Zigzag Form Research Articles

Оценка влияния зигзагообразной шероховатости на кинематические параметры потока

The research was carried out in order to assess the energy dissipation efficiency of zigzag elements of artificial roughness installed on the spillway face of medium- and low-pressure dams. The flow characteristics were evaluated downstream on a spillway dam model with a free flow entry to the spillway. The experiments were carried out in two stages. The first stage was to measure the flow parameters in the downstream with a smooth spillway face of the dam. The second stage provided for the placement of zigzag elements of artificial roughness in the form of a double zigzag on the spillway face of the dam. Evaluation of the effectiveness of the artificial roughness was carried out by comparing the controlled flow parameters in the same section of the transit section of the spillway from the downstream side with both considered design schemes. It has been established that the device of artificial roughness in the form of a double zigzag on the spillway face of the dam leads to a decrease in the second conjugate flow depth behind the structures and allows creating additional head losses, thereby facilitating measures to dissipate excess flow energy in the downstream. Evaluation of the effectiveness of the artificial roughness was carried out by comparing the controlled flow parameters in the same section of the transit section of the spillway from the downstream side with both considered design schemes. placement of zigzag elements on the water slope. It has been established that the device of artificial roughness in the form of a double zigzag on the spillway face of the dam leads to a decrease in the second conjugate flow depth behind the structures and allows creating a It is shown that the installation of a zgizag roughness on the spillway face of mediumand low-pressure dams changes the kinematic characteristics of the outlet flow and significantly reduces the second conjugate depth, which also favorably affects the parameters of the channel erosion behind the structure, reducing them.

Оценка нормативных расчетных экстремальных характеристик стока при использовании различных законов распределения

The research was carried out in order to assess the energy dissipation efficiency of zigzag elements of artificial roughness installed on the spillway face of medium- and low-pressure dams. The flow characteristics were evaluated downstream on a spillway dam model with a free flow entry to the spillway. The experiments were carried out in two stages. The first stage was to measure the flow parameters in the downstream with a smooth spillway face of the dam. The second stage provided for the placement of zigzag elements of artificial roughness in the form of a double zigzag on the spillway face of the dam. Evaluation of the effectiveness of the artificial roughness was carried out by comparing the controlled flow parameters in the same section of the transit section of the spillway from the downstream side with both considered design schemes. It has been established that the device of artificial roughness in the form of a double zigzag on the spillway face of the dam leads to a decrease in the second conjugate flow depth behind the structures and allows creating additional head losses, thereby facilitating measures to dissipate excess flow energy in the downstream. Evaluation of the effectiveness of the artificial roughness was carried out by comparing the controlled flow parameters in the same section of the transit section of the spillway from the downstream side with both considered design schemes. placement of zigzag elements on the water slope. It has been established that the device of artificial roughness in the form of a double zigzag on the spillway face of the dam leads to a decrease in the second conjugate flow depth behind the structures and allows creating a It is shown that the installation of a zgizag roughness on the spillway face of mediumand low-pressure dams changes the kinematic characteristics of the outlet flow and significantly reduces the second conjugate depth, which also favorably affects the parameters of the channel erosion behind the structure, reducing them.

Multi-parameter analysis of different building forms in a semi-arid climate: Effect of building construction and phase change materials

This paper presents a comparative study that will evaluate and optimize 96 building cases in a multi-parametric manner. This study is conducted by using the EnergyPlus simulation software with the integrated PCM hysteresis model. The studied building designs were carefully selected to have equivalent air volume, while taking into consideration the outer wall shape of the building to increase or decrease the outside sun and wind exposed surface as well as increasing the PCM area inside the buildings. Three different building forms were evaluated, the square form, the octagonal form which is considered as the building design with a reduced surface, and finally the innovative zigzag form which has a higher wall surface compared to the square form. Additionally, these three building forms, were evaluated at two different constructions (light-weight and heavy-weight), four different PCM types and four different HVAC scenarios. The main purpose of this study is to assess indoor air temperature fluctuation reduction, energy efficiency, and PCM activation. The results reveal an energy saving up to 13.1 % and a maximum total yearly temperature fluctuation reduction of 653 °C. The recommended building configuration was able to reach a maximum PCM activation of 26.63 %.

Effects of oxygen absorption on the electronic and optical properties of armchair and zigzag Silicon Carbide Nanotubes (SiCNTs)

Investigation of the effects of oxygen absorption on the two types of single walled silicon carbide nanotubes (SWSiCNTs) with different chiral angles were done. Our calculations were performed using density functional theory with quantum ESPRESSO and YAMBO codes. Changes in electrical and optical properties were analyzed after introducing two molecules of oxygen as absorbing gas to both armchair and zigzag nanotubes. Results demonstrated a new future by SWSiCNT in which oxygen absorption significantly closes the band gap which transformed the materials from semiconducting to metallic. This future revealed its potential for application as automobile gas switches for air conditioners. Results from optical calculations revealed that zigzag SiCNT is not optically potential above 20 eV, generally, the (6, 6) SWSiCNT demonstrate higher transmission with and without oxygen absorption in the ultraviolet region. The first absorption peaks appeared within the range of 1 eV to 3.4 eV for all systems, there is higher absorption by the oxygen absorbed (6, 6) SWSiCNT than the oxygen absorbed (6, 0) SWZSiCNT. This demonstrates that armchair form of SWSiCNT absorbs gases more than the zigzag form. The absorption peaks can be seen to fall above 3.5 eV and then rise again up to 10 eV, this behavior justifies the nanotubes potential in automobile day light sensors.

Fabrication of zigzag and square spiral Cu nanostructures: Influence of substrate rotation on the structural, optical and electrical properties

Copper (Cu) thin films were deposited by using glancing angle deposition in the form of zigzag and square spiral nanostructures. Thin films were fabricated under different azimuthal rotations (φ = 180°, 90°, 45°, 22.5° and 11°), to the thickness of approximately 300 nm. Morphological, chemical and structural properties were investigated by field-emission scanning electron microscopy, X-ray diffraction, X-ray photoelectron spectroscopy and high-resolution transmission electron microscopy. For the optical characterization of the samples spectroscopic ellipsometry was used, while the electrical properties were analyzed by four-point probe method. It was found that as the azimuthal rotation decreases, deposited nanostructures become more porous with larger number of grown arms. Both, optical and electrical analyses revealed that the properties of the obtained thin films are significantly influenced by growth mechanism. By decreasing the φ parameter, the surface plasmon resonance peak was shifted from 1038.9 nm to 1676.6 nm, which can be correlated with the porosity of Cu structures. Besides, it was found that the optical and electrical properties of the thin films are also strongly dependent on the concentration of defects.

The arabic and turkish lexic in the written monument «Kitab Bulgat al-Mushtaq»

In the preservation and development of the modern Turkic languages, one of the key roles belongsto linguistic written monuments, as carriers of not only the language, but also the mentality, made duringthe reign of the Mamluk Kipchaks in Egypt and Syria, in particular the bilingual dictionary of the 14thcentury Kitab Bulgat al-Mushtak. First, the manuscript is one of six found works; secondly, if the verb part of the monument was studied in Kazakh Turkology, then the nominal part was practically not consid-ered; thirdly, the manuscript is kept in a single copy in France, which is more difficult in comparison with access to the archival and library funds of other countries (Russia, Turkey, Uzbekistan, etc.) during a pan-demic; fourthly, the peculiarities of the dictionary itself arouses the interest of the researcher: the form of a zigzag form of writing style, the presence of lexical units that are not found in the other five works,etc. The material received from France on the basis of a copy of the manuscript provided access to thelexical fund of the work, namely, it made it possible to identify, write, read and translate from Arabic and Kypchak languages into Kazakh. By studying the Turkic lexis of the monument, it is possible to de-termine the share of the Old Kipchak language vocabulary in modern Turkic languages, incl. in Kazakh. Key words: Turki, Kipchak, Mamluk, al-Mushtaq, lexis, Arabic, written monument.

A Nanoinformatics Approach to Evaluate the Pharmacological Properties of Nanoparticles for the Treatment of Alzheimer’s Disease

Alzheimer's disease is a destructive nervous system disease which causes structural, biochemical and electrical abnormalities inside the human brain and results due to genetic and various environmental factors. Traditional therapeutic agents of Alzheimer's disease such as tacrine and physostigmine have been found to cause adverse effects to the nervous system and gastrointestinal tract. Nanomaterials like graphene, metals, carbon-nanotubes and metal-oxides are gaining attention as potential drugs against Alzheimer's disease due to their properties such as large surface area, which provide clinical efficiency, targeted drug designing and delivery. Designing new drugs by using experimental approaches is a time-consuming, tedious and laborious process which also requires advanced technologies. This study aims to identify some novel drug candidates against Alzheimer's disease with no or less associated side effects using molecular docking approaches Methods: In this study, we utilized nanoinformatics based approaches for evaluating the interaction properties of various nanomaterials and metal nanoparticles with the drug targets, including TRKB kinase domain, EphA4 and histone deacetylase. Furthermore, the drug-likeness of carbon nanotubes was confirmed through ADME analysis. Carbon nanotubes, either single or double-walled in all the three-configurations, including zigzag, chiral, and armchair forms, are found to interact with the target receptors with varying affinities Conclusion: This study provides novel and clearer insights into the interaction properties and drug suitability of known putative nanoparticles as potential agents for the treatment of Alzheimer's disease.

Koreografi Tari Zapin Bertasbih Pada Sanggar Tasik Malay Art Di Pekanbaru

This research aims to analyze Zapin Bertasbih Dance Choreography in Sanggar Tasik Malay Art Pekanbaru. This type of research is qualitative research with descriptive methods of analysis. The research instrument is the researchers own and is assisted by supporting instruments such as stationery and cameras. Primary data types and secondary data. Data collection techniques are carried out by employing library studies, observations, interviews and documentation. The steps to analyze the data are to describe, interpret and draw conclusions. The results showed that Zapin Bertasbih dance choreography performed by choreographer Tri Sisca Noviani is a new dance creation worked with a choreographic approach. Zapin Bertasbih Dance Choreography can be seen in Form and Content. In the form motion, there are 15 kinds of motion, floor patterns in the form of vertical, horizontal, diagonal and zigzag, the composition of groups in the form of simultaneous and split, dancers (6 people), wearing Malay costumes, dance accompaniment by wearing gambus, accordion, flute, darbuka, marwas and tambur, property using tasbih. In content, among them the idea that arises from taking things done by Muslims in performing worship practices to the creator by using tasbih as his property. The atmosphere that appears in Zapin Dance is peaceful, joyful and calm. Therefore, Zapin Bertasbih Dance is worked on with choreographic planning by his stylist. Because Zapin Bertasbih Dance begins with an idea that departs from Zapin Melayu itself where Zapin Melayu underlies the creation of Zapin Bertasbih. The source of Garapan from Zapin Bertasbih is some movements from Zapin Melayu, namely the movement of worship, Middle Dizziness, Broken Chicks and the Movement of Meniti batang. Then worked by the stylist and arranged movements that have been created into a new form of dance. In content, among them the idea that arises from taking things done by Muslims in performing worship practices to the creator by using tasbih as his property.

Atomistic Observation of Temperature-Dependent Defect Evolution within Sub-stoichiometric WO3-x Catalysts.

Tunable crystalline defects endow WO3-x catalysts with extended functionalities for a broad range of photo- and electric-related applications. However, direct visualization of the defect structures and their evolution mechanism is lacking. Herein, aberration-corrected and in situ transmission electron microscopy was complemented by theoretical calculations to investigate the effect of temperature on the defect evolution behavior during hydrogenation treatment. Low processing temperature (100-300 °C) leads to the occurrence of randomly distributed oxygen vacancies within WO3-x nanosheets. At higher temperatures, oxygen vacancies become highly mobile and aggregate into stacking faults. Planar defects are prone to nucleate at the surface and develop in a zigzag form at 400 °C, while treating at 500 °C promotes the growth of {200}-type stacking faults. Our work clearly establishes that the atomic configuration of the defects in WO3-x samples could be manipulated by regulating the hydrogenation temperature. This study not only expands our understanding of the structure-function relationships of sub-stoichiometric tungsten oxides but also unlocks their full potential as advanced catalysts by tuning stoichiometry in a controlled manner.

Non-polynomial zigzag theories with C° finite element formulation for buckling analysis of laminated composite and sandwich plates

In this present work, non-polynomial zigzag theories (algebraic zigzag theory (AZT), exponential zigzag theory (EZT), hyperbolic zigzag theory (HZT), inverse hyperbolic zigzag theory (IZT), logarithmic zigzag theory (LZT) and trigonometric zigzag theory (TZT)) are performed for buckling response of laminated composite and sandwich plates. The present models assume parabolic variation of out – plane stresses through the depth of the plate and also accomplish the zero transverse shear stresses over the surface of the plate. Thus a need of shear correction factor is obviated. The present zigzag models able to meet the transverse shear stress continuity and zigzag form of in-plane displacement continuity at the plate interfaces. An efficient eight noded C° continuous isoparametric serendipity element is established and employed to examine the buckling analysis. Like FSDT, the considered mathematical model possesses similar number of variables and which decides the present models computationally more effective. Several numerical examples are carried out to study the effects of span to thickness ratio, ply orientation, lay-up number, modular ratio, loading condition and boundary condition on the buckling response. To ensure the capability of the proposed models, higher modes of buckling are obtained for laminated plates and sandwich plates. Further, the efficiency and superiority of the proposed models is ascertained by comparing it with 3 D elasticity solution and also with various existing shear deformation theories in the literature. Most remarkably, the present models are accurately estimates the buckling load parameter and they are insensitive of shear-locking.

Functional and Rheological Profile of LAB-fermented Bambara Groundnut (Vigna subterranean (L)) Flour

Lactic fermentation is commonly employed to improve protein digestibility and overall nutritional quality of grains foods. This study evaluated the functional and rheological properties of flour samples from Bambara groundnut fermented with Lactobacillus plantarum [NRRL B-4306] and Lactobacillus fermentum [NRRL B-1932] obtained from the United States Department of Agriculture. Functional profile such as particle size index, water absorption capacity, swelling capacity, and least gelation concentration of the flour were determined; as well, amylograph and maturograph evaluations were used to determine the rheological properties and the results presented as average, minimum, and maxi­mum values. Particle size determination observed that 150, 125, 105 µ orifice did not readily accommodate particles from the non-inoculated samples while the inoculated samples passed through 150 and 125 µ but did not readily pass through 105 µ orifice. Bioprocess with lactic acid bacteria increased the water absorption capacity of the flour samples from 346.5 to 386.4%, the least gelation concentration decreased from 5.3 to 4.1%, while swelling capacity increased from 14.9 to 23.2 mg/100 g for non-inoculated and inoculated flours, respectively. Rheological investigations show evaluations for amylograph and maturogram determinations. Values obtained for amylograph indicate that temperature at start of gelatinization was peak at 63.8 and 63.00C for non-fermented and LAB-fermented flour with no significant (p ˂ 0.05) difference, while temperature at maximum viscosity and maximum viscosity had significant (p ˂ 0.05) values of 92.1 and 76.00C, as well as 730 and 265 brabender units (BU), respectively. Thus, amylograph quality of the fermented flour sample was indicated by the maximum viscosity which is significantly higher in the case of non-inoculated flour sample. The maturograph evaluation also recorded the maturation behavior of the dough prepared from the test flours after the proofing time (fermentation rest) by means of a sensing probe which records the elasticity of the mature dough every 2 min and produces the typical zigzag form of the maturogram. This action was recorded in maturograph units (MU) on the strip-chart with values of 44 and 28 min for final proof time, 750 and 610 MU for dough level, 210 and 220 MU for dough elasticity, as well as 10 and 12 min for proofing stability, determined respectively for non-fermented and LAB-fermented flour samples. LAB-fermentation demonstrated to improve the functionality and rheology of Bambara groundnut flour and the production process could be further controlled to achieve products of optimal quality.

Vibrational and electronic properties of (5,0) zigzag and (5,5) armchair carbon and SiC nanotubes using density functional theory

We have performed optimization of (5,0) zigzag and (5,5) armchair single-walled carbon nanotube and SiC nanotube using density functional theory at zero spin and high spin values. Further, Infrared and Raman spectra, highest occupied and lowest unoccupied molecular orbitals and their gap and natural bond orbital analysis were carried out at optimized structures of these materials. Three different exchange and correlation functionals PBE, LSDA and HCTH along with cc-pVDZ basis set were used. For conspicuous normal modes assignments of both the (5,0) zigzag and (5,5) armchair single-walled carbon nanotube and SiC nanotube, potential energy distributions of the normal modes were calculated using normal coordinate analysis. The diameter of carbon nanotube and SiC nanotube in (5,0) zigzag form were optimized at 4.0 Å and 5.0 Å respectively and in (5,5) armchair form were optimized at 7.0 Å and 8.0 Å respectively at all the three level of theories.

Hybrid braced frame with buckling-restrained and strong braces to mitigate soft story

The steel concentric braced frames (CBFs) are the common structural system for buildings. Unlike high strength and stiffness, brace buckling in CBFs results in high nonlinear behavior, which causes damage concentration in one or a few stories during a severe earthquake. This paper proposes a hybrid CBF bracing system to reduce soft-story mechanisms and improve the structural behavior of the CBF system. The proposed system is composed of a buckling restrained brace (BRB) or an energy dissipation device and a strong brace (SB) in one span. The strong braces are designed to have an elastic performance during an earthquake. The direction of BRB and SB are changed, inversely, story by story in a zigzag form. This configuration leads to paradoxical results: stiffness and ductility. This improves both the soft story mechanisms and the buckling capacity of CBFs. In this study, a set of 6-story structural models with different bracing patterns including inverted-V, multi-X, zipper, hexa (hexagonal bracing configuration), and strongback braced frames were evaluated through nonlinear static (pushover) and dynamic analyses (IDA). The collapse performance of structural models was assessed by comparing the seismic behavior of conventional CBFs with similar bracing configuration based on FEMA P695 criteria. From the evaluation of collapse fragility curves, the hybrid bracing system had more safety margin against collapse during severe earthquakes than conventional CBFs.

An improved chacha algorithm for securing data on IoT devices

In recent years, revolution of development was exceedingly quick in the Internet. Nevertheless, instead of only linking personal computers, mobiles and wearable equipment's, Internet growths from a web binding to true world physical substances that is indicated to novel connotation, which is labeled as Internet of Things (IoT). This concept is utilized in many scopes like education, health care, agriculture and commerce. IoT devices are presented with batteries to have independence from electric current; consequently, their working time is specified by the total time of the power of these batteries. In many IoT applications, data of IoT devices are extremely critical and should be encrypted. Current encryption approaches are created with a high complexity of an arithmetical process to provide a high level of security. However, these arithmetical processes lead to troubles concerning the efficiency and power consumption. ChaCha cipher is one of these approaches, which recently attracted attention due to its deployment in several applications by Google. In the present study, a new stream cipher procedure is proposed (called Super ChaCha), which performs low duty cycles for securing data on IoT devices. The proposed algorithm represents an improved revision to the standard ChaCha algorithm by increasing resistance to cryptanalysis. The modification focuses on rotation procedure which has been changed from a fixed constant to a variable constant based on random value. Also, the inputs of the cipher are changing in the columns form followed by diagonals form to zigzag form and then by alternate form to provide improved diffusion in comparison with the standard ChaCha. Results regarding the security illustrate that Super ChaCha needs 2512 probable keys to break by brute-force attack. Furthermore, the randomness of Super ChaCha successfully passed the five benchmark and NIST test.

Magnetism in Zigzag and Armchair CuO Nanoribbons: Ab Initio Analysis

The present work reports the magnetism analysis of zigzag and armchair forms of CuO nanoribbons by using density functional theory (DFT)-based ab initio approach. The structural stability has been confirmed through the binding energy calculation. The electronic and magnetic properties have been analyzed as a function of varied width of CuO nanoribbons, interesting information for variety of applications. The metallic and ferromagnetic behaviors of CuO nanoribbons are observed, whereas its bulk counterpart shows a p-type semiconducting and antiferromagnetic nature. The computed magnetic moments for the zigzag and armchair forms of CuO nanoribbon are in the ranges of 0.19–0.61 μB and 0.24–0.97 μB, respectively. The computed spin polarizations confirms the half or full metallic ferromagnetic nature of these nanoribbons.

<strong><em>Staurosirella paranaensis sp. nov.</em>, a new epiphytic freshwater diatom (Bacillariophyceae) from the Paraná River floodplain, Brazil, South America</strong>

A new diatom species, Staurosirella paranaensis, is described only from epiphytic samples on the macrophyte Eichhornia azurea in a lake from the Upper Paraná River Floodplain in Brazil. Description of the new taxon is based on morphological characteristics observed using light and scanning electron microscopy. The new species is characterized by short elliptic valves with an axial area narrowly lanceolate, sometimes giving the impression of having a zig-zag form due the alternating nature of the striae. The lineolate striae, running uninterrupted from valve face to mantle. Spines are solid, thin, spatulate with two prominences at the top, located at the costae. Apical pore fields are inconspicuous, located at both apices and equally developed on both valves. Girdle elements variable in number, open, lacking pores, ligulated, and with valvocopula being much larger. The species previously identified in the region as the “catch-all” taxon “Staurosirella (Staurosira) pinnata” is placed in the genus Staurosirella based on the striae bearing well-developed internal vimines delimiting typically long areolae. Comparisons with similar species ascribed to the genus Staurosirella are provided to highlight the peculiar characteristics of S. paranaensis.

Discrete solitons in zigzag waveguide arrays with different types of linear mixing between nearest-neighbor and next-nearest-neighbor couplings

We study discrete solitons in zigzag discrete waveguide arrays with different types of linear mixing between nearest-neighbor and next-nearest-neighbor couplings. The waveguide array is constructed from two layers of one-dimensional (1D) waveguide arrays arranged in zigzag form. If we alternately label the number of waveguides between the two layers, the cross-layer couplings (which couple one waveguide in one layer with two adjacent waveguides in the other layer) construct the nearest-neighbor couplings, while the couplings that couple this waveguide with the two nearest-neighbor waveguides in the same layer, i.e., self-layer couplings, contribute the next-nearest-neighbor couplings. Two families of discrete solitons are found when these couplings feature different types of linear mixing. As the total power is increased, a phase transition of the second kind occurs for discrete solitons in one type of setting, which is formed when the nearest-neighbor coupling and next-nearest-neighbor coupling feature positive and negative linear mixing, respectively. The mobilities and collisions of these two families of solitons are discussed systematically throughout the paper, revealing that the width of the soliton plays an important role in its motion. Moreover, the phase transition strongly influences the motions and collisions of the solitons.

Stitching up the Belt[n]arenes

A synthetic strategy reported recently in the Journal of the American Chemical Society by Wang and coworkers, who used laser irradiation in the final key step of the synthesis, has led to the formation of highly strained belt[8]arene derivatives. This breakthrough could open doors to more controlled and precise syntheses of zigzag carbon nanotubes.

Coconut malformation: An emerging disease caused by Fusarium proliferatum in southern Iran

AbstractSymptoms of vegetative malformation were observed on coconut palms (Cocos nucifera L.) in the Qeshm Island, Bandar Abbas and Minab, in Hormozgan province, southern Iran. The symptoms included misshapen and dwarfed leaves with shortened, thickened and tightened leaflets in wavy and zigzag form. The aim of this study was to identify the causal pathogen of coconut palm malformation and complete Koch's postulates for putative pathogen. Small pieces of surface‐disinfested malformed vegetative tissues of coconut palms were cultured on potato dextrose agar (PDA) medium. Fusarium isolates were permanently obtained from the symptomatic tissues. Sequence data from the internal transcribed spacer region (ITS1–5.8S‐ITS2) and translation elongation factor 1 alpha (TEF‐1α) gene were used for molecular identification of the isolates. BLAST search of the sequences showed 99%–100% identity to several Fusarium proliferatum strains in the GenBank, FUSARIUM‐ID and Fusarium MLST databases. A phylogeny inferred using individual sequence data from ITS region and TEF‐1α gene placed our isolates together with the other F. proliferatum sequences retrieved from the GenBank. Pathogenicity tests were carried out using one‐year‐old healthy coconut palm seedlings and conidial suspensions (106 conidia/ml) of the F. proliferatum isolates. The first visible symptoms appeared on newly produced leaves of the inoculated seedlings during the 16th week after inoculation, wherease no disease symptoms were observed on the control plants until the end of the experiment. Reisolation from symptomatic tissues of the inoculated seedlings yielded isolates of F. proliferatum with morphological and molecular characteristics identical to those of the isolates used for inoculations. This is the first report of coconut palm malformation caused by F. proliferatum worldwide.

Supramolecular networks and Hirshfeld surfaces of oxydiacetic acid and iminodiacetic acid salts.

Oxydiacetic acid (Oda) and iminodiacetic acid (Ida) have been combined with two diamines, namely ethylenediamine (en) and o-phenylenediamine (o-phen), to give three molecular crystals of compositions [(Oda2-)(en2+)]·H2O (Odaen), [(Ida-)(0.5en+)] (Idaen) and [(Oda-)(o-phen+)] (Odaophen). Single crystal X-ray structure determination of the three molecular salts revealed that the hydrogen bonding interactions form distinct supramolecular chains. In Odaen, water molecules and Oda2- anions generate one-dimensional supramolecular chains where two chains overlap each other in zigzag form. In Odaophen, Oda- anions generate a one-dimensional linear supramolecular chain. In Idaen, both intermolecular and intramolecular proton transfer occurs. Ida- anions generate a one-dimensional zigzag chain. These one-dimensional supramolecular chains extend to form different two-dimensional supramolecular chains by the interaction of diaminium and monoaminium cations. Intermolecular close contacts are also examined using Hirshfeld analysis to reveal similarities and differences in the crystal structures.