PMID-sentid Pub_year Sent_text comp_official_name comp_offsetprotein_name organism prot_offset 34182633-7 2021 The desorption kinetics showed a lower rate constant (k) and higher initial desorption constant (h) for Mn2+ than Cd2+ and Ag+, suggesting both high- and low-affinity interaction sites for Mn2+. Manganese(2+) 189-193 CD2 molecule Homo sapiens 114-117 35584535-4 2022 A fine-tuning of the Mn2+ concentration from 1 to 50 mol % Cd2+ induces a substantial red shift of emission spectra from 570 to 630 nm due to the shrinkage of the crystalline host lattice, and the maximum intensity of emission is achieved at 20 mol % Mn2+ doping. Manganese(2+) 21-25 CD2 molecule Homo sapiens 59-62 35584535-4 2022 A fine-tuning of the Mn2+ concentration from 1 to 50 mol % Cd2+ induces a substantial red shift of emission spectra from 570 to 630 nm due to the shrinkage of the crystalline host lattice, and the maximum intensity of emission is achieved at 20 mol % Mn2+ doping. Manganese(2+) 251-255 CD2 molecule Homo sapiens 59-62 206286-6 1978 The inhibiting effect of Cd2+ is removed in the presence of exogenous Mn2+ or hydroxylamine. Manganese(2+) 70-74 CD2 molecule Homo sapiens 25-28 35319883-5 2022 Herein, we demonstrate a rational synthetic strategy to modulate the structure and luminescence properties of 0D Mn(II) halide hybrids utilizing the structure-directing d10 metal ions (Cd2+/Zn2+). Manganese(2+) 113-119 CD2 molecule Homo sapiens 185-188 35319883-6 2022 0D metal halide hybrids of Cd2+/Zn2+, which act as hosts with tunable structures, accept Mn2+ ions as substitutional dopants. Manganese(2+) 89-93 CD2 molecule Homo sapiens 27-30 2729929-2 1989 A 10-fold excess of either Zn2+ or Mn2+ partially antagonized inhibition of growth by Cd2+. Manganese(2+) 35-39 CD2 molecule Homo sapiens 86-89 2729929-8 1989 Increased Cd2+ in culture medium resulted in decreased Mn2+ and Zn2+ in cells of the susceptible strain but did not reduce the Mn2+ and Zn2+ content of cells of the tolerant strain. Manganese(2+) 55-59 CD2 molecule Homo sapiens 10-13 7225357-3 1981 Divalent cations bind to dipalmitoylphosphatidylcholine in the sequence Ca2+ approximately equal to Cd2+ approximately equal to Mn2+ greater than Ca2+ approximately equal to Mg2+ greater than Ba2+. Manganese(2+) 128-132 CD2 molecule Homo sapiens 100-103 32627793-0 2020 Surface precipitation of Mn2+ on clay minerals enhances Cd2+ sorption under anoxic conditions. Manganese(2+) 25-29 CD2 molecule Homo sapiens 56-59 32627793-2 2020 In this study, the effects of Mn2+ on Cd2+ sorption to two types of clay minerals, a well-crystalline natural kaolinite (KGa-1b) and a synthetic montmorillonite (Syn-1), were investigated. Manganese(2+) 30-34 CD2 molecule Homo sapiens 38-41 32627793-4 2020 At low Mn2+ and Cd2+ concentrations (1 and 5 muM), both metals exhibited similar affinity for sorption to the clays, suggesting that elevated Mn2+ concentrations might effectively decrease Cd2+ sorption as predicted using a three-plane surface complexation model. Manganese(2+) 142-146 CD2 molecule Homo sapiens 189-192 32627793-5 2020 However, competitive Mn-Cd experiments at higher concentrations (>=50 muM) revealed that for both clay minerals, the presence of Mn2+ increased Cd2+ sorption to the solid phases. Manganese(2+) 129-133 CD2 molecule Homo sapiens 144-147 32627793-6 2020 Although solutions were undersaturated with respect to known Mn(ii) solid phases, analysis using X-ray absorption spectroscopy (XAS) evidenced the formation of Mn(ii)-containing solid phases which can specifically adsorb or incorporate Cd2+. Manganese(2+) 160-166 CD2 molecule Homo sapiens 236-239 32627793-7 2020 This process, which was mediated by the presence of clay minerals, overcompensated the decrease in Cd2+ adsorption to clay surfaces due to competition with Mn2+. Manganese(2+) 156-160 CD2 molecule Homo sapiens 99-102 32627793-8 2020 We conclude that, contrary to predictions based on a competitive surface complexation model, elevated Mn2+ concentrations can contribute to decrease dissolved Cd2+ concentrations in anoxic clay-containing environments, such as contaminated sediments or flooded paddy soils. Manganese(2+) 102-106 CD2 molecule Homo sapiens 159-162 29805037-7 2018 Among the cations tested, Cd2+ and Mn2+ bind most tightly, and comparison of three new Cd2+-bound crystal structures suggests that these riboswitches achieve selectivity by enforcing heptacoordination (favored by high-spin Cd2+ and Mn2+, but otherwise uncommon) in the softer site. Manganese(2+) 232-236 CD2 molecule Homo sapiens 87-90 31036167-4 2019 To this aim, we report the reactivity of solutions made of Mn(II) and Mn(III) bound to Tiron and DFOB with our optimized porphyrin reagent which includes adding excess Cd2+, and compare these results with data from representative natural seawater samples. Manganese(2+) 59-65 CD2 molecule Homo sapiens 168-171 31474742-5 2019 As the expression of ZIP8, a zinc transporter having affinities for Cd2+ and Mn2+, was the highest in S3 cells, ZIP8 may contribute largely to the apical uptakes of these metals. Manganese(2+) 77-81 CD2 molecule Homo sapiens 68-71 29805037-7 2018 Among the cations tested, Cd2+ and Mn2+ bind most tightly, and comparison of three new Cd2+-bound crystal structures suggests that these riboswitches achieve selectivity by enforcing heptacoordination (favored by high-spin Cd2+ and Mn2+, but otherwise uncommon) in the softer site. Manganese(2+) 232-236 CD2 molecule Homo sapiens 87-90 29805037-8 2018 Remarkably, the Cd2+- and Mn2+-selective bacterial transcription factor MntR also uses heptacoordination within a binuclear site to achieve selectivity. Manganese(2+) 26-30 CD2 molecule Homo sapiens 16-19 29100878-0 2018 N-acetyl-l-cysteine and Mn2+ attenuate Cd2+-induced disturbance of the intracellular free calcium homeostasis in cultured cerebellar granule neurons. Manganese(2+) 24-28 CD2 molecule Homo sapiens 39-42 24237148-4 2013 The findings of this work show that Cd2+ and Zn2+ selectively inhibit the Mn2+-induced error-prone DNA polymerase activity in extracts of cells from human and mouse tissues. Manganese(2+) 74-78 CD2 molecule Homo sapiens 36-39 27593346-2 2016 Here, we present a systematic investigation of cation-exchange reactions that involve the displacement of Mn2+ from CdSe nanocrystals by Cd2+ or In3+. Manganese(2+) 106-110 CD2 molecule Homo sapiens 137-140 11285908-8 2001 Results show the measured stability constants follow the order (from strongest to weakest): Al3+ > Cu2+ > Pb2+ > Cd2+ > Zn2+ > Fe3+ > Hg2+ > Ca2+ > Co2+ > Ni2+ > Mn2+ > Mg2+ > K+. Manganese(2+) 192-196 CD2 molecule Homo sapiens 122-125 24061378-2 2012 Further, the stability constants of the 1 M2+ complexes in water-saturated nitrobenzene were calculated; they were found to increase in the series of Cu2+ < Ba2+ < Zn2+ < Ni2+ < UO22+ < Co2+ < Mn2+ < Cd2+ < Ca2+ < Pb2+. Manganese(2+) 211-215 CD2 molecule Homo sapiens 221-224 15913136-4 2005 The selectivity and efficiency of Cd2+ transport from an aqueous solution containing other cations, such as Co2+, Cr3+, Ni2+, Fe2+, Mn2+, Pd2+ and Zn2+ ions, were investigated. Manganese(2+) 132-136 CD2 molecule Homo sapiens 34-37 16488017-3 2006 Data obtained at pH 7.0 using this system, show that the synthetic ionophore transports divalent cations with the selectivity sequence Pb2+ > Cd2+ >> Zn2+ > Mn2+ > Co2+ > Ni2+ > Ca2+ > Sr2+. Manganese(2+) 169-173 CD2 molecule Homo sapiens 145-148 8864569-5 1996 Besides Na+ and K+, several divalent cations were effective in the sequence: Ca2+ > Mn2+ > Ba2+ > Cd2+ > Mg2+ > Co2+ > Zn2+ > Ni2+. Manganese(2+) 87-91 CD2 molecule Homo sapiens 107-110 7843095-2 1994 Ni2+, Co2+, Fe2+, and Mn2+ evoke the release of stored Ca2+, but are less potent than Cd2+ (apparent K0.5 = 40 nM). Manganese(2+) 22-26 CD2 molecule Homo sapiens 86-89 6893328-4 1980 We also report evidence suggesting that the binding of Cd2+ to S2 is the crucial step in activation and that Cd2+ binding to S1 induces a form of concanavalin A similar to that induced by Zn2+, Ni2+, or Co2+ and different from that induced by Mn2+. Manganese(2+) 243-247 CD2 molecule Homo sapiens 109-112