musae, Fusarium oxysporum, and Fusarium semitectum). Autobiographic thin layer chromatography of the essential oil used to separate the principal fungitoxic fraction yielded only one fraction that completely inhibited the growth of all test fungi at a concentration of 0.1%. This fraction was characterized by Kovats retention indices and GC-MS presenting a composition of p-cymene 131 (25.4 %), (Z)ascaridole (44.4 %), and (E)-ascaridole (30.2 %). The results suggest that the ascaridoles were the principal fungitoxic components of the essential oil  . The essential oil from the aerial parts of C. botrys, expressed significant fungicidal activity against selected strains of Aspergillus niger and Candida albicans comparable to that of the reference antibiotics nystatine and amphotericin  . The total saponins from C. quinoa were found to inhibit the growth of Candida albicans at 50 μg/mL  .
A crude aqueous methanolic extract of C. album possess anthelmintic activity in vitro and in vivo. In vitro anthelmintic activity was evaluated by administering the crude power and the extract in increasing doses 1.0-3.0 g/kg. In vivo maximum reduction in eggs per gram of faeces was recorded as 82.2% at 3.0g/kg on day 5 post-treatment  . The anthelmintic potential of C. ambrosioides in goats has been also reported  .
Ascaridole 161 along with four monoterpene hydroperoxides 156-159 isolated from the aerial parts of C. ambrosioides were tested in vitro for trypanocidal activity against epimastigotes of Trypanosoma cruzi with values of 23, 1.2, 1.6, 3.1, and 0.8 μM, respectively  . Monzote et al. evaluated the leishmanicidal effect of an essential oil from C. ambrosioides against Leishmania amazonensis. The tested product had a potend inhibitory action against promastigote and amastigote forms, with ED 50 values of 3.7 and 4.6 μg/ml, respectively. The essential oil showed a moderate toxicity on macrophages from BALB/c mice. An optimal dose of 30 mg/kg/day was effective when administered during 15 days by intraperitoneal route to BALB/c mice infected experimentally  . Monzote et al. investigated different routes of treatment. The intraperitoneal administration of the essential oil at dose of 30 mg/kg prevented lesion development and decrease the parasite burden. Oral administration retarded the infection compared with untreated mice. The intraperitoneal and oral treatment at 30 mg/kg had better antileishmanial effect that treatment with the reference drug amphotericin B at 1 mg/kg  . It was found that the essential oil of C. ambrosioides showed a synergic activity after incubation in conjunction with pentamidine against promastigotes of Leishmania amazoniensis  . Furthermore, the in vitro antileishmanial effect of the essential oil from C. ambrosioides against Leishmania donovani was investigated as well. The essential oil showed significant activity against promastigotes and amastigotes with a EC50 of 4.45 and 5.1 μg/ml, respectively. It caused an irreversible inhibition of the growth of promastigotes after a treatment with 100 or 10 μg/ml for 1 or 24 h, respectively  . Intralesional treatment with a hydroallcoholic crude extract from the leaves of C. ambrosioides was more efficient than the oral treatment since the former was able to control the dissemination of infection. This effect can be due to either a direct leishmanicidal effect of the extract or the improvement in the nitric oxid production by extract-stimulated macrophages  .
Ascaridole 161 was found to be a potent inhibitor in vitro of plasmodial . growth of Plasmodium falciparum. After 3 days, development was arrested by concentrations of 0.05 μM, and at 0.1 μM no parasites were visible in the culture. The peroxide group is essential for the antimalarial activity of ascaridole 161 , as judged from the fact that cineol, which bears an epoxide group instead of the peroxide group found in ascaridole 161 , was totally inactive at indentical concentrations  . Giove studied C. ambrosioides as an antiparasitic agent in two villages near Tarapoto, San Martin. Extracts from leaves were given to 72 patients (children and adults). Their stools were analized before and 8 days after the intake. The efficacy was 100% for Ancilostoma and 50% for Ascaris  .
The oil extracted from C. ambrosioides showed a promising activity against Trichomonas vaginalis with minimum inhibitory concentrations of 25 mg/mL  .
Efferth et al., 2002 found that ascaridole 161 exerts antineoplastic activity against different tumor cell lines in vitro (CCRF-CEM, HL60, MDA-MB-231). Ascitic and solid Ehrlich tumor inhibition by the i.p administration of C. ambrosioides hydroalkoholic extract of the leaves was investigated in vivo. The treatments increased the survival of tumor-bearing mice. C. ambrosioides has a potent anti-tumoral effect which was evident with a small dose and even when the treatment was given two days after the tumor implantation. This effect is probably related with anti-oxidant properties of C. ambrosioides  . Hall patented a method of treating abnormal growths in patients - cancers, tumors, fibroids, cysts and cystadenomas. Dry leaves and stalks of C. ambrosioides were administered as a tea beverage and the patients drink the tea daily. The method also reduces high PSA counts  .
A new phenolic glycoside named chenoalbuside 11 that was isolated from C. album was assessed by the DPPH assay, and the RC50 value was found to be 1.4Χ10 -4 mg/mL  . Puhaca et al. showed that plant extract from C. ambrosioides alone and with synergist (lecithin and citric acid) have effects similar to those of common antioxidants and might be applied in stabilization of unsaturated compounds in the food and pharmaceutical industry  . An antioxidant screening of medicinal herbal teas showed a moderate TEAC activity of the water extract of C. ambrosioides (144). The essential oil from C. ambrosioides exhibited a potent antioxidant activity when it was tested by ABTS method  . The water-soluble and waterinsoluble extracts from samples of C. pallidicaule were tested for the total antioxidant capacity by FRAP and ABTS methods. It was revealed that resorcinols contributed most of the antioxidant capacity of the water-soluble extract. The results show that C. pallidicaule is a potential source of natural antioxidant compounds that can be important for human health  . Six flavonol glycosides isolated from C. quinoa seeds 51-54 , 70 and 72 exhibited antioxidant activity in DPPH test. Two quercetine 3-glycosides showed much stronger activity compared to that of kaempferol 3-glycosides. The results confirm that compounds with 3',4'-dihydroxy substituents in the B ring have much stronger antioxidative activities than those without ortho-dihydroxy substitution in the B ring and suggests that quinoa seeds serve as a good source of free radical scavenging agents.  . Jung et al. investigated the antioxidant activity of the seeds and sprouts of C. quinoa by using a new rapid AP method. The method was performed by ESR spectroscopy and was based on the well-known DPPH method with the major diference that both the antioxidative capacity and the antioxidative activity were used to characterise an antioxidant. The resulting antioxidative power was expressed in AU, where 1 AU corresponds to the activity of a 1 ppm solution of vitamin C as a benchmark  . Three new phytoecdysteroids 108-110 with DPPH scavenging ability were isolated from the seeds of C. quinoa  .
It was found that the essential oil from C. ambrosioides was toxic to mammalian systems , . The cytogenetic effects of aqueous extracts of C. multifidum were determined by addition of the extracts and fractions to human lymphocyte cultures. Toxicity was evaluated by analysis of chromosomal aberrations, sister chromatid exchange, mitotic and replication indexes. These results suggested genotoxic effects of Paico aqueous extracts  . Gadano et al. investigated the genetic damaged induced by decoction and infusion of C. ambrosioides which was assayed in different concentrations (1, 10, 100, 1000 μg/ml), by addition of the extract to human lymphocytes cell cultures. The results suggest a possible genotoxic effect  .
Mousavi et al. found that co-administration of CpG oligonucleotides and C. album extract reverse IgG2a/IgG1 ratios and increase IFN-γ and IL-10 productions in a murine model of asthma. These components could be used with the other allergens in order to induce the prevention of inflammatory conditions  . Rossi-Bergmann et al. have tested the immunomodulatory activity of the crude extact of C. ambrosioides. It was found that the extract was strongly stimulatory to murine but not to human lymphocytes and that the stimulatory substance was present in a protein-enriched fraction  .
Agglutinating and hemolytical activity
A hemagglutinin was isolated from the leaves of C. amaranticolor. This compound has an abillity to aglutinate rabbit erytrocytes  . The hemolitic activities of triterpenoid saponins from C. quinoa were investigated. Results of the hemolysis test showed that the only bidesmoside to be active, chikusetsusaponin IVa 257 , showed activity at 260 μg/mL, which can only be described as week. The most active saponin was its monodesmoside form 253 . Hederagenin monodesmosides also showed strong activity  .
Analgesic, spasmolitic and sedative activity
Compared with the analgesic effect of novaldin (5 mg/kg b. wt.) on rats, the ethanolic extracts from C. album and C. murale were considered to have a significant analgesic activity. The untreated rats responded to the electric shock at about 73 volts. The extract-treated rats gave a response at about 150 and 140 volts after 3 h  . The oral administration of ascaridole 161 at a dose of 100 mg/kg showed the hypothermic effect and an analgesic effect on acetic acidinduced writhing in mice. Ascaridole 161 reduced the locomotor activity which was enhanced by methamphetamine. The administration of 300 mg/kg, however produced convultions and lethal toxicity in mice. These facts indicate that ascaridole isolated from C. ambrosioides possibly has sedative and analgesic effect  . The methanolic extract from the aerial portions of C. chilense used in Chilean traditional medicine as a remedy for stomach-ache, has been found to exert the major spasmolytic activity in acetylcholine contracted rat ileum. This extract is practically non-toxic both for rats and brine shrimp Artemia salina in acute toxicity test  . At doses (300-700 mg kg -1 ), methanol extract of C. ambrosioides has an analgesic effect with the hot plate device maintained at 55C as well as on the early and late phases of formalininduced paw licking in rats  .
Effects on cardiovascular and respiratory system
Kaempferitrin 47 as well as the total flavonoid mixture from the aerial parts of C. murale were tested on the rabbit cardiovascular system. These showed dose-related hypotension and bradycardia. In addition, kaempferitrin also produced a dose-related hypotension in genetically prone hypertensive rats and did not block α1 or b1 -adrenoceptors when tested using isolated guinea-pig aoric strip and atria. Alcoholic extracts of C. album (I) and C. murale (II) have a significant diuretic effect throughout the 24 hours after administration, where the volume of urine increased from 4 mL to 12 and 20 mL, respectively compared to the effect of Moduretic (1.1 mg/100 g b. wt) on urine volume, where the volume increased from 4 to 13 mL. Concerning the concentration of Na + and K + in urine extract II as a diuretic agent has a less adverse effect on serum potassium ion level than Moduretic. The alcoholic extract of both plants in doses of 80 and 71.3 mg/kg b. wt, respectively did not showed any ulcerogenic effect on the stomach of treated rats and no irritations was detected in the stomach  . The CHCl 3 , Et 2 OH 2 SO 4 and petroleum ether extracts of C. botrys were studied. Alkaloids extracted by Et 2 O-H 2 SO 4 , when applied in doses of 0.005-0.01 g/kg caused temporal excitation of respiration and increase of the arterial pressure by 10-40 mm Hg. Tartrates from the petroleum ether had an analogous effect in doses of 0.002-0.03 g/kg. On the other hand tartrates from the CHCl 3 extract caused a marked decrease in the arterial pressure and respiration, when applied in doses of 0.001-0.009 g/kg. Doses of 0.01-0.015g/kg led to acomplete loss of the pressure and caused a block in respiration  .
Cosmetics and skin disease
The ethanolic extract from the fruits of C. album, orally administered at doses of 100-400 mg/kg, dose-dependently inhibited scratching behavior induced by 5-HT (10 μg per mouse, s.c.) or compound 48/80 (50 μg per mouse, s.c.) in mice. The extract significantly attenuated the writhing responses induced by an intraperitoneal injection of formalin in mice. At a dose of 400 mg/kg, it also inhibited the neurogenic pain responese of formalin test. The extract possesses antipruritic and antinociceptive activities and the antinociceptive effects are not secondary to anti-inflammatory effects and can be used to treat cutaneous pruritus  . The ethanolic extracts of C. album and C. murale showed antiinflammatory activity on the rat paw edema and the cotton pellet models. Diclofenac sodium (1mg/kg b. wt.) was used as a reference drug  . A methanol extract of the dried leaves of C. ambrosioides was investigated for anti-inflammatory activity. The extract (300-700 mg kg -1 , p.o.) produced a dose related inhibition of carrageenan-induced paw oedema and cotton pellet-induced granuloma in rats  .
Saponins extracted from the seed of C. quinoa were studied for their ability to act as mucosal adjuvants upon their intragastric or intranasal administrations together with model antigens in mice. The study indicates the potential of quinoa saponins as adjuvants for mucosally administered vaccines  . Electrophoretic analysis PAGE of prolamine proteins or SDSPAGE ISTA, devoloped for gluten proteins, confirmed the results of immunological tests on the suitability of quinoa for the diet in celiac disease  .
| Conclusion|| |
This article briefly reviews the phytochemistry, ethnopharmacology and pharmacology of Chenopodium species that are a rich source of organic compounds and varying structural patterns. The literature revealed ethnopharmacological reports for 15 species. Twenty one species of Chenopodium have been partially investigated for their phytoconstituents. Three hundred seventy nine compounds isolated from different species were reported. Pharmacological reports of 10 species support medicinal potential of some chenopods for developing new drugs.
| Acknowledgement|| |
The author (Z. Kokanova-Nedialkova) was supported by Grant 16-D/2008 from the Medical Science Council at the Medical University of Sofia.
| References|| |
|1.||A.H. Gilani and Atta-ur-Rahman. Trends in ethnopharmacology. J Ethnopharmacol. 100 (1-2): 43-49 (2005). |
|2.||C.N Marie, In gardens of Hawaii, (Bishop Museum Press, 1965) 331. |
|3.||B.D. Smith Eastern. North America as an independent center of plant domestication. Proceed Nat Acad Sci USA. 103: 12223-12228 (2006). |
|4.||M.U Dahot and Z.H Soomro. Proximate composition, mineral and vitamin content of Chenopodium album. Sci Int (Lahore). 9(4): 405-407 (1997). |
|5.||S.R. Leicach, M.A. Yaber Grass, G.B. Gorbino, A.B. Pomilio and A.A. Vitale. Nonpolar lipid composition of Chenopodium album grown in continuously cultivated and nondisturbed soils. Lipids. 38(5): 567-572 (2003). |
|6.||M. Riaz, M. Rashid and F.M Chaudhary. Lipid fraction and fatty acid composition of Chenopodium album seed oil. Pak J Sci Ind Res. 35(7-8): 279-280 (1993). |
|7.||J.E. Allebone, R.J. Hamilton, B.A. Knights, B.S. Middleditch and D.M. Power. Cuticular leaf waxes. II Chenopodium album and Lolium perenne. Chem Phys Lipids. 4(1): 37-46 (1970). |
|8.||Ch.W. Kim and K.S. Lee. Studies on the constituents of Chenopodium acuminatum. Saengyak Hakhoe Chi. 16(4): 206-209 (1986). |
|9.||K.N. Suseelan and R. Mitra. Purification and characterization of a hemagglutinin isolated from the leaves of Chenopodium (Chenopodium amaranticolor). Indian J Biochem Biophys. 38(3): 186-192 (2001). |
|10.||G.S. Gupta, N. Lal and M. Behari. Free organic acids and sugars of certain plants. Proc Nat Acad Sci India Sect A. 41(1-2):1-3 (1971). |
|11.||G.S. Gupta and M. Behari. Identification of amino acids in certain plants. Agra Univ J Res Sci. 25(1): 63-65 (1977). |
|12.||M.S. Hifnawy, Y.Y. El-Hyatmy, S.A Kenawy, A.K. Yossef and A.S. Awaad. Carbohydrate, lipid, protein and amino acid contents of Chenopodium murale, Cyperus alopecuroides, Desmostachya bipinnata and Tamarix nilotica as allergic plants. Bull Fac Pharm. 37(2): 99-106 (1999) [PUBMED] [FULLTEXT] |
|13.||Dini, G.C. Tenore and A. Dini. Nutritional and antinutritional composition of Kancolla seeds: an interesting and underexploited andine food plant. Food Chemistry. 92: 125-132 (2005). |
|14.||C. Brinegar. The seed storage proteins of quinoa. Adv Exp Med Biol. 415: 109-115 (1997). |
|15.||J. Petr, I. Michalik, H. Tlaskalova, I. Capouchova, O. Famera, D. Urminska, L. Tuckova and H. Knoblochova. Extension of the spectra of plant products for the diet in coeliac disease. Czech J Food Sci. 21(2): 59-70 (2003). |
|16.||K. Dolezal, C. Astot, J. Hanus, J. Holub, W. Peters, E. Beck, M. Strnad and G. Sandberg. Indentification of aromatic cytokinins in suspension cultured photoautotrophic cells of Chenopodium rubrum by capillary liquid chromatography/frit-fast atom bombardment mass spectrometry. Plant Growth Reg. 36(2): 181-189 (2002). |
|17.||J. Kolar, I. Machackova, J. Eder, E. Prinsen, W. van Dongen, H. van Onckelen and H. Illnerova. Melatonin: occurrence and daily rhythm in Chenopodium rubrum. Phytochemistry. 44(8): 1407-1413 (1997). |
|18.||J. Kolar, C.H. Johnson and I. Machackova. Presence and possible role of melatonin in a short-day flowering plant Chenopodium rubrum. Adv Exp Med Biol. 460: 391-393 (1999). |
|19.||J.L. Guil, M.E. Torija, J.J. Gimenez, I. Rodriguez-Garcia and A. Gimenez. Oxalic acid and calcium determination in wild edible plants. J Agric Food Chem. 44(7): 1821-1823 (1996). |
|20.||F. Cutillo, M. DellaGreca, M. Gionti, L. Previtera and A. Zarrelli. Phenols and lignans from Chenopodium album. Phytochem Anal. 17(5): 344-349 (2006). |
|21.||J.M. Penarrieta, J.A Alvarado, B. Akesson and B. Bergenstahl. Total antioxidant capacity and content of flavonoids and other phenolic compounds in Canihua (Chenopodium pallidicaule): an Andean pseudocereal. Mol Nutr Food Res. 52(6): 708-717 (2008) |
|22.||Dini, G.C. Tenore and A. Dini. Phenolic constituents of Kancolla seeds. Food Chemistry. 84(2): 163-168 (2004). |
|23.||M. Bokern, V. Wray and D. Strack. Accumulation of phenolic acid conjugates and betacyanins, and changes in the activities of enzymes involved in feruloylglucose metabolism in cell-suspension cultures of Chenopodium rubrum L. Planta. 184: 261-270 (1991). |
|24.||L. Nahar and S.D. Sarker. Chenoalbuside: an antioxidant phenolic glycoside from the seeds of Chenopodium album L. (Chenopodiaceae). Brazilian J Pharmacog. 15(4): 279-282 (2005). |
|25.||D. Strack, M. Bokern, J. Berlin and S. Sieg. Metabolitic activity of hydroxycinnamic acid glucose esters in cell suspension cultures of Chenopodium rubrum. Z Naturforsch C. 39(9-10): 902-907 (1984). |
|26.||M. Bokern, V. Wray and D. Strack. Hydroxycinnamic acid esters of glucuronosylglucose from cell suspension cultures of Chenopodium rubrum. Phytochemistry. 26(12): 3229-1931 (1987). |
|27.||N.H. El-Sayed, A.S. Awaad, M.S. Hifnawy and T.J. Mabry. A flavonol triglycoside from Chenopodium murale. Phytochemistry. 51(4): 591-593 (1999). |
|28.||G.B. Rustembekova, M.I. Goryaev and G.A. Nezhinskaya. Flavonoids of Chenopodium botrys. Khim Prir Soedin. 3: 403 (1974). |
|29.||T.J. De Pascual, M.S. Gonzalez, S. Vicente and I.S Bellido. Flavonoids from Chenopodium botrys. Planta Medica. 41(4): 389-391 (1981). |
|30.||N. Bahrman, M. Jay and R. Gorenflot. Contribution to the chemosystematic knowledge of some species of the genus Chenopodium L. Lett Bot. 2: 107-113 (1985). |
|31.||M. Kamil, N. Jain and M. Ilyas. A novel flavone glycoside from Chenopodium ambrosioides. Fitoterapia. 63(3): 230-231 (1992). |
|32.||N. Jain, M.S. Alam, M. Kamil and A. Sakae. Two flavonol glycosides from Chenopodium ambrosioides. Phytochemistry. 29(12): 3988-3991 (1990). |
|33.||W. Bylka and Z. Kowalewski. Flavonoids in Chenopodium album L. and Chenopodium opulifolium L. Herba Pol. 43(3): 208-213 (1997). |
|34.||L.F. Ibrahim, S.A. Kawashty, A.R. Baiuomy, M.M. Shabana, W.I. El-Eraky and S.I. El-Negoumy. A comparative study of the flavonoids and some biological activities of two Chenopodium species. Chem Nat Compounds. 43(1): 24-28 (2007). |
|35.||H.D. Chludil, G.B. Corbino and S.R. Leicach. Soil quality effects on Chenopodium album flavonoid content and antioxidant potential. J Agric Food Chem. 56(13): 5050-5056 (2008). |
|36.||A.A. Gohar and M.M. Elmazar. Isolation of hypotensive flavonoids from Chenopodium species growing in Egypt. Phytother Res. 11(8): 564-567 (1997). |
|37.||A.A. Gohar, G.T. Maatooq and M. Niwa. Two flavonoid glycosides from Chenopodium murale. Phytochemistry. 53(2): 299-303 (2000). |
|38.||L. Rastrelli, P. Saturnino, O. Schettino and A. Dini. Studies on the constituents of Chenopodium pallidicaule (Canihua) seeds. Isolation and characterization of two new flavonol glycosides. J Agric Food Chem. 43(8): 2020-2024 (1995). |
|39.||F. De Simone, A. Dini, C. Pizza, P. Saturnino and O. Schettino. Two flavonol glycosides from Chenopodium quinoa. Phytochemistry. 29(11): 3690- 3692 (1990). |
|40.||N. Zhu, S. Sheng, D. Li, E.J. Lavoie, M.V. Karwe, R.T. Rosen and Chi- Tang Ho. Antioxidative flavonoid glycosides from quinoa seeds (Chenopodium quinoa Willd.). J Food Lipids. 8(1): 37-44 (2001). |
|41.||M. Arisawa, N. Minabe, R. Saeki, T. Takakuwa and T. Nakaoki. Studies on unutilized resources. V. Components of the flavonoids in Chenopodium genus plants. 1. Flavonoids of Chenopodium ambrosioidesYakugaku Zasshi. 91(5): 522-524 (1971). |
|42.||J.A. Gonzalez, M. Gallardo and L.A. De Israilev. Leaf flavonoids in Chenopodium hircinum Schrad. and Chenopodium album L. (Chenopodiaceae). Phyton. 63(1/2): 279-281 (1998). |
|43.||B. Ahmad, Q. Jan, S Bashir, M.I. Choundhary and M. Nisar. Phytochemical evaluation of Chenopodium murale Linn. Asian J Plant Sci. 2(15-16): 1072-1078 (2003). |
|44.||C. Bergeron, A. Marston, E. Hakizamungu and K. Hostettmann. Antifungal constituents of Chenopodium procerum. Int. J Pharmacog. 33(2):115-119 (1995). |
|45.||T.A. Salt and J.H. Adler. Diversity of sterols composition in the family Chenopodiaceae. Lipids. 20(9): 594-601 (1985). |
|46.||W. Meyer and G. Spiteller. Oxidized phytosterols increase by ageing in photoautotrophic cell cultures of Chenopodium rubrum. Phytochemistry. 45(2): 297-302 (1997). |
|47.||M.F. Corio-Costet, L. Chapuis, R. Scalla and J.P Delbecque. Analysis of sterols in plants and cell cultures producing ecdysteroids: I Chenopodium album. Plant Sci (Limerick, Irel.). 91(1): 23-33 (1993). |
|48.||A.A. Gohar, G.T. Maatooq, M. Niwa and T. Yoshiaki. A new triterpene saponin from Chenopodium ficifolium. Z Naturforsch C. 57(7/8): 597-602 (2002). |
|49.||P. Ruggeri, C. Della Valle, R. De Fusco and L. Paladino. Chemical composition and antimicrobial activity of two Peruvian plants. Boll- Soc Ital Biol Sper. 67(10-11): 955-960 (1991). |
|50.||M. Bathory, I. Toth, K. Szendrei, M. Rattai, E. Minker and G. Blazso. Determination and isolation of ecdysteroids in native goosefoot species. Herba Hung. 23(1-2): 131-145 (1984). |
|51.||M. DellaGreca, B. D'Abrosca, A. Fiorentino, L. Previtera and A. Zarrelli. Structure elucidation and phytotoxicity of ecdysteroids from Chenopodium album. Chem Biodivers. 2(4): 457-462 (2005). |
|52.||Toth, M. Bathory, K. Szendrei, E. Minker and G. Blazso. Ecdysteroids in Chenopodiaceae: Chenopodium album. Fitoterapia. 52(2): 77-80 (1981). |
|53.||M. Bathory, I. Toth, K. Szendrei and J. Reisch. Ecdysteroids in Spinacia oleracea and Chenopodium bonus- henricus.Phytochemistry. 21(1) : 236-238 (1982). |
|54.||L. Rastrelli, N. De Tommasi and I. Ramos. Ecdysteroids in Chenopodium pallidicaule seeds. Biochem Syst Ecol. 24(4): 353 (1996). |
|55.||N. Zhu, H. Kikuzaki, B.C. Vastano, N. Nakatani, M.V. Karwe, R.T. Rosen and C. Ho. Ecdysteroids of Quinoa seeds. J Agric Food Chem. 49(5): 2576-2578 (2001). |
|56.||R.Y Nsimba, H. Kikuzaki and Y. Konishi. Ecdysteroids act as inhibitors of calf skin collagenase and oxidative stress. J Biochem Mol Toxicol. 22(4): 240-250 (2008). |
|57.||L. Dinan. The analysis of phytoecdysteroids in single (preflowering stage) specimens of fat hen, Chenopodium album. Phytochem Anal. 3(3): 132-138 (1992). |
|58.||H.P. Singh, D.R. Batish, R.K. Kohli, S. Mittal and S. Yadav. Chemical composition of essential oil from leaves of Chenopodium ambrosioides from Chandigarh, India. Chem Nat Compounds. 44(3): 378-379 (2008). |
|59.||V. Dembitsky, I. Shkrob and L.O. Hanus. Ascaridole and related peroxides from the genus Chenopodium. Biomed Pap Med Fac Univ Palacky Olomouc Czech Repub. 152(2): 209-215 (2008). |
|60.||H. Chiasson. Acaricidal and insecticidal compositions comprising essential oil extracts. US Pаt. 91,657 (2003). |
|61.||R. Omidbaigi, F. Sefidkon and F.B. Nasrabadi. Essential oil content and compositions of Chenopodium ambrosioides L. J Essent Oil-Bearing Plants.8(2): 154-158 (2005). |
|62.||L. Sagrero-Nieves and J.P Bartley. Volatile constituents from the leaves of Chenopodium ambrosioides L. J Essent Oil Res. 7(2): 221-223 (1995). |
|63.||C.M. Jardim, G.N. Jham, O.D. Dhingra and M.M. Freire. Composition and antifungal activity of the essential oil of the Brazillian Chenopodium ambrosioides L. J Chem Ecol. 34(9): 1213-1218 (2008). |
|64.||K. Morteza-Semnani and E. Babanezhad. Essential oil composition of Chenopodium botrys L. from Iran. J Essent Oil-Bearing Plants. 10(4): 314-317 (2007). |
|65.||A.A Ahmed. Highly oxygenated monoterpenes from Chenopodium ambrosioides. J Nat Prod. 63(7): 989-991 (2000). |
|66.||T.J. De Pascual, I.S. Bellido, C. Torres, B.A. Sastre and M. Grande. Phellandrene endoperoxides from the essential oil of Chenopodium multifidum. Phytochemistry. 20(1): 163-165 (1981). |
|67.||L. Monzote, A.M. Montalvo, S. Almanonni, R. Scull, M. Miranda and J. Abreu. Activity of the essential oil from Chenopodium ambrosioides grown in Cuba against Leishmania amazonensis. Chemotherapy. 52(3): 130-136 (2006). |
|68.||P.A. Onocha, O. Ekundayo, T. Eramo and I. Laakso. Essential oil constituents of Chenopodium ambrosioides L. leaves from Nigeria. J Essent Oil Res. 11(2): 220-222 (1999). |
|69.||J. Pino, R. Marbot and I.M. Real. Essential oil of Chenopodium ambrosioides L. from Cuba. J Essent Oil Res. 15(3): 213-214 (2003). |
|70.||F. Kiuchi, Y. Itano, N. Uchiyama, G. Honda, A. Tsubouchi, J. Nakajima-Shimada and T. Aoki. Monoterpene hydroperoxides with trypanocidal activity from Chenopodium ambrosioides. J Nat Prod. 65(4): 509-512 (2002). |
|71.||E. Okuyama, K. Umeyama, Y. Saito, M. Yamazaki and M. Satake. Ascaridole as a pharmacologically active principle of Paico, a medicinal Peruvian plant. Chem Pharm Bull. 41(7): 1309-1311 (1993). |
|72.||X. Huang and L. Kong. Study on chemical constituents of volatile oil from Chenopodium ambrosioides L. Zhongguo Yaoke Daxue Xuebao. 33(3): 256-257 (2002). |
|73.||Feizbakhsh, S. Sedaghat, M.S. Tehrani, A. Rustaiyan and S. Masoudi. Chemical composition of the essential oils of Chenopodium botrys L. from two different locations in Iran. J Essent Oil Res. 15(3): 193-194 (2003). |
|74.||A.G. Bedrossian, P.S. Beauchamp, B. Bernichi, V. Dev, K.Z. Kitaw, H. Rechtshaffen, A.T. Bottini and H. Hope. Analysis of North American Chenopodium botrys essential oil isolation and structure of two new sesquiterpene alcohols. J Essent Oil Res. 13(6): 393-400 (2001). |
|75.||M.L. Lyubenova, Y.A. Ganeva, L.T. Chipilska, P.D. Hadjieva and C.D. Chanev. Biological active components of Chenopodium botrys L. phytomass. J Balkan Ecol. 9(3): 289-295 (2006). |
|76.||T.J. De Pascual, I.S. Bellido and M.S. Gonzalez. Chenopodiaceae components: polyoxygenated sesquiterpenes from Chenopodium botrys.Tetrahedron. 36(3): 371-376 (1980). |
|77.||T.J. De Pascual, B.I. Sanchez and G.M. Sanchez. Chenopodiaceae components. I. Sesquiterpenoids from Chenopodium botrys L. An Quim. 74(1): 91-96 (1978). |
|78.||B. Bera, K.K. Mukherjee and S.N. Ganguly. Chemical investigation of the seeds of diploid cytotypes of Chenopodium album. Fitoterapia. 62(2): 178 (1991). |
|79.||M.C. Penteado, R.S Minazzi and L. Bicudo de Almeida. Carotenoids and provitamin A activity of vegetable leaves consumed in northern Brazil. Rev Farm Bioquim Univ Sao Paulo. 22(2): 97-102 (1986). |
|80.||M. Della Greca, C. Di Marino, A. Zarrelli and B. D'Abrosca. Isolation and phytotoxicity of apocarotenoids from Chenopodium album. J Nat. Prod.67(9): 1492-1495 (2004). |
|81.||C.L. Ridout, K.R. Price, M.S. Dupont, M.L. Parker and G.R. Fenwick. Quinoa saponins. Analysis and preliminary investigations into the effects of reduction by processing. J Sci Food Agric. 54(2): 165-176 (1991). |
|82.||F. Mizui, R. Kasai, K. Ohtani and O. Tanaka. Saponins from bran of Quinoa, Chenopodium quinoa Willd. II. Chem Pharm Bull. 38(2): 375-377(1990). |
|83.||H.D. Mastebroek, H. Limburg, T. Gilles and H.J.P Marvin. Occurrence of sapogenins in leaves and seeds of Quinoa (Chenopodium quinoa Willd.).J Sci Food Agric. 80: 152-156 (2000). |
|84.||F. Mizui, R. Kasai, K. Ohtani and O. Tanaka. Saponins from brans of Quinoa. I. Chem Pharm Bull. 36(4): 1415-1418 (1988). |
|85.||B.N. Meyer, P.F. Heinstein, M. Burnouf-Radosevich, N.E. Delfel, and J.L. McLaughlin. Bioactivity-directed isolation and characterization of Quinoside A: One of the toxic/bitter principles of Quinoa Seeds (Chenopodium quinoa Willd.). J Agric Food Chem. 38(1): 205-208 (1990) |
|86.||Dini, G.C. Tenore, O. Schettino and A. Dini. New Oleanane saponins in Chenopodium quinoa. J Agric Food Chem. 49(8): 3976-3981 (2001). |
|87.||Dini, G.C. Tenore and A. Dini. Oleanane saponins in „Kancolla", a sweet variety of Chenopodium quinoa. J Nat Prod. 65(7): 1023-1026 (2002). |
|88.||N. Zhu, S. Sheng, S. Sang, J. Jhoo, N. Bai, M.V. Karwe, R.T. Rosen and C. Ho. Triterpene saponins from debittered Quinoa (Chenopodium quinoa) seeds. J Agric Food Chem. 50(4): 865-867 (2002). |
|89.||G.M. Woldemichael and M. Wink. Identification and biological activities of triterpenoid saponins from Chenopodium quinoa. J Agric Food Chem.49(5): 2327-2332 (2001). |
|90.||Dini, O. Schettino, T. Simioli and A. Dini. Studies on the constituents of Chenopodium quinoa seeds: Isolation and characterization of new triterpene saponins. J Agric Food Chem. 49(2): 741-746 (2001). |
|91.||L. Rastrelli, F. De Simone, O. Schettino and A. Dini. Constituents of Chenopodium pallidicaule (Canihua) Seeds: Isolation and characterization of new triterpene saponins. J Agric Food Chem. 44(11): 3528-3533 (1996). |
|92.||T. Kuljanabhgavad, P. Thongphasuk, W. Chamulitrat and M. Wink. Triterpene saponins from Chenopodium quinoa Willd. Phytochemistry. 69:1919-1926 (2008). |
|93.||T. Madl, H. Sterk, M. Mittelbach and G.N. Rechberger. Tandem mass spectrometric analysis of a complex triterpene saponin mixture of Chenopodium quinoa. J Am Soc Mass Spectrom. 17: 795-806 (2006). |
|94.||W.W. Μΰ, P.F. Heinstein and J.L. McLaughlin. Additional toxic, bitter saponins from the seeds of Chenopodium quinoa. J Nat Prod. 52(5): 1132- 1135 (1989). |
|95.||C. Lavaud, L. Voutquenne, P. Bal and I. Pouny. Saponins from Chenopodium album. Fitoterapia. 71: 338-340 (2000). |
|96.||M.S. Hifnawy, H.H. Ammar, S.K. Kenawy, M.E. Zaki, A.K. Yossef and A.S. Awaad. Phytochemical and biological studies on alkaloidal content of some allergy producing plants growing in Egypt. Bull Fac Pharm.37(2): 107-117 (1999). |
|97.||J. Berlin, S. Sieg, D. Strack, M. Bokern and H. Harms. Production of betalains by suspension cultures of Chenopodium rubrum L. Plant Cell Tissue Organ Cult. 5: 163-174 (1986). |
|98.||Dini, G.C. Tenore, E. Trimarco and A. Dini. Two novel betaine derivatives from Kancolla seeds (Chenopodiaceae). Food Chemistry. 98(2):209-213 (2006). |
|99.||D. Strack, M. Bokern, N. Marxen and V. Wray. Feruloyl betanin from petals of Lampranthus and feruloylamaranthine from cell suspension cultures of Chenopodium rubrum. Phytochemistry. 27(11): 3529-3531 (1988). |
|100.||M. Bernard, K. Drost-Karbowska and Z. Kowalewski. Basic compounds of white pigweed (Chenopodium album). Acta Pol Pharm. 40(5- 6): 691-692 (1983). |
|101.||F. Cutillo, B. D' Abrosca, M. DellaGreca, C. Di Marino, A. Golino, L. Previtera and A. Zarrelli. Cinnamic acid amides from Chenopodium album: effects on seeds germination and plant growth. Phytochemistry. 64(8):1381-1387 (2003). |
|102.||T. Horio, K. Yoshida, H. Kikuchi, J. Kawabata and J. Mizutani. A phenolic amide from roots of Chenopodium album. Phytochemistry. 33(4): 807-808 (1993). |
|103.||F. Cutillo, B. D' Abrosca, M. DellaGreca and A. Zarrelli. Chenoalbicin, a novel cinnamic acid amide alkaloid from Chenopodium album. Chem Biodivers. 1(10): 1579-1583 (2004). |
|104.||G.B. Rustembekova, M.I. Goryaev and P.P. Gladyshev. Isolation of betaine from Chenopodium botrys. Khim Prir Soedin. 9(4): 569 (1973). |
|105.||G. Aliotta and A. Pollio. Vitamin A and C contents in some edible wild plants in Italy. Riv Ital EPPOS. 63(1): 47-48 (1981). |
|106.||V. Schneider. Vitamin C contents of native wild growing vegetables and greens II. Ernaehr-Umsch. 31(2): 54-57 (1984). |
|107.||X. Geng. Analysis of nutritional components in the eight species of wild edible herbs grown in home gardens in Inner Mongolia. Neimenggu Shida Xuebao Ziran Kexue. 32(4): 397-399 (2003). |
|108.||G.L. Guil, I. Rodriguez-Garcia and E. Torija. Nutritional and toxic factors in selected wild edible plants. Plant Foods Hum Nutr. 51(2): 99- 107 (1997). |
|109.||F.M.V.Z. Jimenez-Osornio, J. Kumamoto and C. Wasser. Allelopathic activity of Chenopodium ambrosioides L. Biochem Syst Ecol. 24(3): 195-205 (1996). |
|110.||H. Chiasson. Plant extracts as ascaricides. US Pat. 527, 258 (2000). |
|111.||J.F. Cavalli, F. Tomi, A.F. Bernardini and J. Casanova. Combined analysis of the essential oil of Chenopodium ambrosioides by GC, GC-MS and 13C-NMR spectroscopy: quantitative determination of ascaridole, a heat-sensitive compound. Phytochem Anal. 15(5): 275-279 (2004). |
|112.||F. Wei, Z. Ye, J. Gao, C. Luo and D. Li. New capsule formulation of Chenopodium ambrosioides extract for treating gastritis and peptic ulcer caused by Helicobacter pylori. Faming Zhuanli Shenqing Gongkai Shuomingshu CN 1,990,007 (2007). |
|113.||F. Wei, Z. Ye, J. Gao, C. Luo and D. Li. Method for isolating Chenopodium ambrosioides extracts for treating gastritis and peptic ulcer caused by Helicobacter pylor. Faming Zhuanli Shenqing Gongkai Shuomingshu CN 1,990,006 (2007). |
|114.||M.A. Johnson and R. Croteau. Biosynthesis of ascaridole: iodide peroxidase catalyzed synthesis of a monoterpene endoperoxide in soluble extracts of Chenopodium ambrosioides fruit. Arch Biochem Biophys. 235(1): 254-266 (1984). |
|115.||L. Jirovetz, G. Buchbauer, W.K. Fleischacker and K. Vijay. Analysis of the essential oil of the leaves of the medicinal plant Chenopodium ambrosioides var. anthelminticum (L.) A. Gray from India. Sci Pharm. 68(1): 123-128 (2000). |
|116.||D. Gupta, R. Charles, V.K. Mehta, S.N. Garg and S. Kumar. Chemical examination of the essential oil of Chenopodium ambrosioides L. from the southern hills of India. J Essent Oil Res. 14(2): 93-94 (2002). |
|117.||A.A. Kasali, O. Ekundayo, C. Paul and W.A. Kφnig. 1,2:3,4-diepoxy-pmenthane and 1,4-epoxy-p-menth-2-en: Rare monoterpenoids from the essential oil of Chenopodium ambrosioides L. var ambrosioides leaves. JEssent Oil Res. 18(1): 13-15 (2006). |
|118.||A.M. Van Prooijen. Pharmacohistorical studies. CXXXV. Boldo and Chenopodium. Pharm Tijdschr Belg. 47(9): 191-197 (1970). |
|119.||Y. Pollack, R. Segal and J. Golenser. The effect of ascaridole on the in vitro development of Plasmodium falciparum. Parasitol Res. 76(7): 570-572 (1990). |
|120.||P.W. Pare, J. Zajicek, V.L. Ferracini and I. Melo. Antifungal terpenoids from Chenopodium ambrosioides. Biochem Syst Ecol. 21(7): 649-53 (1993). |
|121.||T. Efferth, A. Olbrich, A. Sauerbrey, D.D. Ross, E. Gebhart and M. Neugebauer. Activity of ascaridol from the anthelmintic herb Chenopodium anthelminticum L. against sensitive and multidrug-resistant tumor cells. Anticancer Res. 22(6C): 4221-4224 (2002). |
|122.||R. Garcia, I. Lemus, P. Rivera and S. Erazo. Biological and chemical study of paico (Chenopodium chilense, Chenopodiaceae). J Ethnopharmacol. 57(2): 85-88 (1997). |
|123.||Plants for a Future. Database of 7000 edible and useful plants. Available at http://www.pfaf.org/index.php; Accessed September 1, 2009. |
|124.||L. Monzote, I. Sariego, A.M. Montalvo, N. Garrido, R. Scull and J. Abreu. Propiedades antiprotozoarias de aceites esenciales extraidos de plantas cubanas. Rev Cubana Med Trop. 56: 230-233 (2004). |
|125.||F. Franca, E.L. Lago and P.D. Marsden. Plant used in the treatment of leishmanial ulcers due to Leishmania (Vianna) braziliensis in an endemic area of Bahia, Brazil. Rev Soc Bras Med Trop. 29: 229-232 (1996). |
|126.||N.R.A. Giove. Traditional medicine in the treatment of enteroparasitosis. Rev Gastroenterol Peru. 16(3): 197-202 (1996). |
|127.||R. Goštuski, Lecenje lekovitim biljem, (Narodna knjiga , Belgrade, 1979) 249.128. N. Hernandez, M.L. Tereschuk and L.R. Abdala. Antimicrobial activity of flavonoids in medicinal plants from Tafi del Valle. J Ethnopharmacol. 73(1,2): 317-322 (2000). |
|128.||L. Girault, Chenopodium pallidicaule. In Kallawaya. In: Curanderos itinerantes de los Andes. Servicio Grafico Quipus: La Paz Bolivia; 173- 174 (1987). |
|129.||S.A. Vichkanova and L.V. Goryunova. Antiviral activity of some saponins. Tr Vses Nauch-Issled Inst Lek Rast. 14: 204-212 (1971). |
|130.||Z.A. Maksimovic, S. Dordevic and M. Mraovic. Antimicrobial ac tivity of Chenopodium botrys essential oil. Fitoterapia. 76(1): 112-114 (2005). |
|131.||O. Tzakou, A. Pizzimenti, F.C. Pizzimenti, V. Sdrafkakis and E.M. Galati. Composition and antimicrobial activity of Chenopodium botrys L. Essential oil from Greece. J Essent Oil Res. 19(3): 292-294 (2006). |
|132.||Y. Zhang, W. Chen and Y. Chen. Chinese drug composition for treatment of peptic ulcer and preparation thereof. US Pat. 6,344,219 (2002). |
|133.||R. Kumar, A.K. Mishra, N.K. Dubey and Y.B. Tripathi. Evaluation of Chenopodium ambrosioides oil as a potential source of antifungal, antiaflatoxigenic and antioxidant activity. Int J Food Microbiol. 115(2): 159- 164 (2007). |
|134.||Jabbar, M.A. Zaman, Z. Iqbal, M. Yaseen and A. Shamim. Anthelmintic activity of Chenopodium album (L) and Caesalpinia crista (L) against trichostrongylid nematodes of sheep. J Ethnopharmacol. 114(1): 86-91(2007). |
|135.||J.K. Ketzis. The anthelmintic potential of Chenopodium ambrosioides in goats. From Diss Abstr Int B. 60(8): 3633 (2000). |
|136.||L. Monzote, A.M. Montalvo, R. Scull, M. Miranda and J. Abreu. Activity, toxicity and analysis of resistance of essential oil from |
|137.||Chenopodium ambrosioides after intraperitoneal, oral and intralesional administration in BALB/c mice infected with Leishmania amazonensis: a preliminary study. Biomed Pharmacother. 61(2-3): 148-153 (2007). |
|138.||L. Monzote, A.M. Montalvo, R. Scull, M. Miranda and J. Abreu. Combined effect of the essential oil from Chenopodium ambrosioides and antileishmanial drugs on promastigotes of Leishmania amazonensis. Rev Inst Med Trop S Paulo. 49(4): 257-260 (2007). |
|139.||L. Monzote, M. Garcia, A.M. Montalvo, R. Scull, M. Miranda and J. Abreu. In vitro activity of an essential oil against Leishmania donovani. Phytother Res. 21(11): 1055-1058 (2007). |
|140.||F.J. Patricio, G.S. Costa, P.V. Pereira, W.C. Araqao-Filho, S.M. Sousa, J.B. Frazao, W.S. Pereira, M.C. Maciel, L.A. Silva, F.M. Amaral, J.M. Rebelo, R.N. Guerra, M.N. Ribeiro and F.R Nascimento. Efficacy of the intralesional treatment with Chenopodium ambrosioides in the murine infection by Leishmania amazonensis. J Ethnopharmacol. 115(2): 313-319 (2008). |
|141.||F.R.V. Nascimento, G.V.B. Cruz, P.V.S. Pereira, M.C.G. Maciel, L.A. Silva, A.P.S. Azevedo, E.S.B. Barroqueiro and R.N.M. Guerra. Ascitic and solid Ehrlich tumor inhibition by Chenopodium ambrosioides L. treatment. Life Sci. 78(22): 2650-2653 (2006). |
|142.||L. Hall. Treatment for cancer. US Pat. 0082250A1 (2003). |
|143.||B.S. Puhaca, J.M. Adamov and M. Vojinovic-Miloradov. Antioxidative activity of plant extracts (Asclepias syriaca L., Astragalus onobrychis L., Chenopodium ambrosioides L.) in preventing autoxidative changes in the environment. Proceedings of 5th International Symposium & Exhibition on Environmental Contamination in Central & Eastern Europe, Prague 1498-1513 (2000). |
|144.||H. Speisky, C. Rocco, C. Carrasco, E.A. Lissi and C. Lopez-Alarcon. Antioxidant screening of medicinal herbal teas. Phytother Res. 20 (6): 462- 467 (2006). |
|145.||K. Jung, J. Richter, K. Kabrodt, I.M. Lόcke, I. Schellenberg and Th. Herrling. The antioxidative power AP- A new quantitative time dependent (2D) parameter for the determination of the antioxidant capacity and reactivity of different plants. Spectrochimica Acta A. 69A(4):846-850 (2006). |
|146.||O. Arthur and M.J. Maciarello. Some toxic culinary herbs in North America. Dev Food Sci. 40: 401-414 (1998). |
|147.||Gadano, A. Gurni, M. Nigro-Lopez, P. Lopez, A. Gratti, C. Van Baren, G. Ferraro and M. Garballo. Cytogenetic effects of aqueous extracts of the medicinal plant Paico (Chenopodium multifidum L.). Pharmaceut Biol. 38(1): 7-12 (2000). |
|148.||Gadano, A. Gurni, M. Lopez, G. Ferraro and M. Carballo. In vitro genotoxic evaluation of the medicinal plant Chenopodium ambrosioides L. J Ethnopharmacol. 81(1): 11-16 (2002). |
|149.||T. Mousavi, A.S. Moghadam, R. Falak and M. Tebyanian. Coadministration of CpG oligonucleotides and Chenopodium album extract reverse IgG2a/IgG1 ratios and increase IFN-Gamma and IL-10 productions in a murine model of asthma. Iran J Allegy Asthma Immunol. 7(1): 1-6 (2008). |
|150.||Rossi-Bergmann, S.S. Costa and V.L.G. De Moraes. Brazilian medicinal plants: a rich source of immunomodulatory substances. Cienc Cult (Sao Paulo). 49(5/6): 395-401 (1997). |
|151.||G.F. Ibironke and K.I. Ajiboye. Studies on the anti-inflammatory and analgesic properties of Chenopodium ambrosioides leaf extract in rats. Int J Pharmacol. 3(1): 111-115 (2007). |
|152.||S.B. Khvalibova. Pharmacology of Jerusalem oak (Chenopodium botrys) alkaloids. Tr Alma-At Zootekh-Vet Inst. 15(1): 21-23 (1968). |
|153.||Y. Dai, W.C. Ye, Z.T. Wang, H. Matsuda, M. Kubo and P.P.H But. Antipruritic and antinociceptive effects of Chenopodium album L. in mice. J Ethnopharmacol. 81(2): 245-250 (2002). |
|154.||Estrada, B. Li and B. Laarveld. Adjuvant action of Chenopodium quinoa saponins on the induction of antibody responses to intragastic and intranasal administered antigens in mice. Com Immun Microbiol Infect Dis. 21: 225-236 (1998). |
[Figure 1], [Figure 2], [Figure 3], [Figure 4], [Figure 5], [Figure 6], [Figure 7], [Figure 8], [Figure 9], [Figure 10], [Figure 11]
[Table 1], [Table 2], [Table 3]
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