PMID-sentid Pub_year Sent_text comp_official_name comp_offsetprotein_name organism prot_offset 33140638-0 2020 Voltammetric pH Measurements in Unadulterated Foodstuffs, Urine, and Serum with 3D-Printed Graphene/Poly(Lactic Acid) Electrodes. Graphite 91-99 phenylalanine hydroxylase Homo sapiens 13-15 33167215-5 2021 An iridium oxide film was electrodeposited onto the graphite working electrode providing the pH sensitive layer, while the integrated circuit board allows for data acquisition and storing. Graphite 52-60 phenylalanine hydroxylase Homo sapiens 93-95 33140638-4 2020 In this work, we describe a voltammetric pH sensor that uses a three-dimensional (3D)-printed graphene/poly(lactic acid) filament electrode that is pretreated to introduce quinone functional groups to the graphene surface. Graphite 94-102 phenylalanine hydroxylase Homo sapiens 41-43 33140638-4 2020 In this work, we describe a voltammetric pH sensor that uses a three-dimensional (3D)-printed graphene/poly(lactic acid) filament electrode that is pretreated to introduce quinone functional groups to the graphene surface. Graphite 205-213 phenylalanine hydroxylase Homo sapiens 41-43 31846894-0 2020 Graphene aerogel nanoparticles for in-situ loading/pH sensitive releasing anticancer drugs. Graphite 0-8 phenylalanine hydroxylase Homo sapiens 51-53 34624190-0 2021 Defect Engineering of Graphene to Modulate pH Response of Graphene Devices. Graphite 22-30 phenylalanine hydroxylase Homo sapiens 43-45 27940234-2 2017 Specifically, we prepared iron doped polyacrylic hydrazide modified reduced graphene nanocomposites (Fe@RGO/PAH) by in-situ polymerization approach and subsequent a one-pot reaction with hydrazine. Graphite 76-84 phenylalanine hydroxylase Homo sapiens 108-111 34894599-1 2022 Electrografted anthraquinone on graphite was used as a probe to monitor the pH change at the biofilm-electrode interface at the anode of a microbial fuel cell inoculated with wastewater. Graphite 32-40 phenylalanine hydroxylase Homo sapiens 76-78 25686536-0 2015 The power of power: electrokinetic control of PAH interactions with exfoliated graphite. Graphite 79-87 phenylalanine hydroxylase Homo sapiens 46-49 24270708-6 2014 We demonstrate that deuterium atoms adsorbed on graphite can react with adsorbed PAH molecules, forming superhydrogenated PAH species. Graphite 48-56 phenylalanine hydroxylase Homo sapiens 81-84 24270708-6 2014 We demonstrate that deuterium atoms adsorbed on graphite can react with adsorbed PAH molecules, forming superhydrogenated PAH species. Graphite 48-56 phenylalanine hydroxylase Homo sapiens 122-125 23081889-0 2012 A boron-containing PAH as a substructure of boron-doped graphene. Graphite 56-64 phenylalanine hydroxylase Homo sapiens 19-22 7687023-3 1993 On the basis of PAH levels in the work environment and hydroxypyrene concentrations in the urine, the workers from the graphite electrode producing plant were the most exposed. Graphite 119-127 phenylalanine hydroxylase Homo sapiens 16-19 34624190-9 2021 The overall pH-sensing characteristics of the graphene will be determined by the balance of these two mechanisms. Graphite 46-54 phenylalanine hydroxylase Homo sapiens 12-14 34624190-0 2021 Defect Engineering of Graphene to Modulate pH Response of Graphene Devices. Graphite 58-66 phenylalanine hydroxylase Homo sapiens 43-45 34624190-1 2021 Graphene-based pH sensors are a robust, durable, sensitive, and scalable approach for the sensitive detection of pH in various environments. Graphite 0-8 phenylalanine hydroxylase Homo sapiens 15-17 34624190-1 2021 Graphene-based pH sensors are a robust, durable, sensitive, and scalable approach for the sensitive detection of pH in various environments. Graphite 0-8 phenylalanine hydroxylase Homo sapiens 113-115 34624190-2 2021 However, the mechanisms through which graphene responds to pH variations are not well-understood yet. Graphite 38-46 phenylalanine hydroxylase Homo sapiens 59-61 34624190-3 2021 This study provides a new look into the surface science of graphene-based pH sensors to address the existing gaps and inconsistencies among the literature concerning sensing response, the role of defects, and surface/solution interactions. Graphite 59-67 phenylalanine hydroxylase Homo sapiens 74-76 35500463-0 2022 A wearable electrochemical sensor based on beta-CD functionalized graphene for pH and potassium ion analysis in sweat. Graphite 66-74 phenylalanine hydroxylase Homo sapiens 79-81 35500463-2 2022 The sensor was composed of flexible reference electrode, pH response electrode and K+ selective electrode, which were prepared through printing beta-CD functionalized graphene (beta-CD/RGO) water suspension on conductive PET substrate with microelectronic printer. Graphite 167-175 phenylalanine hydroxylase Homo sapiens 57-59 35569853-1 2022 Here, nanocomposite-decorated laser-induced graphene-based flexible hybrid sensor is newly developed for simultaneous detection of heavy metals, pesticides, and pH in freshwater. Graphite 44-52 phenylalanine hydroxylase Homo sapiens 161-163 35569853-7 2022 Furthermore, a polyaniline/antimony/laser-induced graphene-based pH sensor is also integrated, showing an excellent sensitivity of -72.08 mV pH-1 in the pH range (2-9). Graphite 50-58 phenylalanine hydroxylase Homo sapiens 65-67 35569853-7 2022 Furthermore, a polyaniline/antimony/laser-induced graphene-based pH sensor is also integrated, showing an excellent sensitivity of -72.08 mV pH-1 in the pH range (2-9). Graphite 50-58 phenylalanine hydroxylase Homo sapiens 141-143 35569853-7 2022 Furthermore, a polyaniline/antimony/laser-induced graphene-based pH sensor is also integrated, showing an excellent sensitivity of -72.08 mV pH-1 in the pH range (2-9). Graphite 50-58 phenylalanine hydroxylase Homo sapiens 153-155