PMID-sentid Pub_year Sent_text comp_official_name comp_offsetprotein_name organism prot_offset 31748027-4 2020 The nano-Au electrochemical sensor could detect Pb2+ from 0.5 to 10 muM with detection limits of 0.06 muM (S/N= 3) and sensitivity of 0.27996 mA muM-1. Gold 9-11 latexin Homo sapiens 68-71 31748027-4 2020 The nano-Au electrochemical sensor could detect Pb2+ from 0.5 to 10 muM with detection limits of 0.06 muM (S/N= 3) and sensitivity of 0.27996 mA muM-1. Gold 9-11 latexin Homo sapiens 102-105 31754682-7 2019 The introduction of Au enhances the electron transfer efficiency, which endows the sensor with good reduction ability for H2O2 at 0 V over a wide linear range (0.5-200 muM and 210-3000 muM) and with a low detection limit (0.23 muM (S/N = 3)), which fulfills the requirements for the detection of H2O2 in a biological system. Gold 20-22 latexin Homo sapiens 168-171 32002361-8 2020 The Au/CILCE can detect L-dopa in human serum in the linear concentration range of 0.1 muM to 90 muM with detection and quantification limits of 4.5 nM and 15.0 nM, respectively. Gold 4-6 latexin Homo sapiens 87-90 32002361-8 2020 The Au/CILCE can detect L-dopa in human serum in the linear concentration range of 0.1 muM to 90 muM with detection and quantification limits of 4.5 nM and 15.0 nM, respectively. Gold 4-6 latexin Homo sapiens 97-100 31754682-7 2019 The introduction of Au enhances the electron transfer efficiency, which endows the sensor with good reduction ability for H2O2 at 0 V over a wide linear range (0.5-200 muM and 210-3000 muM) and with a low detection limit (0.23 muM (S/N = 3)), which fulfills the requirements for the detection of H2O2 in a biological system. Gold 20-22 latexin Homo sapiens 185-188 31754682-7 2019 The introduction of Au enhances the electron transfer efficiency, which endows the sensor with good reduction ability for H2O2 at 0 V over a wide linear range (0.5-200 muM and 210-3000 muM) and with a low detection limit (0.23 muM (S/N = 3)), which fulfills the requirements for the detection of H2O2 in a biological system. Gold 20-22 latexin Homo sapiens 185-188 26745577-3 2016 The results revealed that this novel electrode exhibited excellent electrocatalytic performance toward glucose oxidation, with a wide double-linear range from 0.2 muM to 20 mM and a low detection limit of 0.1 muM based on a signal-to-noise ratio of 3, which was mainly attributed to the ability of loading a small amount of Au with good electron conductivity on the surface of cobalt oxide nanosheets with large active surface area and synergistic electrocatalytic activity of Au and cobalt oxide toward glucose electrooxidation. Gold 324-326 latexin Homo sapiens 209-212 30864564-1 2019 Single-crystal Au nanoplatelets, as large as 28 mum in cross section and as thin as 6 nm, are generated by bubbling hydrogen gas into an aqueous solution of HAuCl4 in the presence of p-phosphonic acid calix[8]arene, which acts as both a catalyst and stabiliser. Gold 15-17 latexin Homo sapiens 48-51 31128755-3 2019 On the basis of this, the proposed colorimetric glucose assay accomplishes a dynamic range of 0.05-90 muM with detection limit of 0.02 muM, which is almost three orders of magnitude lower than that (10 muM) based on gold nanorods (Au NRs). Gold 231-233 latexin Homo sapiens 102-105 31128755-3 2019 On the basis of this, the proposed colorimetric glucose assay accomplishes a dynamic range of 0.05-90 muM with detection limit of 0.02 muM, which is almost three orders of magnitude lower than that (10 muM) based on gold nanorods (Au NRs). Gold 231-233 latexin Homo sapiens 135-138 31128755-3 2019 On the basis of this, the proposed colorimetric glucose assay accomplishes a dynamic range of 0.05-90 muM with detection limit of 0.02 muM, which is almost three orders of magnitude lower than that (10 muM) based on gold nanorods (Au NRs). Gold 231-233 latexin Homo sapiens 135-138 30007882-6 2018 Moreover, Raman spectrum results show that the Au-AuAg substrate can produce signal intensity about 3.8 x 102 times stronger than that of 4-ABT alone and the detection limit was as low as 0.1 muM in solution. Gold 47-49 latexin Homo sapiens 192-195 26745577-3 2016 The results revealed that this novel electrode exhibited excellent electrocatalytic performance toward glucose oxidation, with a wide double-linear range from 0.2 muM to 20 mM and a low detection limit of 0.1 muM based on a signal-to-noise ratio of 3, which was mainly attributed to the ability of loading a small amount of Au with good electron conductivity on the surface of cobalt oxide nanosheets with large active surface area and synergistic electrocatalytic activity of Au and cobalt oxide toward glucose electrooxidation. Gold 477-479 latexin Homo sapiens 209-212 26367668-4 2015 Two partially connected Au nano-discs with a center-to-center distance of 1.1 mum could be identified as two peaks. Gold 24-26 latexin Homo sapiens 78-81 26479194-3 2015 Using a 1.46-mum-diameter microfiber, we obtained single-band 2-nm-line-width plasmon resonance in an Au nanorod around a 655-nm-wavelength, with a quality factor up to 330 and extinction ratio of 30 dB. Gold 102-104 latexin Homo sapiens 13-16 22931380-4 2012 For an Au-coated MGH membrane a temperature drop from 605 to 100 C was measured over a distance of 965 mum, resulting in an average temperature change of 0.52 K/mum. Gold 7-9 latexin Homo sapiens 104-107 26406924-5 2015 The Au in the ZMW serves both as an optical cladding layer and as the working electrode for potential control, thereby accessing single molecule electron transfer dynamics at muM concentrations. Gold 4-6 latexin Homo sapiens 175-178 23377057-6 2013 Specimens of Au-Pt cast on gold cylinders in one piece showed higher strain development than the other groups used in this study, with strains ranging from 223.1 to 2,198.1 Mum/m. Gold 13-15 latexin Homo sapiens 173-176 24552451-8 2014 Accordingly, the [Pb](+)/[Au](+) peak ratio increased upon increasing the AsO2(-) concentration over the range from 10 nM to 10 muM. Gold 26-28 latexin Homo sapiens 128-131 22931380-4 2012 For an Au-coated MGH membrane a temperature drop from 605 to 100 C was measured over a distance of 965 mum, resulting in an average temperature change of 0.52 K/mum. Gold 7-9 latexin Homo sapiens 162-165 22422276-4 2012 The pseudo-first-order rate constant (k(app)) and activation energy were estimated to be 3 x 10(-3) s(-1) and 31 kJ mol(-1), respectively, with 1.0 muM of the gold catalyst at 298 K. The catalytic activity of the DMF-stabilized AuNCs was strongly influenced by the layer of adsorbed DMF on the Au NCs. Gold 228-230 latexin Homo sapiens 148-151 22823911-2 2012 The EFE properties of UNCD/Au-Si could be turned on at a low field of 8.9 V/mum, attaining EFE current density of 4.5 mA/cm(2) at an applied field of 10.5 V/mum, which is superior to that of UNCD films grown on Si (UNCD/Si) substrates with the same chemical vapor deposition process. Gold 27-29 latexin Homo sapiens 76-79 22823911-2 2012 The EFE properties of UNCD/Au-Si could be turned on at a low field of 8.9 V/mum, attaining EFE current density of 4.5 mA/cm(2) at an applied field of 10.5 V/mum, which is superior to that of UNCD films grown on Si (UNCD/Si) substrates with the same chemical vapor deposition process. Gold 27-29 latexin Homo sapiens 157-160 22448753-2 2012 Two kinds of Au supracrystals with typical thicknesses of 300 nm and 5 mum, respectively, are probed for the first time with scanning tunneling microscopy/spectroscopy at 5 K revealing similar power law behavior and showing homogeneous conductance with the fingerprint of isolated nanocrystal. Gold 13-15 latexin Homo sapiens 71-74