Reaction Of Oxygen Research Articles

Chemoselective Anaerobic Dehydrogenation of Alcohols By Using Visible Light and a Positively Charged Deazaflavin Catalyst Regenerated by Acetonitrile Solvent

Three series of novel deazaflavinum salts differing in their substitutions at positions 5 (R = H, phenyl or mesityl), 7 and 8 (R = OMe, Me, H or Cl) were synthesized as potential catalysts of a novel chemoselective visible light–mediated anaerobic oxidation of primary and secondary alcohols to carbonyl compounds. This mild procedure uses acetonitrile as a solvent, which acts simultaneously as a sacrificial electron acceptor (in place of the oxygen usually used in photooxidation reactions) and therefore the reaction does not need any additives. Structural and properties‐versus‐catalytic activity studies identified 5‐mesityl‐7,8‐dimethoxy‐3‐methyldeazaflavinium chloride (3a‐Cl) as the most potent catalyst. 3a‐Cl was effective in non‐deuterated acetonitrile (CH3CN), unlike its original 5‐phenyl analogue 2a‐Cl, which is efficient only in deuterated solvent (CD3CN). This difference arises because the regeneration of the 2a‐Cl catalyst is slower in CH3CN than in CD3CN. Our method using the optimized 3a‐Cl photocatalyst and CH3CN as a sacrificial oxidant and solvent in one is a useful addition to synthetic organic chemistry. Anaerobic conditions prevent side oxygenation reactions and overoxidations that usually occur in air or oxygen. This property makes this method suitable for dehydrogenations of alcohols that possess additional group(s) sensitive to oxygenation.

Engineering Cr−O−Ti structure towards boosted vinyl chloride destruction: Oxygen species evolution and reaction mechanism

Engineering Cr−O−Ti structure towards boosted vinyl chloride destruction: Oxygen species evolution and reaction mechanism

Development of FRET-based fluorescence quenching of ferric ions using Gd-doped CeO2 quantum dots

Ferric ions (Fe3+) are important in transporting oxygen and enzymatic reactions. Excess (hyperferremia) or deficiency (hypoferremia) of Fe3+ can cause serious health problems such as injury to the kidney, hepatic cirrhosis, heart disease, and anemia. Therefore, a novel sensor with selective, sensitive, and quick determination abilities is urgently required for Fe3+ sensing. The groundbreaking nano-methodologies have uncovered the paramount importance of metal and metal oxide nanoparticles (MONPs) in facilitating more accurate and streamlined detection assays. Herein, gadolinium (Gd) doped and undoped fluorescent cerium oxide (CeO2) QDs were synthesized due to the luminescent property of cerium oxide and its ability to incorporate oxygen vacancies through doping by a facile solution method and applied for sensing Fe3+. The chemical and morphological properties of the doped and undoped CeO2 QDs were thoroughly characterized. Their electronic and optical properties were analyzed through UV-Vis and fluorescence spectroscopy, after which they have been utilized to detect Fe3+. The fluorescence emission spectrum of CeO2 QDs overlaps with the absorption spectrum of ferric ions, resulting in fluorescence resonance energy transfer (FRET) and subsequent quenching of the fluorescence emission. The newly synthesized sensor displayed impressive performance in terms of selectivity and sensitivity towards Fe3+ sensing with a very low limit of detection (LOD) of 0.039 fM.

Kinetic Study of the Reactions of Ground State Atomic Carbon and Oxygen with Nitrogen Dioxide over the 50-296 K Temperature Range.

The kinetics of the reactions of nitrogen dioxide, NO2, with atomic oxygen and atomic carbon in their ground triplet states (3P) have been studied at room temperature and below using a supersonic flow (Laval nozzle) reactor. O(3P) and C(3P) atoms (hereafter O and C respectively) were created in situ by the pulsed laser photolysis of the precursor molecules NO2 at 355 nm and CBr4 at 266 nm, respectively. While the progress of the O + NO2 reaction was followed by detecting O atoms by a chemiluminescent tracer method, progress of the C + NO2 reaction was followed by detecting C atoms directly by vacuum ultraviolet laser-induced fluorescence at 116 nm. The measured rate constants for the O + NO2 reaction are found to be in excellent agreement with earlier work at higher temperatures and extend the available kinetic data for this process down to 50 K. The present work represents the first kinetics study of the C + NO2 reaction. Although both reactions display rate constants that increase as the temperature falls, a more substantial rate increase is observed for the O + NO2 reaction. The effects of these reactions on the simulated abundances of interstellar NO2 and related compounds were tested using a gas-grain model of the dense interstellar medium, employing expressions for the rate constants of the form, k(T) = α(T/300)β, with α = 1 × 10-11 cm3 s-1 and β = -0.65 for the O + NO2 reaction and α = 2 × 10-10 cm3 s-1 and β = -0.11 for the C + NO2 reaction. Although these simulations predict that gas-phase NO2 abundances are low in dense interstellar clouds, NO2 abundances on interstellar dust grains are predicted to reach reasonably high levels, indicating the potential for detection of this species in warmer regions.

Brain Function Status may be Related to Pelvic Floor Function and Pregnancy Weight Gain in Postpartum Women with Pelvic Floor Dysfunction

Background: Postpartum women often show depression and anxiety, abnormal memory and cognitive function, and pelvic floor function problems. Brain function test is also a new research direction generated combining life science and computer science. This study aimed to observe the brain function status of postpartum women and analyze the correlation between brain function and pelvic floor function and gestational weight. Methods: A cross-sectional study of women with medical record in our hospital. A total of 88 outpatient postpartum women with pelvic floor dysfunction including 48 cases of cesarean section and 40 cases of vaginal delivery who underwent brain function tests from August 2022 to September 2023 and met the inclusion criteria were included. Basic demographic information, brain function tests, pelvic floor examination, and pregnancy-related data were extracted. The brain function status of women after vaginal delivery and cesarean section was analyzed statistically, and analysis of the relationship between pelvic floor assessment and brain function. Results: Of the 88 postpartum women, >50% showed abnormal findings in the hypoxia index, emotional resistance, sleep index, outside focus, brain fatigue, brain emptying, and reaction speed. Statistical differences in brain fatigue (p < 0.001) and brain emptying (p = 0.002) were observed between postpartum women with vaginal delivery and cesarean section. Correlation analysis results revealed that prolapse was correlated with brain emptying (p < 0.001), and weakly correlated anxiety tendency (p = 0.05), sleep index (p = 0.02), introverted brain (p = 0.05), brain fatigue (p = 0.02). Pelvic floor muscle strength was associated with emotional resistance (p = 0.03), brain inhibition (p = 0.04), and brain stability (p = 0.03) weakly. Weight gain during pregnancy was related to inner focus (p = 0.001), and weakly related to oxygen deficiency index (p = 0.04), brain stability (p = 0.03), brain coordination (p = 0.01), brain emptying (p = 0.04), and reaction speed (p = 0.01). Conclusions: This study observed that most postpartum women have abnormal brain function, including mood, sleep, fatigue, cerebral oxygen metabolism, concentration, and information processing ability, and showed that postpartum brain function problems might correlated with pelvic floor function and pregnancy weight gain.

Energy-saving electrochemical green hydrogen production coupled with persulfate or hydrogen peroxide valorization at boron-doped diamond electrodes

Persulfate (S2O82−) and hydrogen (H2) electrosynthesis has gained prominence valorization in recent times. This study reports, for the first time, a techno-economic analysis of the electrochemical boron-doped diamond (BDD)-SO42−/SO4•−/S2O82−/H2O2||H2 system. BDD is an eco-friendly material for S2O82− and H2 formation, where S2O82− is economically attractive replacements for oxygen reaction in electrochemical H2 production to valorize it as an integrated-hybrid approach. The results clearly showed that current efficiencies of up to 75.3 % and 99.4 % at 45 mA cm−2 were observed for S2O82− and H2 production with anodic accumulation of 1.77 mmol L−1 and cathodic rate 0.3 µmol min−1, respectively. A techno-economic estimation indicated a significant levelized cost of H2 (∼$ 3.78 kg−1) for this hybrid-integrated process where it was improved decreasing the anode cost or increasing the current density (j). BDD||Ni-Fe based stainless-steel (SS) mesh system could be more appropriate to be commercialized for producing persulfate and green H2, according to the techno-economic analysis. This electrochemical strategy described here is a promising green alternative to conventional processes for the simultaneous electrogeneration of oxidants and green H2, both as high value-added products.

Chemical looping for upgrading light alkanes: oxygen carriers, reaction kinetics, and reactor design

Chemical looping for upgrading light alkanes: oxygen carriers, reaction kinetics, and reactor design

Oxylipins Derived from PUFAs in Cardiometabolic Diseases: Mechanism of Actions and Possible Nutritional Interactions.

Oxylipins are oxidized fatty acids, both saturated and unsaturated, formed through pathways that involve singlet oxygen or dioxygen-mediated oxygenation reactions and are primarily produced by enzyme families such as cyclooxygenases, lipoxygenases, and cytochrome P450. These lipid-based complex bioactive molecules are pivotal signal mediators, acting in a hormone-like manner in the pathophysiology of numerous diseases, especially cardiometabolic diseases via modulating plenty of mechanisms. It has been reported that omega-6 and omega-3 oxylipins are important novel biomarkers of cardiometabolic diseases. Moreover, collected literature has noted that diet and dietary components, especially fatty acids, can modulate these oxygenated lipid products since they are mainly derived from dietary omega-3 and omega-6 polyunsaturated fatty acids (PUFAs) or linoleic acid and α-linolenic by elongation and desaturation pathways. This comprehensive review aims to examine their correlations to cardiometabolic diseases and how diets modulate oxylipins. Also, some aspects of developing new biomarkers and therapeutical utilization are detailed in this review.

Cobalt Phosphide Decorating Metallic Cobalt With a Nitrogen‐Doped Carbon Nano‐Shell Surpasses Platinum Group Metals for Oxygen Electrocatalysis Applications

ABSTRACTIt has been a long‐standing challenge to cultivate capable and resilient oxygen electrocatalysts with higher activity, low price, and long lifetime to replace the commonly used platinum group metals, i.e., Pt for oxygen reduction reaction (ORR) and RuO2/IrO2 for oxygen evolution reaction (OER). This work presents a promising approach to address the challenges associated with oxygen electrocatalysis by introducing a cobalt phosphide/metallic cobalt (Co2P/Co) core wrapped in a nitrogen‐doped conductive carbon (CN) nano‐shell, demonstrated as Co2P/Co@NC. The strong chemical bonding between metallic cobalt and phosphorus, nitrogen and conductive carbon contributes to the enhanced conductivity and stability of the electrocatalyst. The nitrogen doping in the carbon shell provides additional Co–N active sites, which are crucial for ORR activity. Co2P/Co@NC demonstrates promising activity and stability compared to noble metals such as Pt for ORR in an alkaline medium. This suggests its potential as a cost‐effective alternative to Pt‐based catalysts. Further, due to factors such as strong cobalt‐phosphide bonding, high cobalt oxidation states and excellent conductivity of the nitrogen‐doped carbon shell, the Co2P/Co@NC outperforms noble metal oxides like iridium dioxide (IrO2) and ruthenium dioxide (RuO2) for OER. Co2P/Co@NC exhibits a low potential difference of 0.63 V, which is among the lowest reported for bifunctional electrocatalysts capable of both ORR and OER. Overall, the described strategy offers a promising avenue for developing efficient, low‐cost and stable electrocatalysts for oxygen reactions, which are crucial for various electrochemical energy conversion and storage technologies, such as fuel cells and metal–air batteries.

Influence of platinum content on semiconductor and electrochemical properties of materials based on titanium suboxides

The effect of platinum content on the surface morphology, phase composition and electrochemical properties of materials based on titanium suboxides was investigated. Titanium suboxides are formed at the stage of coating reduction under cathodic polarization, which allows the formation of a porous developed surface for electrodeposition of catalytic platinum layers. The main allotropic modification of TiOx in the studied composite materials is anatase, which contains particles of elemental titanium and platinum. The investigated materials are highly doped semiconductors with a high concentration of charge carriers. With an increase in the platinum content, an extreme dependence of the potential of flat zones is observed, which is associated with the formation of a composite material. The electrocatalytic activity was studied in the reactions of oxygen and hydrogen evolution. The overvoltage of oxygen production on platinum-containing materials is much lower than on the TiOx electrode. The slope of the linear dependence of the potential on the current density decreases with an increase in platinum content. The Tafel slope for the studied materials in the hydrogen evolution reaction was 160 mVdec–1 for coatings containing 0.25 mgcm–2 Pt; whereas it was equal to 42 and 43 mVdec–1 for electrodes with 0.5 and 2 mgcm–2 Pt, respectively.

Kinetic Analysis of PODE1-3 Combustion Mechanisms: Towards a general framework for reaction pathways

Polyoxymethylene dimethyl ethers (PODE) have emerged as promising clean alternative fuels for compression-ignition engines. The combustion characteristics of PODE vary with the degree of polymerization, necessitating a deeper understanding of their kinetic behavior. This study constructed and validated a kinetic mechanism for PODE2-3 based on a previously developed detailed kinetic mechanism for PODE1. The good performance of the proposed model in reproducing the data indicates the validity of the constructed kinetic mechanism for PODE2-3. A general framework for PODE reaction pathways was proposed, with special attention paid to the reaction kinetics of each original reaction. Three source routes of PODE reactivity were elucidated: (1) Route 1: a typical chain branching reaction after hydrogen abstraction from the primary carbon, followed by two oxygenation reactions; (2) Route 2: chain branching reactions in the decomposition of partial hydroperoxyl fuel radicals to carbonyl hydroperoxides; and (3) Route 3: chain branching reactions followed by hydrogen abstraction from secondary carbon, leading to low-polymerization fuel radicals. Routes 1 and 2 are chain-branching reaction pathways common to all PODE molecules; Route 3 is a reaction pathway exclusive to highly polymerized PODE, where low-polymerization fuel radicals in the decomposition products enhance the reactivity by continuing to react with oxygen. In contrast, PODE1 exhibited significantly lower reactivity than the other components because of the absence of Route 3 reaction pathway. The kinetic mechanism of PODE fuel reactivity as a function of the degree of polymerization was elucidated. Our findings are beneficial for the development of more precise computational models to predict the combustion behavior of PODE as an alternative fuel.

Electrochemical characterization of Bi3Ru3O11 – 40 wt% Bi1.6Er0.4O3 as an EOG electrode material

This paper reports on the study of the electrochemical behavior of porous Bi3Ru3O11 – 40 wt% Bi1.6Er0.4O3 electrodes on a Bi2O3 – 10 wt% Bi24B2O39 electrolyte in a symmetric cell configuration by impedance spectroscopy. The dependence of the area specific resistance (ASR) for electrode polarization on the partial pressure of oxygen replaced from PO2−1/2 to PO2−3/4 with decreasing thickness of the layer, which inhibited wetting. This indicates a change in the rate-limiting oxidation-reduction reactions of oxygen. It is assumed that the dissociation of adsorbed oxygen molecules on the active catalytic centers of the triple phase boundary (TPB) is the limiting stage of a surface oxygen exchange, and with a decrease in the layer thickness, additional difficulty in the transfer of gaseous oxygen molecules from the gas phase to these active catalytic centers is observed.

Prediction of perovskite oxygen vacancies for oxygen electrocatalysis at different temperatures

Efficient catalysts are imperative to accelerate the slow oxygen reaction kinetics for the development of emerging electrochemical energy systems ranging from room-temperature alkaline water electrolysis to high-temperature ceramic fuel cells. In this work, we reveal the role of cationic inductive interactions in predetermining the oxygen vacancy concentrations of 235 cobalt-based and 200 iron-based perovskite catalysts at different temperatures, and this trend can be well predicted from machine learning techniques based on the cationic lattice environment, requiring no heavy computational and experimental inputs. Our results further show that the catalytic activity of the perovskites is strongly correlated with their oxygen vacancy concentration and operating temperatures. We then provide a machine learning-guided route for developing oxygen electrocatalysts suitable for operation at different temperatures with time efficiency and good prediction accuracy.

Measurement of γ-Rays Generated by Neutron Interaction with 16O at 30 MeV and 250 MeV

Abstract Deep understanding of $\gamma$-ray production from the fast neutron reaction in water is crucial for various physics studies at large-scale water Cherenkov detectors. We performed test experiments using quasi-mono energetic neutron beams ($E_n = 30$ and 250 MeV) at Osaka University’s Research Center for Nuclear Physics to measure $\gamma$-rays originating from the neutron–oxygen reaction with a high-purity germanium detector. Multiple $\gamma$-ray peaks which are expected to be from excited nuclei after the neutron–oxygen reaction were successfully observed. We measured the neutron beam flux using an organic liquid scintillator for the cross section measurement. With a spectral fitting analysis based on the tailored $\gamma$-ray signal and background templates, we measured cross sections for each observed $\gamma$-ray component. The results will be useful to validate neutron models employed in ongoing and future water Cherenkov experiments.

Stereoelectronic Tuning of Bioinspired Nonheme Iron(IV)-Oxo Species by Amide Groups in Primary and Secondary Coordination Spheres for Selective Oxygenation Reactions.

Two mononuclear iron(II) complexes, [(6-amide2-BPMEN)FeII](OTf)2 (1) and [(6-amide-Me-BPMEN)FeII(OTf)](OTf) (2), supported by two BPMEN-derived (BPMEN = N1,N2-dimethyl-N1,N2-bis(pyridine-2-yl-methyl)ethane-1,2-diamine) ligands bearing one or two amide functionalities have been isolated to study their reactivity in the oxygenation of C-H and C═C bonds using isopropyl 2-iodoxybenzoate (iPr-IBX ester) as the oxidant. Both 1 and 2 contain six-coordinate high-spin iron(II) centers in the solid state and in solution. The 6-amide2-BPMEN ligand stabilizes an S = 1 iron(IV)-oxo intermediate, [(6-amide2-BPMEN)FeIV(O)]2+ (1A). The oxidant (1A) oxygenates the C-H and C═C bonds with a high selectivity. Oxidant 1A, upon treatment with 2,6-lutidine, is transformed into another oxidant [{(6-amide2-BPMEN)-(H)}FeIV(O)]+ (1B) through deprotonation of an amide group, resulting in a stronger equatorial ligand field and subsequent stabilization of the triplet ground state. In contrast, no iron-oxo species could be observed from complex 2 and [(6-Me2-BPMEN)FeII(OTf)2] (3) under similar experimental conditions. The iron(IV)-oxo oxidant 1A shows the highest A/K selectivity in cyclohexane oxidation and 3°/2° selectivity in adamantane oxidation reported for any synthetic nonheme iron(IV)-oxo complexes. Theoretical investigation reveals that the hydrogen bonding interaction between the -NH group of the noncoordinating amide group and Fe═O core smears out the equatorial charge density, reducing the triplet-quintet splitting, and thus helping complex 1A to achieve better reactivity.

Reactivity and stability of Ni encapsulated hierarchical HZSM-5 for lignite-to-aromatics via catalytic pyrolysis

Metal-zeolite composite catalysts, as a special type via metallic encapsulation technology, hold great promise for lignite-to-aromatics conversion due to their high activity, shape-selectivity, and stability. However, the key issues lie in the location of the efficient metal sites and the nature of coke evolved in metal-encapsulated zeolites. Herein, we reported an efficient in situ encapsulation method to confine Ni species inside hierarchical channels and on the surface of HZSM-5 (i.e., Ni-HeZ5) assisted by water-soluble carbon black as hard template. Compared to core-shell Ni-impregnated hierarchical HZSM-5 (i.e., Ni@HeZ5), Ni-HeZ5 exhibited high activity, good stability and enhanced coke resistance in lignite-to-aromatics conversion via catalytic pyrolysis under an H2 atmosphere. The selectivity for light aromatics reached 93.6% in a single-pass reaction. The Ni species on the surface and within the zeolite were evidenced to facilitate, respectively, the cracking reaction of aliphatics and light oxygenates to produce olefins, and the secondary reaction of olefines to produce aromatics. The coke deposition and its influence on deactivation of Ni-HeZ5 and Ni@HeZ5 were studies based on coke location, chemical nature and formation mechanism. The principle of coke development in lignite-to-aromatics conversion is different from that in biomass-to-aromatics conversion. The heavy aliphatic coke deposits, which undergo chain-growth, play a more significant role in catalyst deactivation than the aromatic coke species. This work provides a facile strategy for designing metal-encapsulated zeolites (i.e., balancing the internal and external metallic sites on hierarchical channels) for lignite-to-aromatics conversion.

Effects of zirconium diboride addition on porosity reduction in laser metal deposition of tungsten carbide–cobalt cermet material

Laser metal deposition of tungsten carbide–cobalt (WC-Co) cermet material is a promising means of improving the wear resistance of metal products. However, laser metal deposition of WC-Co has constraints on its practical use because a clad bead of WC-Co often includes numerous gas pores. Earlier studies have found CO gas generation in a molten pool by reaction of carbon and oxygen to be the main cause of gas porosity in a WC-Co clad bead. Preventing the gas reaction is important to obtain clad beads with few pores. The addition of elements with strong affinity for oxygen, such as aluminum, was found to be effective for porosity reduction in a clad bead. However, the addition of highly reactive pure aluminum particles on WC-Co powder presents some difficulties for industrial use. For this study, zirconium diboride (ZrB2), a chemically stable compound, was used as an additive to WC-Co powder. After WC-Co powder with adhered ZrB2 particles was prepared using a wet granulation process, laser metal deposition was conducted. Zirconium stemming from the dissolution of ZrB2 in the molten pool was found to have the effect of trapping oxygen elements as solid zirconium oxides. Consequently, gas generation in the molten pool by the reaction of carbon and oxygen was restrained. Clad beads having few pores and fine microstructures were obtained. Observations of the molten pool behavior taken using a high-speed camera indicated that ZrB2 addition drastically improves process stability compared to processes using conventional WC-Co powder.

Ionic liquid meets ZnIn2S4: Synergistically tuning coordination environment of ZnIn2S4 grown on porous carbon by N, F doping and S-vacancies to load high concentration of single-atom Sb for efficient flexible Zn-Air batteries

Currently, the improvement in energy efficiency of catalysts for Zn-air batteries (ZABs) is seriously hindered by kinetic retardation. In this study, an ionic liquid was employed to generate sulfur vacancies, nitrogen/fluorine atoms, and a high concentration of single-atom Sb on a layered ZnIn2S4 substrate via a one-step synthesis process. These components were uniformly loaded onto porous carbon (SbSANF-ZnIn2S4-x/PC). The sulfur vacancies and nitrogen/fluorine atoms altered the surface charge distribution of ZnIn2S4-x and created an ideal coordination environment for the adsorption of single-atom Sb, enhancing the reactions in oxygen evolution/reduction reactions (OER/ORR) and ZABs. During testing, SbSANF-ZnIn2S4-x/PC demonstrated a half-wave potential of 0.892 V in ORR and an overpotential of 0.319 V in OER. When assembled into ZABs, it showed a specific capacity of 812.1 mAh g⁻¹ and a power density of 186.2 mW cm⁻². Overall, this study presents a promising one-step synthesis approach for creating a highly efficient electrocatalyst with single-metal atoms, non-metal atoms, and vacancies.

The Inclusion Characteristics and Mechanical Properties of M2 High-Speed Steel Treated with a Vacuum Carbon Deoxidation Process

The oxygen content of M2 high-speed steel has not been intentionally controlled in industrial production through secondary refinement in vacuum furnaces. However, a lower oxygen content has a significant effect on the cleanliness, toughness, and addition of rare-earth elements to M2 high-speed steel. The changes in total oxygen content controlled by vacuum carbon deoxidation (VCD) treatment and inclusion evolution were investigated in M2 high-speed steel to understand the effects of carbon on dissolved oxygen and oxides in the carbon–oxygen (C-O) reaction process. Furthermore, the microstructure and properties of M2 high-speed steel caused by vacuum insulation and the role of reducing oxygen content in rare-earth alloying were briefly demonstrated. The results showed that the [O%] decreased from 30 ppm to 3 ppm in a vacuum at holding times above 25 min through the C-O reaction, leading to an inclusion reduction of approximately 70%. In the case of [O%] = 3 ppm in M2 high-speed steel, the addition of rare-earth elements has a greater effect on the inclusion characteristics. Lowering the oxygen content of M2 high-speed steel improves cleanliness and plays a significant role in rare-earth alloying.

Synergistic impact of nano-supramolecular coordination polymer based on cadmium, ethyl nicotinate and thiocyanate ligands as efficient catalyst to remove harmful elements from wastewater.

Under ultrasonication, cadmium nitrate tetrahydrates, ethyl nicotinate (EN), and potassium thiocyanate as connecting ligand self-assembled to form the nanosized supramolecular coordination polymer (NSCP1) and the crystalline supramolecular coordination polymer (SCP1) [Cd(EN)2(SCN)2]. Single crystal SCP1 X-ray diffraction (XRD) revealed that CdII has an octahedral shape. The network structure of SCP1 is composed of chair conformation cyclic [Cd2(SCN)2] n building blocks that form a one dimensional (1D) chain with bilaterally coordinated EN. The 1D-chain is joined to the other by extensive hydrogen bonds, which arrange the chains into a three-dimensional network. By stacking π-π, the strands are fluttering the three-dimensional (3D) network even more. Several structural characterization methods and spectral analyses were used to analyze SCP1 and NSCP1. The heterogeneous catalysts SCP1 and NSCP1 have been shown to display exceptionally strong catalytic activity against the breakdown of the designated contaminant, indigo carmine (IC) color in very short durations under ultraviolet (UV) or ultrasonic wave conditions. The photoluminescence probing approach was utilized to determine the reactive oxygen species and reaction process using the disodium salt of terephthalic acid.