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Discuss the process of innovation that include removal of metals.

Effective Techniques for Reducing Toxicity

Removing metals to treat industrial soils comprising of minerals is includes effective technologies. Here, the metals include techniques to reduce toxicity for meeting technologies from various treatment standards. This is to meet technologies for meeting technology-based treatment standards. It is seen that sediments and soils are been contaminated with radionuclides. This include technetium, tritium, strontium, thorium, cesium, plutonium and uranium. In order to conduct an effective sol removal process, a multidisciplinary research, production and enrichment of nuclear materials, reprocessing of spent fuels, developing, testing and fabrication of nuclear and non-nuclear weapons are done. This also includes constructing and testing nuclear reactors and managing different radioactive wastes and various fuels spent.

In this, the turning method for metal removal is demonstrated. This includes rotation of workpieces while cutting tools are found to be moving in a straight path. This ultimately results in a cylindrical type of shape. Further, a lathe is the machine of choice of every turning operations. Similar to most of the machining tasks. This is done automatically or manually. Moreover, this drawback to manual activity needs constant supervision. Apart from this, automatic turning never needs this. With CNC or Computer Numerical Control, the program to every tooling, speeding and movement changes to a computer takes place. Then the instructions are sent to lathe for finishing. CNC permits efficiency and consistency of considerable runs in productions. Every single point of cutting tools that are utilised in turning are found to be coming in different shapes. Here, they are put at a distinct angle to retrieve different results. Thus, it is a primary metal removal method where machining with a huge degree of accuracy for the cylindrical work-piece. There are various optimise machining parameters during machining A1S1 140 steel along with the ceramic tool. The depth of cut, feed rates and cutting speeds possess high effects on the roughness of the surface. As far as identifying of optimal cutting situations for finishing surfaces are concerned, a design of experiments can be done through carbide coated turning tools.

Understanding reduction in the concentration of metals is a vital part of the treatment process for industrial plants. There is a huge necessity of performing the decontamination of various efficiencies of different procedures through solid contaminated with uranium, plutonium and heavy metals from different sites. They have been providing huge data regarding chemical and physical properties of contaminated soils rom different sires for permitting the optimization of treatment methods for particular soils.

Metal Removal through Turning Process

The following study discusses the motivation behind, metal removal technology through turning and analyses various kinds of literature. Further, various methods to undertake the innovation and modern progress are analysed in this study.

Every turned section have a common property. They comprise of a curved surface of machines. These are generated as the rotation of the part on the axis take place. Moreover, workpieces are varying from tiny weighing fractions of a single ounce for great terms of tons. Besides, the turning is highly helpful while any precise surface is needed. These sections create castings of different kinds, extrusions, brazed and welded assemblies and module nonmetallic sections. Further, these sections are being created from castings of brazed, welded, extrusions, forgoing activities and module of various non-metallic parts. This needs turning operations. Here the instance is brake disks, valve parts, brake drums, nozzles, tune and pipe fittings that include elbow and tees rollers. Apart from this, it includes pistons, turbine rotors, pins, hub, gun barrels, handles and axles.

The activities of optimization of different parameters in turning operations of steel is done by Taguchi method. For instance an experimental task can be done by the method of Turning EN-031 steel alloy with the help of Tungsten Carbide inserts. Here, there are three main reasons using Taguchi method of turning that are demonstrated hereafter. Here, the first one is to demonstrates and explain systematic process of Taguchi designing parameter and deploying that to data over Turning. The next one is to determine optimal combination of different kinds of process parameters on the basis of S/N ratio. This is to understand the importance foe very parameters through doing various analysis. Next, the vital aim is to see the impact of lubricant temperature is steel turning method over that reactions of roughness of surfaces. These cutting parameters are known as lubricant temperature, depth of cut and feed rates varying with the observed impacts of reactions. Moreover, another important concern is to gain through implementing cooled lubricants.  Also with huge depths of cut surfaces of improvement, as the lubricant temperature is minimized.

Moreover, in turning operation various cutting parameters are selected. This is done in such a way that high performances of cutting can be achieved. The impacts of cutting parameters is the reflection over surface roughness. Here, roughness of surfaces used for finding and evaluating product quality is an important quality attribute of turning products. This is the measure of technological quality of products and factors influencing cost of manufacturing.

Optimization of Different Parameters in Turning Operations of Steel by Taguchi Method

The turning process to cut metals. Through this, the metals from the external periphery of cylindrical workpieces are eradicated. Here the volume of metals removed in every unit time is referred to as MRR or Metal Removal Rate. This is an essential criterion in the field of production engineering for rising quality and productivity. Here, MRR has been fluctuating with different types of variations to cut parameters are a distinct type of metals according to Eranna (2016). This MRR has been a huge effect on various mechanical properties like chip formation, creep, fatigue and so on. For turning operations, the vibration is a significant and recurrent issue. This has been shaking the outcome of machining and particularly in a surface to finish. Here, a lifespan of a tool is also affected by vibrations. Various acoustic noises under a situation of working have been showing dynamic motion. This has been among work pieces and cutting tools as per Glukhov et al. (2016). At this place, the operations of cutting such as milling, boring and turning are induced because of work-piece of deformation. Thus it can be said that in turning processes, the importance of parameter choice gets raised. This is because as it goes on controlling, adequate quality of the surface is needed. This is also a vital factor as far as productivity is concerned.

At the case of turning, motion and speed of cutting tools are particularized around various parameters. Here the parameters are found out through every operation on the basis of work-piece materials, tool metals and sizes and many more. The parameters of trying also impacts the processes of cutting speeds, that indicate the work price surface which is relative to edge of cutting tool as by cutting is performs and is measured in terms of SFM or Surface Feet per minute. According to Inyang et al. (2016) there is the spindle speed where the rotational motion and work piece in revolutions of RPM are determined. Here, the speed is equal to cutting speed getting divided through the work piece circumferences where the cutting is done. As the speed of spindle is held constant, the speed if cutting gets varied. Then there is the feed rates where the speed of cutting tool movements are relative to work piece as the tools performs any cut. This feed rate is calculated in millimeter per revolution. Next the depth of cuts is measured with tool along the radius of activities. As the cuts are made in boring or turning operations. Here a huge depth of cut needs low rate of feeds and results in huge loads over the tool and decreasing the life of the tool.

Identifying Optimal Cutting Situations for Finishing Surfaces

Komkiene and Baltrenaite, E. (2016) states that for this, the Taguchi method is an effective tool providing efficient and systematic methods for process optimizations and is an efficient tool to design high quality systems. Further, the Taguchi process is to design experiments is simple to apply and adopt for users having restricted knowledge of statistics. This a wide popularity can be gained for scientific and engineering community. Here, the methods of engineering regarding obtaining processes and products conditions are there is minimally sensitive issues with different reasons of variations and producing huge quality products having less development and costs of manufacturing. The orthogonal arrays and Signal to noise ratio are vital tools to be utilized for robust designing. These S/N ratio properties can be categorized to three sections as the properties are constant. They are nominal or best, smaller or better and huge with effective properties. Here, the effect on every control factors are presented clearly with different kinds of response graphs. Besides, optimal cutting conditions of different control factors are easily found out from various reactions of S/N reactions. Moreover, designing parameters are the primary step towards Taguchi method for achieving dependable outcomes instead of rising the cost of experiments.

For instance, EN24T is proper for manufacturing parts like shafts, heavy duty axles, stud bolts and gears. EN24 T is able to retain proper values of effects at low temperatures. This is it commonly specified to various harsh offshore deployments like hydraulic bolts that are tensionless and handling tools that are ship bone. Moreover, Li analyzes that (2015) EN24T can be supplied in ultimate conditions of heat treatments till limiting the ruling areas of 250 mm that is superior ro various grades of 70940, 70840 and 605M36. The EN24 an important grade done through hardening steels o alloys. These can be done readily in T conditions. Moreover, EN24T is surfaced and hardened typically to 58 and 60 HRC through induction and nitride processes that has been developing elements with increase in wear resistances. This is higher than 250 mm and is available in tempered and quenched situations. However, it is also noted the falling off in mechanical properties that are the apparent approach at the ore of the bar. Hence, huge sizes ate proposed that are supplied in softened or annealed situations and tempering and quenching is done as the initial stock is eradicated. This can be also gained better through various mechanical properties towards the central “Taguchi Orthogonal Array”. It must be noted that as there is any experiment comprising of three factors, there are also three values. Hence the total amount oif experiments is twenty-seven. Here the outcomes of the experiments has been providing about a hundred suitable outcomes. On the other hand, Golik, Komashchenko and Morkun (2015) demonstrated that Taguchi orthogonal arrays has been doing a total of nine experiments in specific order covering every factors. These analysis would provide about ninety-nine percent of appropriate results. Through missing the method, the experiments gets decreased to 9 instead of 27 having the similar accuracy.

Factors Influencing Cost of Manufacturing

The design of Taguchi is aimed for allowing better analysis of variation that done in various conventional designs. It is contended that traditional sampling improper. Furthermore, there is no other way to gain random sample of further situations. Additionally, Luo shows (2015) shows that it is also suggested that every experiment with orthogonal and outer array must simulate random situations where experiment must work properly.

Firstly, as far as parameters are concerned, there are three parameters of machining. The first one is depth of cut, feed rates and spindle speed. Next, there is the cutting depth. Various examinations are been done through varying a single parameter and providing with the other two being fixed. Hence maximizing the value of every parameter is gained. Here the range of operations is done through analyzing top most spindle speed and taking lower levels of various other parameters. Here, the assimilation of all these parameters are been found as any job or tool fails. The rate of metal removal is seen as the quality property with the idea of larger than better. All the researches have been creating latest metals and for every innovative metal, effective and financial matching is to be done. Further, it is also predicted that Taguchi is an effective method for optimizing numerous machining parameters. This optimization of machining parameters under steel turning operations done by Taguchi method in the process. An experimentation is done through turning EN-31 steel alloys through tungsten inserts of carbides. This includes three reasons. The first one is to demonstrate and explain systematic processes of Taguchi parameter designing and applying that to data over turning. Then the next one is to seen optimal assimilation of process parameters on the basis of S/N ratio and knowing the importance of every parameter dine though various experiments. Lastly, the most vital aim is to steel the impacts of lubricant temperatures under steel turning processes over the surface roughness or specific response. Thus, Komkiene and Baltrenaite (2016) examined that it can be derived that a better surface finishing can be gained through implementing cooled lubricants. With higher depth of cuts, finishing of surface can be developed as the temperature of lubricant is lessen. The parameters impacting the surface roughness developed under turning process of stainless still of 316L. Designing of experiments is done to examine effects of turning parameters like depth of cut, feed rate and cut speed over surface roughness. Apart from this, Ahn, (2016) examined that it can be also said that the rate of feed is the most vital parameter affecting the roughness of surface in the process of turning.

Turning is an innovative mechanical mixing and agitation of windrows of piles to assimilate various metals. This is done from surface to the center of windrow. This also incorporates sir to windrow and helps in finding scopes for moisture management. Further, turning can be performed through tractor leader tools or particular compost turners.  It must be reminded that there are various advantages of turning compost windrow. An effective turning process assures that there are inform admixtures of feedback materials across the windrow as highlighted by Maher, Sadeghi and Moheb (2014). It decreases the likelihood hot spots where there are accumulating and overheating of huge moistures metals reducing microbial tasks. Here, the frequency of Turing is controlled to react to change in temperature and moistures as needed. This content of moisture if windrow decreases as the turning process comes into play. As the compost turns too dry waters are added. This take place as there is a rise in moisture under the windrow to rise the compositing tasks of microorganisms. Further, turning includes oxygen and air pressures within the windrow.

Here the necessity for various strong adsorbents are found to be emerging because of intensification of different environmental stress and industrial activities. For overcoming the issue, various tasks of turning are performed for extracting dynamic elements through chemical treatments and modifications of wastes chemically. Different abundant sources of potential biomass that is metal-sorbing have been lingo-cellulosic materials of agriculture wastes. The materials are reasonably priced through alternate to treat metals. Different types of agricultural waste materials are being composed of various types of celluloses along with lignin. This is considered as a primary constituent as per Hebbar et al. (2016). Different components are ashes, hydrocarbons, water, starches, simple sugars, proteins, lipids extractives and hemicellulose and have been containing various functional types of reactive groups. In this case, various starches and celluloses have been regarded as the competent candidates. They have been accepting different chemical modification through different causes like amidation, carboxymethylation and ethoxylations and so on.

There are various reasons for preparing sorbents that contain polysaccharides. Firstly, there are very crosslinking reactions for turning methods of metal removal. This is reaction taking place between hydroxyl and amino groups of various chains. They have been having various coupling agents of forming water-insoluble with various networks that are cross-linked. Secondly, there are various immobilization of different polysaccharides over insoluble supports through grafting and grafting reactions. This is to provide composite and hybrid materials. Here, the cellulose is always abundant biopolymer that is present over the earth surface. Here, this is received from various sources. Further, this is a crystalline homopolymer of different types of glucose having a linkage of β1 4 glycosidic with intermolecular bonds of hydrogen. The chemical changes of cellulose have been resulting in a huge number of cellulose derivatives. This is the reason why, in this respect, PS or Polysaccharides of different soluble corn and maize derived starches, celluloses having different amylopectin or amylose are cross-linked with EPI or epichlorohydrin as mentioned by Howarth et al. (2015). Here, those properties of cross-linked PS-EPI materials have been developed. This is done through varying synthesis conditions and reagent ratios, along with temperature and polysaccharides. The reason behind this is to afford, network polymer materials that have been witnessing tunable properties.

Besides, Elouear, Bouhamed and Bouzid (2014) used a Dalbergia sisso pods for turning. This is lignocellulosic nitrogenous waste biomass. This is evaluated to sequester Cr (VI). This activity is performed. This is seen as the agricultural waste material lingo-cellulosic in nature. This contains a suitable quantity of fibres and proteins. Here the capacity to remove metal is investigated through various factors. For example, the effects include contact time, stirring speeds, initial metal ion concentration, pH adsorbent dose. In prior tasks, Inyang et al. (2016) hydrogels nanoparticles are synthesized through grafting copolymerization of N-isopropylacrylamide (NIPA) and copolymerization of acrylic acid. This is onto CMC or carboxymethyl cellulose. Here the prepared nanogels are utilized. This is done for removing lead and copper ions that are found to be originating from aqueous solutions. Here, these impacts of initial metal ion concentration, temperature, crosslinker concentrations over the removal of those types of the metal ion are investigated.

Moreover, Tsang and Hartley (2014) also analyzed those positive metal ions for turning. These are developed and utilized for adsorption of those aforementioned copper 2 ions originating from aqueous solutions. Moreover, it is also found that removal of a metal ion. This has been depending on the protonation and deprotonating properties of various types of primary and different acidic groups. This indicates the pH value of that medium. Additionally, this cellulose gets grafted to different types of acrylamide for preparing hydrogels. This is done to use in metal ions sorption and water. Here, Eranna (2016) also investigates situations of grafting and sorption of various metal ions through grafted cellulose that is also examined. Moreover, cellulose derivatives apply to prepare hydrogels that used in water treatment and removal of metals. Apart from this, HEC or Hydroxyethyl cellulose is grafted through AA or acrylic acid. Assimilation of AA or acrylic acid and Am or Acrylamide having a couple of distinct AA/ Am composition using ratio has been producing copolymers of “HEC-g-AA” and “HEC-g-AA-Am”. This is done using sodium bisulphate and sodium bisulphate like redox initiation system as per Javanbakht, Alavi and Zilouei (2014).

Here, those optimal conditions have been dealing with the removal of various Ni originating from various aqueous solutions. This is done with the prepared copolymers. These are studied through various kinds of metal ions concentrations, agitation time and variation of pH. The asylum of starch refers to polymeric carbohydrates. This comprises of a considerable amount of units of glucose that is joined through glycosidic bonds. It gets produced through the acts of most green plants as the energy store. In this situation, it is considered the second abundant carbohydrate that is followed by cellulose. This is present in huge quantity, present in sample foods like cassava rice, maize or corn, wheat and potatoes. Li et al. (2017) have been studying the usage of starch and modified products are there to eradicate metals. Graft copolymers of cassava, in this respect, is the acrylonitrile and starch. This is synthesized in various aqueous solutions through the help of ceric ammonium ion as an initiator. It gets grafted with copolymers and various types of a hydrogel of different hydrolyzed graft copolymers. This is used as the sorbent to uptake metals from different aqueous media. Here, sorption capacity has been analyzed. It is done by measuring the extent of sorption of nickel, leads of metal ions and copper present within equilibrium conditions. The hydrogels are based on different saponified products of A.N. and acrylonitrile starch composites that is prepared, characterized by water absorbency properties as examine. These water absorbency property of hydrogels has been depending on variables that have been affecting magnitudes of saponification and polymerization. This types of the hydrogel are being prepared for abstracting metals from different aqueous solutions.

Removal of the efficiency of metal ions is done from aqueous solution through cross-linked carboy-methyl corn starch that is analyzed by Campbell et al. (2015). Mercury ions, cadmium, and lead in water ate eradicated as 1% of starch are used. Starch is recovered though washing metal ions are coming from complicated weak acids of pH 2.0 with the help of metal-binding activities of starch. This is slightly decreased through these proceedings.

The cornstarch is modified through naturally occurring itaconic acids or maleic MA or maleic acids and compounds. This is done through esterification in an aqueous medium is catalyzed through NaOH for producing adsorbents for removal of metals in water. Here, an effect of di-substitution and mono with acids, solubility and swelling capability of modified starches that is also investigated by Luo et al. (2015). Besides, the ability to modified starches having itaconic acids has been adsorbing aqueous metal cations. This includes Pb+2, Cd+2, Zn+2 and Ni+2, that is monitored and the data is compared to different types of native corn starches. Different native and modified starches have been showing reasonable adsorption for every investigated caption. Moreover, native starches have never exhibited a selectivity of any kinds of action, like itaconate starches that are removed through higher contents of Pb+2 having least hydration radius as compared to other ions.

Moreover, starch is functionalized through oxidized and hydrolyzed through nitrogen oxides for creating different carboxylic groups. This takes place at the C-6 sorption of Cu+2 ions and gets investigated as the effective functions of different types of hydrogel structure and different factors of the environmental. This hydrogel has exhibited structure-properties related to sorption of Cu+2 ions. This has shown by Luo (2015) that most of the ion uptake has been used from studying the effect of Cu+2, pH, temperature, contact time on a capacity of sorption. Besides, Metcalfe (2016) prepared anionic starch containing carboxyl groups and is studying the usage of a chelating agent. The sorption efficiencies of alkali treated samples rise the increase of acrylic content. The sorption efficiency of alkali treated samples with a rising in acrylic content. The values of sorption values have been distinct for metals for various depended in metal ion. They have been following H+2. Cu+2, Zn+2, Pb+2 order. Currently, a novel cross-linked is prepared with graftpolyacrylamide- co-sodium xanthate or CSAX. The reaction of corn Acrylamide (AM), cornstarch, along with sodium xanthate, done through EPI or epichlorohydrin as the cross-linking reagent and ceric ammonium nitrates CAN as initiators. Here, the overall performance of prepared hydrogel is investigated (Machida and Horizoe 2015). Adsorption processes, at last of various metal anions through amphoric starch has been possessing quaternary ammonium and groups of carboxymethyl are also analyzed.

According to Golik, Komashchenko and Morkun (2015) with the removal of Pb 2, originating from different types of aqueous solution. This is done through adsorption that is done over a series of cross-linked amphoteric starches. This has been possessing having various DS. Moreover, it has also been found that adsorption capacity has been dependent on pH of solutions, a dose of cross-linked starch amphoteric. Cross-linked amphoteric starches or CASs are also used for removing of Cr originating from various solution. These adsorption processes are dependent on initial pH, a concentration of Cr VI, a dose of CAS and temperature as per Prucek et al. (2015). Apart from this cross-linked starch phosphate carbamates have been prepared and utilized for adsorbing Cu 2 ions from different aqueous solution. Moreover, various experiments of batch adsorption are done as the function of temperature, first Cu 2 ions concentrations, substitute groups contents, doses of adsorbents and adsorption time.

Despite the ultimate importance, those biopolymers are used as the neat form, that they have been comprised of hindrances limiting utilization. In turning, for example, difficulties of separation and low surface areas are originating from solution. Apart from this, Glukhov et al. (2016) state that magnetic sorbents have been possessing colossal surface areas and are easy to get isolated from mediums and controls in complicated multiphase systems having outer magnetic fields. Inorganic and organic hybrid composites of colossal stability are obtained through creating polymer shield on an inorganic nano, material along the line joining the upward side of materials. Here, composites that are created from different polysaccharides has comprised of a various class of naturally secured materials regarding industrial and biological applications. Vilela et al. (2016) also state that magnetic Nano-materials are functionalized with biopolymers. It also is seen that minimal activities are done to prepare starch composites. Here, the starch that is extracted from various types of potato peels has been adopted, along with different acrylic acids. These nanoparticles are always composed of various modified starch polymers and apart from this Fe3O4 is also synthesized. The nanoadsorbents prepared are used for various selective abstraction of Ni+2, Cu+2 and Pb+2 ions are always done from that water. Further, it is also seen that these starch-graft copolymers are always needed strongly. The reason behind this is that the low costs and biodegradability. This is the reason it is environment-friendly Wang et al. (2016). Starches have been effectively stabilizing Nanoscale magnetic materials and SMNP or starch-stabilized magnetic nanoparticles. Besides, these are regarded as the potent sorbents or different in situ remediations of various types of contaminated soils with arsenic.

Any engineering strategy is developed by Golik, Komashchenko and Morkun (2015) for minimizing and producing those types of arsenic leachability of that process. Here the wastes are always residual. Here, they are tested and prepared with a new class of starch-bridged magnetic nanoparticles to remove arsenate. Here various low-cost green starches are issued as an additive for depressing agglomerating of nanoparticles. Currently, NXVI or “Nanoscale zerovalent iron” is stabilized with various polymers. CMC or “Carboxymethylcellulose” or starch is also investigated and then compared for the ability to eradicate As 3 and As 5 from various aqueous solutions. This is the most promising nanoparticles of iron to remove arsenic. Besides, it also is seen that lead 2 and copper2 ions are obtained from different aqueous solutions through montmorillonite (S-g-AA/MMT) Nanocomposite and Starch-graft acrylic acid. Various starch factors have affected the removal of efficiency is investigated. Moreover, there are treatment times with solutions, initial metal ion concentration and initial pH of the solution and MMT contents.

At the case of turning operation, various metals ate used that includes both ferrous and different non-ferrous plastics, along with organic elements. Different common high machinability materials are zinced, aluminum brass, magnesium, carbon steels. Different bar metals are also used to process the Turing process. Thus, along with the casting of different kinds, extrusions, powders, forgings, bar metals, powdered parts various types of materials are utilized for the operation.

Various design recommendations are analyzed hereafter.

Standard tool geometries are to be included at grooves, chamfer sectors. It is also preferred to put parts as short as possible to decrease the work defections originating from cutting tools.

Interrupted and irregular cutting actions are also needed to be avoided.

While the forgoing and castings are developed with massive shoulders and any sectors to be faced, the surface is intended to about in 2 to 3 degree from the plane to axis. This provides edge reliefs of the tool of cutting.

Apart from this sharp corners are to be avoided. This radius must be huge and should be conformed to a standard tool of specifications nose radius.

As probable the radius dimension must be left to the dimension to the discretion of those manufacturers. The provisions of sharp corners and burrs are hazardous to functions of that portion. It can be decreased through putting chamfers and different surfaces at intersections of various surfaces.

Locating and clamping sectors must be free from draft angles, parting lines and forging flashes. Here the part is to be turned to the tracer and changes contour must be developed for easy tracing having minimal alterations of cutting and stylus tools.

Development of grooves with steep sidewalls and parallels are impossible in one operation. Here the undercuts must also be avoided.

Latest technologies have been continuously presented on the market to produce metallic elements. It includes additive manufacturing. Despite that processes of metal cutting has maintained their poplar responsibilities under a process of production because of substantial achievable tolerances and surface finishing those processes. It is seen from the past decades, that machine tool manufactures have been developing solutions for developing their performances of machines for rising the material removal rates and precisions and process accuracies. It has led to introduce latest cutting elements and substantial performance controllers and motors.  However one of the future problems is to gain the process to much sustainable. Regarding the analysis of this sustainability, this is needed to be considered. This must be both on the environmental effect of the procedure and financial sustainability for users.

It is seen that ‘guar gum” is a natural type of environment-friendly biopolymer. These are the broke ranks and this has been quickly founding their places that have been taking place among various types of vital carbohydrates. This is effectively known as water treatment. Here, guar gum silica nano-composites are used effectively to remove Cd 2 from different aqueous solutions. As natural biopolymer, GG or guar gum is covalently grafted in surfaces of MWCNT or carbon nanotube for gaining the composite of “GG-MWCNT”. These nanoparticles of iron oxide are covered through GG-MWCNT for preparing magnetic GG-MWCNT- Fe3O4. Apart from this, Zhu et al. (2015) stated that polyacrylamide chains are grafted to CMG backbone for obtaining novel polymeric flocculants, on different polyacrylamide grafted carboxymethyl guar gums. This flocculation property of un-grafted and grafted polysaccharides are evaluated under municipal sewage and kaolin suspension. A novel hydrogel is based on the GG or guar gum prepared through the polymerization. This has been grafting of acrylamide onto guar gum, through potassium bromate/ thiourea dioxide redox system to promote reactions of polymerization according to Tsang and Hartley (2014). This is prepared through copolymer of guar gum graft and polyacrylamide that is cross-linked with GA or glutaraldehyde for gaining sorbent materials in hydrogel form. This obtained through hydrogel that is used to remove hexavalent chromium ion CV coming from different aqueous solutions. Furthermore, Zou et al. (2016) have prepared the Guar gum-nano zinc oxide GG/nano is eco-friendly and economic biocomposite.

In this study metal removal through Turning are analyzed. It is a type of machine. This is helpful to generate rotational parts by cutting away various materials that are unwanted. The method needs turning machines of cutting tools fixtures, work-pieces and lathe. It is an element of pre-shaped materials secured for a fixture. This is attached with the help of turning machines and permitted to be rotating with tremendous speeds. It is a single point tool of cutting and is secured in machines. However various operations have been using these multi-point tools. This cutting tool has been feeding the present rotating piece of work and cutting away materials. Those have been in the form of small chips for creating the expected shapes. It is used for producing axisymmetric and rotational tools. This is a part of various elements like contoured surfaces, different steps of diameters, tapers, threads, grooves and holes. Further, different parts are fabricated entirely with the help of turning. His has included elements that are utilized in restricted quantities. These are the prototypes like designed fasteners and shafts. Moreover, this has been sued as the secondary, method for refining and adding parts and features that are manufactured through various methods. This is because of huge tolerances and finishes over surfaces, turning has been offering and ideal to include precision features that are rotational. These are the parts where primary shapes are formed already.

In this study, primary data analysis is done. This is done first hand by researchers through experiments and taking suitable measurements. The research aims to find removal potential of metals like nickel and zinc adsorbents within different typed of experimental conditions. Specification of work metals also includes performing turning operations AISI 1040 steel can be utilized. Moreover, they are also in the form of various cylindrical bars having a diameter of about 3-0 millimeter. Besides, the cutting length is about 100 millimeter. Besides, the material comprises of AISI 1040 sheets of steel.

Here, in this research Taguchi method is implemented. This is broadly utilized in an investigation in the field of engineering and is effective contrivance on designing systems of high quality. Apart from this, the Taguchi method has been employing specific designs that are orthogonal arrays. This helps in analyzing the impacts of the complete machining parameters across small experiments.

Here the time needed for tuning has included a specific quantity of parts. This includes initial setup time along with cycle time for every part. This time of setup is comprised of turning machine, planning movements of tools and installing various fixture devices to turning machines. Here the cycle time is categorized into four times.

Load and unload time

     Here, the time needed to load that work-piece to turning machine and protect the fixture is needed. Further, the time for unloading the completed part is also to be included here. It has depended in size, complexity and weight of the work piece and kind of fixture.

Cutting time

     Here, the time needed for the cutting tool has been to create every necessary cutting for every activity. Here, the cutting time for any specific operation is measured by dividing the overall cutting length for what the operation has been through feed rates. Here the speed of the tool has been relative to a work piece.

Idle time

     It is also called as the non-productive time. Here, this time is needed for various activities occurring during the process cycle. Further, they have not been engaged to work-piece and thus removing the metals. Here, the “idle time” has involved tool to approach and retract from work-piece, movements of tools between various features, changing tools and adjusting settings of machines.

Time of tool replacement

    It has been replacing tools exceeding lifetimes. The time has not been performed typically in all the cycles. However, as the tool’s lifetime is over, it gets reached. For finding the time of the cycle, the replacement of toll is adjusted top produce in part through multiplying frequency of replacing the tools. This is the cut time, divided through tool lifetime.

Suitable turning would mix materials from surfaces to middle of windrows. It raises the possibility that every materials in the windrow is been exposed to various exposed to the temperatures that are huge enough to kill weed seeds and pathogens. A poor admixture would be leaving few surface metals over the surface. It has been resulting in recontamination of materials that is heat treated

This is an essential element of a trace. Moreover, a high concentration of zinc results causes depression, neurological science and lethargy. This zinc also put a contribution to a metabolic and physical process for various ways (Kulikowska et al. 2015).

This is one of the metal that is present in the scenario at a low level. As concentration is high it is dangerous for human life as it results in some disorders like respiratory failure, dizziness sickness, nose cancers and lung cancers. In this research Nickel chloride or hexahydrate is considered.

Eggshell powder

Lemon peel powder

Preparing of adsorbents:

The lemon peel powders are distinct from the sources that are collected first. They are washed thoroughly with removing various particles and odours from the waters. These lemon peels are dried in the presence of sunlight (Wei, Chen and Liu 2017). As the drying peels are sieved and powdered the IS sieve of size has consisted of 150 μ and 300 μ and powdered that is stored and collected in airtight containers.

Eggshell powders are collected from various sources that are collected and washed thoroughly with water removal of various bad odours and suspended particles. As the shells are dried they are sieved and powdered through IS sieve of that size. This powered is gathered and then stored in airtight containers.

While performing Turning it is seen that the aqueous solution of zinc comprises zinc sulphates. This heat hydrate is used for preparing stack solutions of zincs. This is taken as 287.54 mg of ZnSO4. After this water is added to the previous 1000 ml of waters. The stalk solutions of Zn is created and then it gets diluted to various experimental conditions (Habibul, Hu and Sheng 2016).

Regarding he aqueous solution of Nickel analytical grades of Nickel chlorides of Hexahydrate are utilized to prepare stack solutions of nickels. Here 240 mg NaCl is considered and added to 1000 ml of water. This stalk solution of Ni is prepared and is diluted along with some experimental concentrations.

The experimental plan is developed that reveals the experimenters the places ro set every test parameters of every runs of the test. Here the response of measured for every run. This analysis of method has been looking for different between the output readings for distinct groups of changes in inputs. The present Taguchi method to design experiments has been investigating how various parameters has impacted the variances and means of characteristics of process performances. This has been defining how effective the process has been functioning. This includes orthogonal arrays to organize parameters impacting the process and levels that has been varying. Here, instead of conducting tests of every probable assimilation such as factorial design, Taguchi process has experimented all pairs of permutation and combination.

It is seen that as far as surface roughness is concerned, adopting the Taguchi method is to design the experiment is to decrease the various amount of experiments. It is seen that the complete parameter space is covered with the help of a particular design of orthogonal array. Here the outcomes of the experiments have transformed to S/N or Signal to Noise Ratio . This is to calculate performance deviations from intended results. As far as machine time is considered the results of the experiments can change to S/N ratio to calculate a deviation of performance characteristics from expected values. Here the results Taguchi process to parameter design can be done on less number of experimentations as compared to complete factorial analysis and yielding the same kind of results. Moreover, the result is also applicable to assess external issues. Besides, the parameter design of the experiment has provided a systematic, effective and simple method to optimize process parameters.

These waste products can be used effectively for treating metal-removal process in turning. This efficiency removal through various metals with the help of different adsorbent is studied in the current project tasks for further study. This percentage removal of metals is seen in this task through various adsorbent that can also be regarded for future study (Chiu, Lee and Poon 2018). Lastly, the issues that are covered can be studied as a subject matter.

Various types of plating and different battery industries are currently resealing numerous types of metals such as lead, cadmium, nickel and chromium. Here, the metals have been finding various applications in daily life. This is harmful as they get discharged to natural resources of waters and posing severe hazards of health. These Nickel 1 and Nickel 2 concentration has been mining drainages, metal finishing and plating.  This is reported to be 130 mg/L. Here the rinse water originating from industries of nickel plating has comprised of 2 to 900 mg/L and known as one of the major toxic pollutants (Tang et al. 2018). This has been the necessity to develop inexpensive and effective methods of Turning for removing nickel from that effluent. These traditional methods to eradicate Ni 2 from those soil have included membrane separation processes, electrolysis, reverse osmosis, ion-exchanges, activated adsorption of carbon, biosorption, extraction of solvent. This chemical precipitation is the smartest cost-effective technology for treatment.

Thus there is a possibility for precipitating metals in insoluble compounds mainly in metal hydroxides. The solutions have been containing various complexing agents that have depended in complicated stabilities that are constant with hydroxide solubility of products. This wide range of biomass kinds has included peat, digested sludge, anaerobic sludge, active sludge, fungi, yeasts, algae and bacteria. Here, nickel ions as compared to various types of heavy metal ions. This has been producing a more recalcitrant pollutant (Su et al. 2015). Moreover, there are various types of metal tolerant micro-algae. This has comprised relatively low Ni-binding ability. This nickel ion removal originating from affluent electroplating has been satisfactory. It has been because of intrinsic chemical characteristics of ions of nickel for steric hindrances of that biosorption.

Present studies of Turning have focused on nickel removal that is almost rare. However, there is no satisfactory precedent of employing bio-sorbent to remove nickel ions along with feasibility for employing different micro-algae for removing Ni. These have been coming from the soil of those electroplating that has remained uncertain. Moreover, adsorption has been activated carbon used widely to remove toxic metal and is studied extensively. Further, there are traditionally activated carbons. This has comprised of low cost waste materials like coir pith. This is for separating activated carbons and applied to nickel removing (Mahmoud and Hamza 2017). As done by clays, there are presently used for fabrication of everyday products such as floor tiles and walls. Nickels ions have been remaining attached firmly and intertwined. The higher capacity of cation exchange and developing negative surface charges over clay articles have been contributing to promising performances (Taiwo et al. 2016). Here, the methods have comprised various drawbacks of the considerable cost of operating, incomplete removals, low sensitivity, higher consumption of energy and generating hazardous solid wastes. Removing and recovery of nickel ions originating from soils though ion-exchange processes.

Task Name





Identify the main function and side effects

3.6 wks

Wed 8/29/18

Fri 9/21/18

Determining Testing Conditions and Quality Characteristics to be faced

6 wks

Mon 9/24/18

Fri 11/2/18


Determining objective function

4 wks

Mon 11/5/18

Fri 11/30/18


Selecting orthogonal array

4 wks

Mon 12/3/18

Fri 12/28/18


Conducting of matrix experiment

7 wks

Mon 12/31/18

Fri 2/15/19


Experimentation of data

4 wks

Mon 2/18/19

Fri 3/15/19


Predictingoptimum control factor levels with performances

15 days?

Mon 3/18/19

Fri 4/5/19


Comparison of complete factorial analysis with the help of Taguchi parameter designings

2 wks

Mon 4/8/19

Fri 4/19/19


Performing verification analysis

2 wks

Mon 4/22/19

Fri 5/3/19


Figure 1: “Timeline demonstrating the current methods of metal removal”

(Source: Created by Author)


In this study, the overall process of metal removal is analyzed through the method of turning. For this the Taguchi method is chosen in the study which is a statistical method in optimizing the methods of process parameters and develop the different quality of components that are needed to be manufactured. The lathes, or turning machine are found in various sizes and designing. Here most lathes are horizontal in shape. Though at many time vertical machines can be used. These are typical for substantial diameter work-pieces. The effect of noise on different performance characteristics can be retrieved by utilizing the S/N ratio. This ratio has determined that functional variation because of the noise. Thus through using the result, the control parameter settings can be predicted that cake the process insensitive to the provided noise value. Besides, it must be reminded that the functional properties never get impacted due to those additional noises. Moreover, there is no necessity to conduct experiments though utilizing the external orthogonal arrays. It has been true in the above experiment that done through computer simulation, since the repeatability of the experiments that are computer simulated is enormous. On the other hand, different low cost adsorbent is derived from various agricultural wastes and natural products that are found extensively for metals to remove contaminated soils in Turning. Moreover, there are thermal and chemical modifications, agricultural waste that is exhibited highly tremendously capability of heavy metal removal through Turning method. The method of recharging those chosen have been from hydrogeological conditions and particular benefits that has sought from the recharge. Here the surface has been spreading those offers. These are the operational and most significant advantages. These surface methods of Turning can accumulate waters of low quality and simple to operate and develop the recharge wells. However, there are specific conditions that have needed wells. Due to the reason that surface spreading has needed an enormous quantity of land along with sufficient permeable soil, this has been not feasible enough in different densely populated areas and suitable land is there that is unavailable and expensive. Apart from this injections has needed water sources of high qualities for avoiding problems of clogging. Further, the aquifers have not been providing the same kind of treatments of systems on soil-aquifers. Though there have been high indications of improvements of some water quality under aquifers, here notable pretreatment is needed as the source water used in well is of profoundly impaired quality. Different non-portable reuses in Turning are helpful to decrease the demands over restricted freshwater sources at minimal risk of health. This has been practiced widely and achieved effective acceptance of the public. Further, potable reuse has been possible for engineers, however risks of the health of higher and under public acceptance have been less certain. Here, in the approach, particularly where portable reuses are considered, proper pre-project planning and project study is needed. The Taguchi method conducted above has been lying from various well-defined guidelines. Here, the process has been utilizing a particular set of arrays known as orthogonal arrays. Here, the standard arrays have been stipulating the methods to conduct the least experiments. Thus a complete data of every factor affecting performance parameters are achieved. Here, the crux of the orthogonal arrays of the methods has been lying to choose various combination levels of input design variables for the above experiment.


Abánades, A., Rathnam, R.K., Geißler, T., Heinzel, A., Mehravaran, K., Müller, G., Plevan, M., Rubbia, C., Salmieri, D., Stoppel, L. and Stückrad, S., 2016. Development of methane decarbonisation based on liquid metal technology for CO2-free production of hydrogen. International Journal of Hydrogen Energy, 41(19), pp.8159-8167.

Abbas, A., Al-Amer, A.M., Laoui, T., Al-Marri, M.J., Nasser, M.S., Khraisheh, M. and Atieh, M.A., 2016. Heavy metal removal from aqueous solution by advanced carbon nanotubes: critical review of adsorption applications. Separation and Purification Technology, 157, pp.141-161.

Abdelhadi, S.O., Dosoretz, C.G., Rytwo, G., Gerchman, Y. and Azaizeh, H., 2017. Production of biochar from olive mill solid waste for heavy metal removal. Bioresource technology, 244, pp.759-767.

Abdel-Halim, E.S. and Al-Hoqbani, A.A., 2015. Utilization of poly (acrylic acid)/cellulose graft copolymer for dye and heavy metal removal. BioResources, 10(2), pp.3112-3130.

Adeleye, A.S., Conway, J.R., Garner, K., Huang, Y., Su, Y. and Keller, A.A., 2016. Engineered nanomaterials for water treatment and remediation: costs, benefits, and applicability. Chemical Engineering Journal, 286, pp.640-662.

Ahmed, M.B., Zhou, J.L., Ngo, H.H., Guo, W., Thomaidis, N.S. and Xu, J., 2017. Progress in the biological and chemical treatment technologies for emerging contaminant removal from soil: a critical review. Journal of hazardous materials, 323, pp.274-298.

Ahn, D.G., 2016. Direct metal additive manufacturing processes and their sustainable applications for green technology: A review. International Journal of Precision Engineering and Manufacturing-Green Technology, 3(4), pp.381-395.

Ali, R.M., Hamad, H.A., Hussein, M.M. and Malash, G.F., 2016. Potential of using green adsorbent of heavy metal removal from aqueous solutions: adsorption kinetics, isotherm, thermodynamic, mechanism and economic analysis. Ecological Engineering, 91, pp.317-332.

Al-Qodah, Z. and Al-Shannag, M., 2017. Heavy metal ions removal from soil using electrocoagulation processes: a comprehensive review. Separation Science and Technology, 52(17), pp.2649-2676.

Campbell, M.G., Sheberla, D., Liu, S.F., Swager, T.M. and Dinc?, M., 2015. Cu3 (hexaiminotriphenylene) 2: an electrically conductive 2D metal–organic framework for chemiresistive sensing. Angewandte Chemie International Edition, 54(14), pp.4349-4352.

Chen, Y.H., Chan, W.M., Wu, W.C., Liao, H.J., Pan, K.H., Liaw, J.J., Chung, T.H., Li, Q., Lin, C.Y., Chiang, M.C. and Wu, S.Y., 2015. A 16 nm 128 Mb SRAM in High-$kappa $ Metal-Gate FinFET Technology With Write-Assist Circuitry for Low-VMIN Applications. IEEE Journal of Solid-State Circuits, 50(1), pp.170-177.

Chiu, K.K., Lee, S.C. and Poon, C.S., 2018. An Experimental Study on the Effectiveness of EDTA/HCI on the Removal of Pb, Cd, Cu, and Ni Soil. Remediation and Management of Degraded Lands.

Dil, E.A., Ghaedi, M. and Asfaram, A., 2017. The performance of nanorods material as adsorbent for removal of azo dyes and heavy metal ions: application of ultrasound wave, optimization and modeling. Ultrasonics Sonochemistry, 34, pp.792-802.

Du, F., Keller, J., Yuan, Z., Batstone, D.J., Freguia, S. and Pikaar, I., 2016. Nitrite addition to acidified sludge significantly improves digestibility, toxic metal removal, dewaterability and pathogen reduction. Scientific reports, 6, p.39795.

Dupuis, C. and Dumont, R., 2016. The impact of LIMCA technology on the optimization of metal cleanliness. In Essential Readings in Light Metals (pp. 332-337). Springer, Cham.

Elouear, Z., Bouhamed, F. and Bouzid, J., 2014. Evaluation of different amendments to stabilize cadmium, zinc, and copper in a contaminated soil: Influence on metal leaching and phytoavailability. Soil and Sediment Contamination: An International Journal, 23(6), pp.628-640.

Eranna, G., 2016. Metal oxide nanostructures as gas sensing devices. CRC Press.

Fischer, K., Agostinelli, M., Allen, C., Bahr, D., Bost, M., Charvat, P., Chikarmane, V., Fu, Q., Ganpule, C., Haran, M. and Heckscher, M., 2015. Low-k interconnect stack with multi-layer air gap and tri-metal-insulator-metal capacitors for 14nm high volume manufacturing. polymer, 14000(6000), pp.1-3.

Glukhov, V., Turichin, G., Klimova-Korsmik, O.G., Zemlyakov, E. and Babkin, K., 2016. Quality management of metal products prepared by high-speed direct laser deposition technology. In Key Engineering Materials (Vol. 684, pp. 461-467). Trans Tech Publications.

Golik, V., Komashchenko, V. and Morkun, V., 2015. Innovative technologies of metal extraction from the ore processing mill tailings and their integrated use. Metallurgical and Mining Industry, 7(3), p.49.

Habibul, N., Hu, Y. and Sheng, G.P., 2016. Microbial fuel cell driving electrokinetic remediation of toxic metal contaminated soils. Journal of hazardous materials, 318, pp.9-14.

Hebbar, R.S., Isloor, A.M., Ananda, K. and Ismail, A.F., 2016. Fabrication of polydopamine functionalized halloysite nanotube/polyetherimide membranes for heavy metal removal. Journal of Materials Chemistry A, 4(3), pp.764-774.

Howarth, A.J., Katz, M.J., Wang, T.C., Platero-Prats, A.E., Chapman, K.W., Hupp, J.T. and Farha, O.K., 2015. High efficiency adsorption and removal of selenate and selenite from water using metal–organic frameworks. Journal of the American Chemical Society, 137(23), pp.7488-7494.

Inyang, M.I., Gao, B., Yao, Y., Xue, Y., Zimmerman, A., Mosa, A., Pullammanappallil, P., Ok, Y.S. and Cao, X., 2016. A review of biochar as a low-cost adsorbent for aqueous heavy metal removal. Critical Reviews in Environmental Science and Technology, 46(4), pp.406-433.

Javanbakht, V., Alavi, S.A. and Zilouei, H., 2014. Mechanisms of heavy metal removal using microorganisms as biosorbent. Water Science and Technology, 69(9), pp.1775-1787.

Komkiene, J. and Baltrenaite, E., 2016. Biochar as adsorbent for removal of heavy metal ions [Cadmium (II), Copper (II), Lead (II), Zinc (II)] from aqueous phase. International Journal of Environmental Science and Technology, 13(2), pp.471-482.

Kulikowska, D., Gusiatin, Z.M., Bu?kowska, K. and Kierklo, K., 2015. Humic substances from sewage sludge compost as washing agent effectively remove Cu and Cd from soil. Chemosphere, 136, pp.42-49.

Lee, C.G., Lee, S., Park, J.A., Park, C., Lee, S.J., Kim, S.B., An, B., Yun, S.T., Lee, S.H. and Choi, J.W., 2017. Removal of copper, nickel and chromium mixtures from metal plating soil by adsorption with modified carbon foam. Chemosphere, 166, pp.203-211.

Lee, K.H., Yeo, I.S., Wu, B.M., Yang, J.H., Han, J.S., Kim, S.H., Yi, Y.J. and Kwon, T.K., 2015. Effects of computer-aided manufacturing technology on precision of clinical metal-free restorations. BioMed research international, 2015.

Li, S., Wang, W., Liang, F. and Zhang, W.X., 2017. Heavy metal removal using nanoscale zero-valent iron (nZVI): theory and application. Journal of hazardous materials, 322, pp.163-171.

Li, Y.J., Hu, P.J., Zhao, J. and Dong, C.X., 2015. Remediation of cadmium-and lead-contaminated agricultural soil by composite washing with chlorides and citric acid. Environmental Science and Pollution Research, 22(7), pp.5563-5571.

Lu, L., Li, J., Feng, Z., Kwok, H.S. and Wong, M., 2016. Elevated-metal–metal-oxide thin-film transistor: Technology and characteristics. IEEE Electron Device Letters, 37(6), pp.728-730.

Luo, F., Chen, J.L., Dang, L.L., Zhou, W.N., Lin, H.L., Li, J.Q., Liu, S.J. and Luo, M.B., 2015. High-performance Hg 2+ removal from ultra-low-concentration aqueous solution using both acylamide-and hydroxyl-functionalized metal–organic framework. Journal of Materials Chemistry A, 3(18), pp.9616-9620.

Luo, X., Zeng, J., Liu, S. and Zhang, L., 2015. An effective and recyclable adsorbent for the removal of heavy metal ions from aqueous system: magnetic chitosan/cellulose microspheres. Bioresource technology, 194, pp.403-406.

Machida, H. and Horizoe, H., 2015. High efficiency metal removal from hexane-extracted algae oil using super and subcritical propane. Energy Conversion and Management, 95, pp.90-93.

Maher, A., Sadeghi, M. and Moheb, A., 2014. Heavy metal elimination from drinking water using nanofiltration membrane technology and process optimization using response surface methodology. Desalination, 352, pp.166-173.

Mahmoud, R.H. and Hamza, A.H.M., 2017. Phytoremediation Application: Plants as Biosorbent for Metal Removal in Soil and Water. In Phytoremediation (pp. 405-422). Springer, Cham.

Mao, X., Han, F.X., Shao, X., Guo, K., McComb, J., Arslan, Z. and Zhang, Z., 2016. Electro-kinetic remediation coupled with phytoremediation to remove lead, arsenic and cesium from contaminated paddy soil. Ecotoxicology and environmental safety, 125, pp.16-24.

Metcalfe, A.G. ed., 2016. Interfaces in Metal Matrix Composites: Composite Materials (Vol. 1). Elsevier.

Naito, M., Yokoyama, T., Hosokawa, K. and Nogi, K. eds., 2018. Nanoparticle technology handbook. Elsevier.

Pettinato, M., Chakraborty, S., Arafat, H.A. and Calabro, V., 2015. Eggshell: a green adsorbent for heavy metal removal in an MBR system. Ecotoxicology and environmental safety, 121, pp.57-62.

Prucek, R., Tucek, J., Kolar?ík, J., Hušková, I., Filip, J., Varma, R.S., Sharma, V.K. and Zbor?il, R., 2015. Ferrate (VI)-prompted removal of metals in aqueous media: mechanistic delineation of enhanced efficiency via metal entrenchment in magnetic oxides. Environmental science & technology, 49(4), pp.2319-2327.

Rezania, S., Taib, S.M., Din, M.F.M., Dahalan, F.A. and Kamyab, H., 2016. Comprehensive review on phytotechnology: metals removal by diverse aquatic plants species from soil. Journal of hazardous materials, 318, pp.587-599.

Rumky, J., Ncibi, M.C., Burgos-Castillo, R.C., Deb, A. and Sillanpää, M., 2018. Optimization of integrated ultrasonic-Fenton system for metal removal and dewatering of anaerobically digested sludge by Box-Behnken design. Science of The Total Environment, 645, pp.573-584.

Salehi, S. and DeMara, R.F., 2015, April. Energy and area analysis of a floating-point unit in 15nm CMOS process technology. In SoutheastCon 2015 (pp. 1-5). IEEE.

Su, Y., Adeleye, A.S., Keller, A.A., Huang, Y., Dai, C., Zhou, X. and Zhang, Y., 2015. Magnetic sulfide-modified nanoscale zerovalent iron (S-nZVI) for dissolved metal ion removal. Water research, 74, pp.47-57.

Taiwo, A.M., Gbadebo, A.M., Oyedepo, J.A., Ojekunle, Z.O., Alo, O.M., Oyeniran, A.A., Onalaja, O.J., Ogunjimi, D. and Taiwo, O.T., 2016. Bioremediation of industrially contaminated soil using compost and plant technology. Journal of hazardous materials, 304, pp.166-172.

Tang, J., He, J., Xin, X., Hu, H. and Liu, T., 2018. Biosurfactants enhanced metals removal from sludge in the electrokinetic treatment. Chemical Engineering Journal, 334, pp.2579-2592.

Tsang, D.C. and Hartley, N.R., 2014. Metal distribution and spectroscopic analysis after soil washing with chelating agents and humic substances. Environmental science and pollution research, 21(5), pp.3987-3995.

Vilela, D., Parmar, J., Zeng, Y., Zhao, Y. and Sánchez, S., 2016. Graphene-based microbots for toxic heavy metal removal and recovery from water. Nano letters, 16(4), pp.2860-2866.

Walsh, F.C. and Ponce de Leon, C., 2014. A review of the electrodeposition of metal matrix composite coatings by inclusion of particles in a metal layer: an established and diversifying technology. Transactions of the IMF, 92(2), pp.83-98.

Wang, B., Lv, X.L., Feng, D., Xie, L.H., Zhang, J., Li, M., Xie, Y., Li, J.R. and Zhou, H.C., 2016. Highly stable Zr (IV)-based metal–organic frameworks for the detection and removal of antibiotics and organic explosives in water. Journal of the American Chemical Society, 138(19), pp.6204-6216.

Wei, M., Chen, J.J. and Liu, Y.S., 2017. The Combination of Na2EDTA and Reducing Organic Acid on Remediation of Soil Contaminated by Metals. In Key Engineering Materials (Vol. 744, pp. 531-535). Trans Tech Publications.

Wills, B.A. and Finch, J., 2015. Wills' mineral processing technology: an introduction to the practical aspects of ore treatment and mineral recovery. Butterworth-Heinemann.

Wittstadt, U., Füldner, G., Andersen, O., Herrmann, R. and Schmidt, F., 2015. A new adsorbent composite material based on metal fiber technology and its application in adsorption heat exchangers. Energies, 8(8), pp.8431-8446.

Xu, P., Sun, C.X., Ye, X.Z., Xiao, W.D., Zhang, Q. and Wang, Q., 2016. The effect of biochar and crop straws on heavy metal bioavailability and plant accumulation in a Cd and Pb polluted soil. Ecotoxicology and environmental safety, 132, pp.94-100.

Xu, Y., Tao, Y., Zheng, X., Ma, H., Luo, J., Kang, F. and Yang, Q.H., 2015. A Metal?Free Supercapacitor Electrode Material with a Record High Volumetric Capacitance over 800 F cm− 3. Advanced materials, 27(48), pp.8082-8087.

Yang, Q., Xu, Q., Yu, S.H. and Jiang, H.L., 2016. Pd Nanocubes@ ZIF?8: Integration of Plasmon?Driven Photothermal Conversion with a Metal–Organic Framework for Efficient and Selective Catalysis. Angewandte Chemie, 128(11), pp.3749-3753.

Zhu, W.P., Gao, J., Sun, S.P., Zhang, S. and Chung, T.S., 2015. Poly (amidoamine) dendrimer (PAMAM) grafted on thin film composite (TFC) nanofiltration (NF) hollow fiber membranes for heavy metal removal. Journal of Membrane Science, 487, pp.117-126.

Zou, Y., Wang, X., Khan, A., Wang, P., Liu, Y., Alsaedi, A., Hayat, T. and Wang, X., 2016. Environmental remediation and application of nanoscale zero-valent iron and its composites for the removal of heavy metal ions: a review. Environmental science & technology, 50(14), pp.7290-7304.

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