ライフサイエンスコーパス: heavy metal

1 neous (nonanalyte) substances (e.g., ions of heavy metals).

2 phase extraction of Co(II) as an example of heavy metals.

3 n identified as hyperaccumulators of several heavy metals.

4 the dopant or the ionizing reagent to ionize heavy metals.

5 roved to be useful for the analysis of mixed heavy metals.

6 n environmentally sustainable alternative to heavy metals.

7 o conventional ones for on-site detection of heavy metals.

8 cal parameters, tHg, MeHg and bacterio-toxic heavy metals.

9 netic objects, such as bio-macromolecules or heavy metals.

10 r hazardous chemicals and pollutants such as heavy metals.

11 rate, hydrocarbons, chlorinated solvents and heavy metals.

12 rticles are an essential carrier for aqueous heavy metals.

13 play a critical role in animal responses to heavy metals.

14 detecting and responding to toxic levels of heavy metals.

15 of soils and groundwaters contaminated with heavy metals.

16 n on mineral surfaces can immobilize aqueous heavy metals.

17 t levels, anoxia, and high concentrations of heavy metals.

18 ay improve green technologies for removal of heavy metals.

19 mulated and actual tap water contaminated by heavy metals.

20 ontributes to the toxic action of individual heavy metals.

21 rabidopsis (Arabidopsis thaliana) exposed to heavy metals.

22 ction pressures on siderophore production by heavy metals - a detoxifying effect of siderophores, and

23 interference with antiherbivore defense and heavy metal accumulation.

24 soil and crop species or cultivars prone to heavy metal accumulation.

25 provides the restricted factors of PAHs and heavy metal acropetal translocation by maize when they c

26 The arylation avoids the use of heavy-metal additives, and is successful with a range of

27 from the spin-orbit coupling of non-magnetic heavy metals allow electrical switching of perpendicular

28 ble in situ EC-XRF instrumentation will make heavy metal analysis at the source a very realistic poss

29 In general terms, the soil levels of heavy metals analyzed in this study were higher than tho

30 nds on the microbial Kingdom and the type of heavy metal and that consortia are significantly more re

31 ild requiring no oxidant and no excess toxic heavy metal and the reagent [(13/14)CN]-NCTS is a stable

32 grown in hydroponic medium supplemented with heavy metals and compared with those grown in a referenc

33 es have investigated the association between heavy metals and hearing loss in a general population th

34 robial expression of genes for resistance to heavy metals and metalloids is usually transcriptionally

35 il environmental quality limits, mainly with heavy metals and metalloids.

36 In practice, a solution of mixed heavy metals and NaCl salts was directly deposited on a

37 tained substantially lower concentrations of heavy metals and organic contaminants in their tissues t

38 such as the removal of low concentrations of heavy metals and organics.

39 ue for assessing the bioavailability of soil heavy metals and related ecological risk.

40 h the cobalt layer is sandwiched between two heavy metals and so provides additive interfacial Dzyalo

41 Mn oxides control the fate and transport of heavy metals and the cycling of nutrients.

42 ical contaminants, (insecticide residues and heavy metals), and natural toxic substances (nitrate, ni

43 Mercury is a highly toxic heavy metal, and detection of Hg(2+) by biosensors has a

44 Silver is a very common heavy metal, and its detection is of significant analyti

45 water that contain high levels of salinity, heavy metals, and naturally occurring radioactive materi

46 poorly biodegradable mixture of sand, silt, heavy metals, and organics.

47 er for agricultural irrigation are salinity, heavy metals, and pathogens, which cause adverse effects

48 lines for long-time use until lead or other heavy metals are detected.

49 sents a health risk in humans, although some heavy metals are essential at low concentrations.

50 in the vapor phase, nonvolatile sulfate and heavy metals are retained in the concentrate stream.

51 Heavy metals are ubiquitous in nature and being used ext

52 ature, salinity, pH, pressure, UV, X-ray and heavy metals as a result of DNA phophorothioation.

53 study aimed to determine bioavailability of heavy metal (As, Cd, Cu, Cr, Co, Al, Fe, Zn and Pb) conc

54 Determination of heavy metals at trace levels has a great deal of importa

55 dimmer and are relatively rare, as, without heavy-metal atoms, spin-orbit coupling is less efficient

56 The PIB ATPase HMA4 (Heavy Metal ATPase 4) plays a central role in metal home

57 However, although necessary, Heavy Metal ATPase4 alone is not sufficient for determin

58 s population1 identified the metal-pump gene Heavy Metal ATPase4 as the major genetic determinant for

59 l components in the spectra influencing soil heavy metal bioavailability were identified and used in

60 the potential of DRIFTS for estimating soil heavy metal bioavailability.

61 cence resonance energy transfer (FRET)-based heavy metal biosensor for the quantification of bioavail

62 Cd(2+) uptake by measuring the amount of the heavy metals both in growth medium and in plant tissues

63 Heavy metal burden led to the development of relevant me

64 these electrodes, including the detection of heavy metals by absorptive stripping voltammetry, are al

65 e to gamma-radiation in combination with the heavy metal cadmium (Cd), using the MIXTOX approach.

66 hat treatment of Arabidopsis leaves with the heavy metal cadmium produces time course-dependent chang

67 transports divalent metal cations, including heavy metal cadmium, the accumulation of which has been

68 Long-term exposure to the heavy metals cadmium (Cd) and mercury (Hg) is known to i

69 , copper (Cu), zinc (Zn), chromium (Cr)) and heavy metals (cadmium (Cd), lead (Pb) and nickel (Ni)) i

70 Heavy metals can inhibit nitrification, a key process fo

71 versal and robust in magnetic junctions with heavy metal caps across the 5d transition metals and tha

72 ficient functionality to enable adsorbent of heavy metals (Cd(2+), Co(2+), Cu(2+), Hg(2+), Ni(2+), an

73 otal and bioaccessible of trace elements and heavy metals (Cd, Cr, Cu, Co, Al, Zn, As, Pb and Fe) in

74 Heavy metal chromate (Cr2O7(2-)) anions consisting of ch

75 ments (manganese, iron, copper and zinc) and heavy metals (chromium, cadmium, lead and nickel) were d

76 showed significantly high concentrations of heavy metals, compared to those in the control group.

77 ly significant correlations between PM10 and heavy metal compounds (other heavy metals (r = 0.43, p =

78 est (0.015+/-0.001 mg/kg) bioavailability of heavy metal concentration in 22 varieties of cooked rice

79 According to its heavy metal concentration, these sediments meet the pres

80 ediction models were applied to estimate the heavy metal concentrations in wheat grains in the mid-Ya

81 information on the antioxidant activity and heavy metal concentrations of Polyporus sulphureus, Macr

82 The predicted heavy metal concentrations of wheat grain were highly co

83 introduce toxins to consumers in the form of heavy metal contaminants.

84 To explore the microbial response to heavy metal contamination (e.g., Cr, Mn, Zn), the compos

85 Little is known about the bioavailability of heavy metal contamination and its health risks after ric

86 (based on spectroscopy) for the detection of heavy metal contamination are often very expensive, tedi

87 nly platinum electrodes for the detection of heavy metal contamination in drinking water.

88 ring through rapid and specific detection of heavy metal contamination in potable water is of paramou

89 Heavy metal contamination of water can be toxic to human

90 s changed significantly across a gradient of heavy metal contamination, and the relative abundances w

91 carrots, and no potential harm arising from heavy metal contamination.

92 Therefore, detection and monitoring of heavy metals contamination are gaining more attention no

93 In terms of heavy metal content, L. perlatum exceeded the legal limi

94 However, unrefined magnetite could have high heavy metal contents (e.g., Cr, Zn, Ni, Sn, etc.) and th

95 Heavy metal contents reached high values due to natural

96 een employed to predict soil composition and heavy metal contents.

97 The spin Hall effect in heavy metals converts charge current into pure spin curr

98 onal RecA expression to respond to genotoxic heavy metals (Cr>Cd approximately Pb), and polluted ash

99 y soil organic matters, pH or the other four heavy metals (Cr, Cu, Ni and Zn).

100 Moreover, quantification of the heavy metal Cu(2+)(with a LOD down to 10nM) was performe

101 The heavy metals Cu(2+) and Co(2+) were also detected using

102 e extent to which the atomic coefficients of heavy metal d orbitals contribute to the one-electron ex

103 a hyperintensity, lacunae, calcification, or heavy metal deposits.

104 ng-term operation, the sensors are ideal for heavy metal detection of drinking water.

105 demonstrated glucose assay, immunoassay, and heavy metal detection on well-spot C-microPAD and latera

106 1, a transporter that functions in bacterial heavy metal detoxification.

107 s reviewed from one agent in each class, for heavy metal drugs (cisplatin), targeted agents (imatinib

108 irs through produced sulfide and precipitate heavy metals, either as sulfides or by alteration of the

109 For single heavy metal exposure, no potential of non carcinogenic h

110 roduces a more realistic estimation of human heavy metal exposure.

111 tanding on the role of miRNAs in response to heavy-metal exposure.

112 Combined heavy metal exposures found that total Hazard Quotient (

113 gy-efficient means of writing information in heavy metal/ferromagnet (FM) multilayer systems.

114 are derived for the spin-orbit torques in a heavy metal/ferromagnet bilayer geometry, showing in gen

115 based on the spin-orbit torque switching in heavy metal/ferromagnet structures have been proposed wi

116 c devices, currently accessible in ultrathin heavy metal/ferromagnetic bilayers and multilayers with

117 asurements is established by investigating a heavy-metal/ferromagnetic-metal device (Ta/CoFeB/MgO).

118 As an in-plane charge current flows in a heavy metal film with spin-orbit coupling, it produces a

119 special emphasis on earth-abundant and toxic heavy metal free compounds.

120 III) chloride (FeTPP) catalyst by colloidal, heavy metal-free CuInS2/ZnS quantum dots (QDs) to reduce

121 hlight recent advances in the development of heavy-metal-free nanocrystals within the context of spec

122 ffective removal and recovery of chalcophile heavy metals from aqueous media.

123 Many areas have been heavily contaminated by heavy metals from industry and are not suitable for food

124 cyclic aromatic hydrocarbons (PAHs) and five heavy metals from soils to maize at the farmlands with i

125 tical report on the potential health risk of heavy metals from the leather industries in Pakistan bas

126 ealth risks due to excessive exposure to the heavy metals from the leather industries.

127 Heavy metals from urban runoff preserved in sedimentary

128 ore-producing taxa increases along a natural heavy metal gradient.

129 , but how microbial communities shift across heavy metal gradients remain unclear.

130 Mercury being one of the most toxic heavy metals has long been a focus of concern due to its

131 growing body of evidence has suggested that heavy metals have ototoxic effects, yet few epidemiologi

132 osed to polycyclic aromatic hydrocarbons and heavy metals have the greatest mortality.

133 as "free" layers in SHO are in contact with heavy metals having large spin-orbital interaction, and,

134 tate further dissection of the mechanisms of heavy metal (HM) accumulation/tolerance in plants and th

135 nd insert a thin layer of Cu to separate the heavy metal (HM) from the FM to avoid the proximity cont

136 emissions of five precedent-controlled toxic heavy metals (HMs), including mercury (Hg), arsenic (As)

137 growing support for a potential link between heavy metal homeostasis and host switching and reveals p

138 wn as Thlaspi caerulescens), an extremophile heavy metal hyperaccumulator model plant in the Brassica

139 The presence of heavy metal in food chains due to the rapid industrializ

140 Heavy metal in rice studies has attracted a greater conc

141 made by printing indicators for detection of heavy metals in chemical symbols of the metals in a styl

142 However, the concentrations of some heavy metals in Chinese soils appear to be increasing at

143 out to determine the concentrations of some heavy metals in dairy products, collected from five indu

144 r can identify the existence of a variety of heavy metals in drinking water, and the four-electrode s

145 aeopollution through geochemical analyses of heavy metals in four renowned archaeological caves of th

146 easy solutions to field-based monitoring of heavy metals in industrial wastewater discharges and in

147 Lead and cadmium are frequently encountered heavy metals in industrially polluted areas.

148 fractionation of endogen elements and toxic heavy metals in living organisms for biomedical applicat

149 is study was to increase the accumulation of heavy metals in plant foods by the external application

150 Therefore, monitoring the presence of heavy metals in rice and its products is a matter of a g

151 adopted to characterize the distribution of heavy metals in soil in this region.

152 The bioavailability of heavy metals in soil is controlled by their concentratio

153 direct identification and quantification of heavy metals in solution.

154 trode sensor can distinguish lead from other heavy metals in solution.

155 stitching were the principal contributors of heavy metals in the biological entities of the workers.

156 for the quantification of bioavailable free heavy metals in the cytoplasm of the microalga Chlamydom

157 CMAs play an important role for the fate of heavy metals in the environment, particularly in systems

158 c apparatus with increasing accumulations of heavy metals in the shoots also was observed.

159 nates restrict transport and plant uptake of heavy metals in the wheat cropping system.

160 have substantial buffering capacity for free heavy metals in their cytosol, even at high external met

161 Heavy metals in water resources can come from various in

162 -based text-reporting devices for monitoring heavy metals in water.

163 The concentrations of "heavy metals" in the mosses, however, are proportional t

164 es and sensors are used for the detection of heavy metals include spectroscopy and chromatographic me

165 Some of the heavy metals including Lead (Pb), Mercury (Hg), Arsenic

166 to 10microgml(-1), as well as several other heavy metals, including arsenic, mercury and lead at sim

167 ain elevated levels of biogenic elements and heavy metals, including C (and organic carbon), N, S, Al

168 Heavy metal increases could be due to flood-induced meta

169 In human liver and intestinal cells, heavy metals induced acute toxicity (Cr>Cd>Pb) at concen

170 NP stimulated ROS production, expression of heavy metal-inducible and stress-inducible genes, stress

171 PEM and bacteria deposition, and heavy metal influence, are real time monitored through t

172 The current flowing through the heavy metal instead of ferromagnetic layer realizes the

173 To examine the level at which heavy metals interfere with Fe deficiency responses, we

174 rstand that the inclusion of bioavailability heavy metal into HRA produces a more realistic estimatio

175 Leakage of lead and other heavy metals into drinking water is a significant health

176 u(II) from water was observed at a low Fe-to-heavy metal ion ratio (Fe/M(II) = 2:1) while a removal e

177 ing principle into the field of self-powered heavy-metal-ion detection and removal using the triboele

178 r is taken as a sustainable power source for heavy-metal-ion removal by recycling the kinetic energy

179 The removal efficiency of heavy metal ions (cadmium(II), Cd(II); cobalt(II), Co(II

180 It is shown that the presence of heavy metal ions (Cu(2+), Pb(2+), and Cd(2+)) in the tes

181 r multielemental ultratrace determination of heavy metal ions and arsenic species.

182 rmance is best for the low concentrations of heavy metal ions and its sensitivity decreases with the

183 ironmental and biomedical importance such as heavy metal ions and polyionic drugs.

184 harmful effects that result from exposure to heavy metal ions and UV radiation.

185 Heavy metal ions are non-biodegradable and contaminate m

186 Environmentally friendly removal of heavy metal ions at a much smaller dosage of Fe than tho

187 imultaneous determination of trace levels of heavy metal ions by anodic stripping voltammetry (ASV).

188 imultaneous determination of trace levels of heavy metal ions by anodic stripping voltammetry (ASV).

189 n emerging and promising diagnostic tool for heavy metal ions detection.

190 has a great potential to efficiently remove heavy metal ions from wastewaters in the presence of org

191 trace amounts of Cd(2+), Pb(2+), and Hg(2+) heavy metal ions in contaminated water.

192 ance (SPR) based sensor for the detection of heavy metal ions in the drinking water is designed.

193 tection signals generated due to presence of heavy metal ions in the solution matrix like current, po

194 report the presence and the safety level of heavy metal ions in water simultaneously and by text mes

195 probes are fabricated and characterised for heavy metal ions out of these pyrrole/chitosan/ITO/Ag co

196 ctrochemical biosensors for the detection of heavy metal ions such as Hg(2+), Ag(+), Cu(2+) and Pb(2+

197 ous electrochemical detection techniques for heavy metal ions those are user friendly, low cost, prov

198 simple preconcentration and determination of heavy metal ions using methodology based on DMSPE and TX

199 ecent trends in electrochemical detection of heavy metal ions with various types of sensing platforms

200 paration and preconcentration method of some heavy metal ions, Cd(II), Cu(II), Ni(II), Pb(II) and Zn(

201 Heavy metal ions, i.e., Cu(2+), are harmful to the envir

202 of sensitive and selective discrimination of heavy metal ions, including lanthanide and actinide salt

203 Effective and sensitive monitoring of heavy metal ions, particularly arsenic, in drinking wate

204 bo-nanosensors can selectively detect common heavy metal ions.

205 creases with the increasing concentration of heavy metal ions.

206 as no interferences were observed from other heavy metal ions.

207 e this effect for the inhibitory analysis of heavy metal ions.

208 d urea as well as for inhibitory analysis of heavy metal ions.

209 and reliable techniques for the detection of heavy metal ions.

210 -state enzymatic glucose oxidase reaction by heavy metals ions such as Ag(+), produced a quantitative

211 s are further capable of selectively sensing heavy-metal ions in seawater.

212 the first nonhelical DNA structure driven by heavy-metal ions, thus further contributing to the struc

213 of proximity induced magnetism (PIM) in the heavy metal is unknown.

214 alent chromium (CrVI), one of the more toxic heavy metals, is widely used in more than 50 industries

215 Also, the non-magnetic heavy metal layer can inject a vertical spin current wit

216 butions of the damping and the IDMI from the heavy metal layer on the magnetization reversal and prov

217 s at the interface between ferromagnetic and heavy metal layers with strong spin-orbit coupling, but

218 Heavy metal layers, exemplified by Pt, are known to play

219 f 16 ice cores quantifying substantial toxic heavy metal lead pollution at South Pole and throughout

220 Detection of trace amounts of a heavy metal, lead, in an ammonium nitrate matrix was als

221 used to examine changes in feeding ecology, heavy metal levels associated with life history events a

222 relative abundance of the OsPCS2 gene during heavy metal(loid) stress mitigation in rice plant.

223 ytochelatins, which help in sequestration of heavy metal(loid)s inside the cell vacuole to alleviate

224 For each heavy metal (M), one or two major peaks were observed, w

225 Here we report the SOT-assisted switching in heavy metal/magnetic insulator systems.

226 Anthropogenic emissions of the toxic heavy metal mercury (Hg) have substantially increased at

227 In plants, the excess of several heavy metals mimics iron (Fe) deficiency-induced chloros

228 These results show that the investigated heavy metals modulate Fe deficiency responses at differe

229 mycin, alcohols of ethanol and n-butanol and heavy metals of Cu(2+) and Cr(6+), were analyzed and 31

230 rigation, this study revealed the effects of heavy metals on PAHs uptake in terms of co-contamination

231 e impact of high loads of Hg, MeHg and other heavy metals on the dental clinic wastewater microbiome,

232 The adverse impacts of heavy metals on the oxidative enzyme and their risks to

233 f oil spills, removal of dyes, extraction of heavy metals or toxic anions, and the detection or remov

234 ported, with preferential uptake of precious heavy metals over other common metals.

235 er as the solvent and avoid the use of toxic heavy metal oxidizing reagents.

236 th plant systems appeared to have few common heavy-metal pathway regulators addressing mineral toxici

237 mization of contaminant inputs, reduction of heavy metal phytoavailability in soil with liming or oth

238 recognized medicinal use in the treatment of heavy metal poisonings as well as having potency for red

239 Cadmium is a widespread heavy metal pollutant that may act as an exogenous estro

240 cteria (SRB) are widely used for attenuating heavy metal pollution by means of sulfide generation.

241 Heavy metal pollution has been a problem since the adven

242 Heavy metal pollution has shown great threat to the envi

243 n the stressed soil microbial community with heavy metal pollution in the soil.

244 Little is known about the history of heavy metal pollution of Russia's Lake Baikal, one of th

245 However, the impact of heavy metal pollution on soil respiration in croplands i

246 s acid deposition (sulphur and nitrogen) and heavy metal pollution.

247 IED) and correlations of PM10 with SO2, NOx, heavy metals, polychlorinated dibenzo-p-dioxins/furan (P

248 It may be contaminated by toxic heavy metals present in water or soil.

249 n mass spectrometry can detect certain toxic heavy metals present in water, using surfactant-metal co

250 dization, denitrification, pathogenesis, and heavy-metal processing.

251 monstrate theoretically that a bi-layer of a heavy metal (Pt) and a bi-axial antiferromagnetic (AFM)

252 etween PM10 and heavy metal compounds (other heavy metals (r = 0.43, p = <0.001)), PAHs (r = 0.20, p

253 r thienyl-substituted phenazines without any heavy metals ( Ratzke et al.

254 Contamination of water by heavy metals represents a potential risk for both aquati

255 threatened by noxious contaminants, of which heavy metals represents an area of growing concern.

256 Heavy metals require careful monitoring due to their tox

257 Current methods for the detection of heavy metals require expensive instrumentation and labor

258 -kb deletion that removed genes encoding for heavy metal resistance.

259 Many heavy metal resistant bacterial strains have a high bios

260 trategy of C. elegans populations exposed to heavy metals resulting in an evolutionary pressure acros

261 This produced the IMS spectra of several heavy-metal salts, including CdCl2, ZnSO4, NiCl2, HgSO4,

262 Thallium (Tl) is a highly toxic heavy metal situated between mercury and lead in the per

263 he grids and improved the homogeneity of the heavy metal stain needed to enhance visualization of bio

264 cryogenic conditions without dehydration or heavy metal staining.

265 ns for cell culture, transfection, fixation, heavy-metal staining, embedding in resin, and EM imaging

266 medium (methylcellulose) before introducing heavy metal stains for visualization in small air-dried

267 g an oxidative stress (hydrogen peroxide), a heavy metal stress (arsenite) and an amino acid analogue

268 Bacteria deal with a heavy metal stress by altering nucleic acid methylations

269 d structure of cellular macromolecules under heavy metal stress.

270 l in msl1-1 mutants under moderate heat- and heavy-metal-stress.

271 However, the presence of toxic heavy metals such as cadmium and lead in some of the mos

272 n was conducted to survey the levels of some heavy metals such as cadmium, lead, chromium, nickel and

273 rinking water can be ex-post contaminated by heavy metals such as Cu(2+) from house fittings (e.g., w

274 capable of immobilizing large quantities of heavy metals, such as nickel, via sorption processes.

275 onsortia are significantly more resistant to heavy metals than pure cultures.

276 vironmental chemicals such as pesticides and heavy metals that may be anthropogenic or dietary or fro

277 herapies; nutritional therapy; chelation and heavy metal therapy; and biological and pharmacological

278 the paint and react with pigments containing heavy metals to form soaps.

279 only emphasizes the importance of assessing heavy metal toxicities at multiple levels but also provi

280 Cationic and heavy metal toxicity is involved in a substantial number

281 ause phytochelatins (PC) protect plants from heavy metal toxicity, strategies directed at manipulatin

282 e that soil carbonates critically influenced heavy metal transfer from soil to plants and presented a

283 that soil carbonates play a critical role in heavy metal transfer from soil to plants, implying that

284 It is well known that carbonates inhibit heavy metals transferring from soil to plants, yet the m

285 Several transcripts encoding heavy metal transporters were expressed in hypnozoites a

286 teria of accidental Hg(II) transport through heavy metal transporters with similar rates of uptake bu

287 at it is an energy-dependent process through heavy metal transporters.

288 nd categorize recent reports on detection of heavy metals using paper-based microfluidic devices on t

289 We investigated the history of heavy metal (V, Cu, Zn, Cd, Hg, Tl, Pb, U) pollution in

290 ochemical distribution of trace elements and heavy metals via adsorption and coprecipitation.

291 expensive method was developed for detecting heavy metals via the ion mobility spectrometry (IMS) in

292 High concentrations of tHg, MeHg and heavy metals were detected in DWW.

293 No harmful heavy metals were detected in the grain.

294 otal and bioaccessible of trace elements and heavy metals were digested using closed-nitric acid dige

295 age of the excellent scattering intensity of heavy metals which have undergone association by metallo

296 jor importance for the toxicity reduction of heavy metals, while the influence of the organic materia

297 Cadmium is a toxic and persistent heavy metal with estrogenic activities.

298 dary spin-charge conversion element, such as heavy metals with large spin Hall angle or multilayer la

299 Asymmetric multilayers of non-magnetic heavy metals with strong spin-orbit interactions and tra

300 the contrasting case of a magnetic-insulator/heavy-metal (YIG/Pt) heterostructure, where analogous tr