CN105903485B - A kind of synthetic method with visible light-responded nitride porous carbon/iron carbonyl nanometer rods complex light Fenton material - Google Patents

A kind of synthetic method with visible light-responded nitride porous carbon/iron carbonyl nanometer rods complex light Fenton material Download PDF

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CN105903485B
CN105903485B CN201610225808.9A CN201610225808A CN105903485B CN 105903485 B CN105903485 B CN 105903485B CN 201610225808 A CN201610225808 A CN 201610225808A CN 105903485 B CN105903485 B CN 105903485B
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carbonitride
iron carbonyl
light
responded
visible light
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CN105903485A (en
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许航
吴章
申昆仑
顾艳梅
丁明梅
高晓宏
崔健峰
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Jiangsu Haiyi Environmental Technology Co.,Ltd.
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Hohai University HHU
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    • B01PHYSICAL OR CHEMICAL PROCESSES OR APPARATUS IN GENERAL
    • B01JCHEMICAL OR PHYSICAL PROCESSES, e.g. CATALYSIS OR COLLOID CHEMISTRY; THEIR RELEVANT APPARATUS
    • B01J27/00Catalysts comprising the elements or compounds of halogens, sulfur, selenium, tellurium, phosphorus or nitrogen; Catalysts comprising carbon compounds
    • B01J27/24Nitrogen compounds
    • BPERFORMING OPERATIONS; TRANSPORTING
    • B01PHYSICAL OR CHEMICAL PROCESSES OR APPARATUS IN GENERAL
    • B01JCHEMICAL OR PHYSICAL PROCESSES, e.g. CATALYSIS OR COLLOID CHEMISTRY; THEIR RELEVANT APPARATUS
    • B01J35/00Catalysts, in general, characterised by their form or physical properties
    • B01J35/30Catalysts, in general, characterised by their form or physical properties characterised by their physical properties
    • B01J35/39Photocatalytic properties

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Abstract

The invention discloses a kind of synthetic method of the light Fenton agent of visible light-responded carbonitride/iron carbonyl nano composite material, it is low that this method solves existing carbonitride specific surface area, ferrous ion easily aoxidizes, the more low reason of persulfate activation rate and the problem of cause photocatalytic activity low.Carbonitride macromolecular ultrasound is turned into quantum dot by the present invention, greatly improves absorptivity of the material to light;The present invention obtains visible light-responded nanometer rod composite material using Fe(NO3)39H2O fabricated in situ on carbonitride, hetero-junctions is formed by iron carbonyl and carbonitride, reduce the compound hole recombination rate of light induced electron, the light abstraction width of carbonitride is brought up to visible region by composite from ultraviolet region simultaneously, significantly improves the photocatalytic activity of material;The raw material melamine that the present invention uses it is cheap, be just prepared for carbonitride/iron carbonyl nano composite material by simple in-situ synthesized reaction and hydro-thermal reaction method;Stability is good by being introduced directly into, cheap persulfate, coordinates with the heterojunction structure of formation and significantly reduces photo-generate electron-hole recombination rate, effectively increases the photo-catalysis capability of material.

Description

It is a kind of to have visible light-responded nitride porous carbon/iron carbonyl nanometer rods complex light fragrant The synthetic method of material
Technical field
The present invention relates to a kind of composite technology of preparing, particularly a kind of nitride porous carbon/iron carbonyl nanometer rods are compound The synthetic method of light Fenton material.
Background technology
Incretion interferent is a kind of exogenous substances, it can interfere with the synthesis of organism natural hormone, secretion, with reference to, Effect and removal, so as to influence the dynamic equilibrium of organism, breeding, growth and behavior.This kind of material has that concentration is low, harmfulness Greatly, the features such as more difficult removal, increasing concern is received in sewage disposal.Bisphenol-A is a kind of typical endocrine disruption Thing, it is used to polycarbonate synthesis, epoxy resin, fire retardant and other chemical products, had wide range of applications.Thus need The persistent pollutant that the catalyst gentle, cheap, that physical and chemical performance is stable, photo-catalysis capability is strong of research comes in degradation water, To ensure that industrial production is lived with people, its destruction to environment is reduced, and then realize sustainable economic development.
Due to environment and energy problem be present, searching can convert solar energy into chemical energy and catalytic activation persulfuric acid The light fenton catalyst of salt is extremely urgent, synthesize visible region have it is response, simple, stably, efficient photochemical catalyst still It is a huge challenge.Titanium dioxide is stable because its is nontoxic, and good photocatalytic activity turns into most widely used at this stage Semiconductor light-catalyst.But.The absorption region of titanium dioxide is in ultraviolet region, and ultraviolet light is only accounted for into atmosphere too 5% or so of sunlight energy, it is too low for the utilization rate of solar energy, although it is compound many titanium dioxide being modified nowadays occur Material, but the light Fenton catalysis material for designing synthesizing new is still particularly significant.This project is catalyzed to studying new smooth Fenton Material is significant.
Carbonitride/metal oxide is that one kind is formed by supermolecular mechanism and metal ion with g-C3N4 coordinations Advanced composite material (ACM).Its precursor polymer semiconductor graphite phase carbon nitride possesses stable physical and chemical performance, well Medium electron energy band(2.7eV), turn into a kind of very attracting photocatalysis and light Fenton material, its is nontoxic, inexpensive, stable Characteristic can apply in numerous areas, such as photolysis water hydrogen, photocatalytic degradation of dye, light Fenton degradation of contaminant, surpass Level capacitor etc..But g-C3N4 is there is also shortcomings, such as light induced electron recombination rate is high, and solar energy utilization ratio is relatively low, than Surface area less etc..In order to solve these problems, it is necessary to be modified to g-C3N4.So far, it yet there are no and utilize oversubscription Son effect and coordination, the related work of carbonitride/iron carbonyl nano composite material is prepared to hydro-thermal reaction with fabricated in situ Skill technology occurs.
The content of the invention
To solve the deficiencies in the prior art, object of the present invention is to provide a kind of visible light-responded carbonitride/hydroxyl The synthetic method of the light Fenton agent of base iron nano composite material, the existing carbonitride specific surface area of this method solution is low, ferrous ion Easily oxidation, the more low reason of persulfate activation rate and the problem of cause photocatalytic activity low.
In order to realize above-mentioned target, the present invention adopts the following technical scheme that:
A kind of synthetic method with visible light-responded nitride porous carbon/iron carbonyl nanometer rods complex light Fenton material, Comprise the following steps:
Step 1, melamine is fitted into porcelain boat, temperature reaction 4 hours in argon atmosphere, then in nitrogen atmosphere Middle cooling, the final carbonitride for obtaining yellow shape, grind into powder;
Step 2, product prepared by step 1 load beaker, add isopropanol solvent, are put into continual ultrasonic in ultrasonic machine 4h, carbonitride macromolecular ultrasound, which is peeled off, turns into nitridation carbon quantum dot;
Step 3, appropriate ferric nitrate is added in the carbonitride that step 2 has been peeled off, magnetic agitation is uniform, is then adjusted with PH Section agent pH is adjusted to 10,30 DEG C of temperature constant magnetic stirring half an hour, mixed liquor is transferred in reactor, 100 DEG C reaction 10h it Afterwards, product is centrifuged, 60 DEG C of dry 24h, obtain carbonitride/iron carbonyl nano composite material in an oven.
A kind of foregoing synthesis with visible light-responded nitride porous carbon/iron carbonyl nanometer rods complex light Fenton material Method, the argon atmosphere in step 1 is that argon gas flow velocity is 50cc/min.
A kind of foregoing synthesis with visible light-responded nitride porous carbon/iron carbonyl nanometer rods complex light Fenton material Method, the condition of the temperature reaction in step 1 include:Started to warm up from room temperature to 540 degrees Celsius to 600 degrees Celsius;It is per minute Rise 2.3 DEG C.
A kind of foregoing synthesis with visible light-responded nitride porous carbon/iron carbonyl nanometer rods complex light Fenton material Method, the nitridation carbon quantum dot in step 2 is single-layer silicon nitride carbon.
A kind of foregoing synthesis with visible light-responded nitride porous carbon/iron carbonyl nanometer rods complex light Fenton material Method, the power bracket of the ultrasonic machine in step 2 are arranged between 700 watts.
A kind of foregoing synthesis with visible light-responded nitride porous carbon/iron carbonyl nanometer rods complex light Fenton material Method, the PH conditioning agents in step 3 are sodium hydroxide.
The present invention is advantageous in that:Carbonitride macromolecular ultrasound is turned into quantum dot by the present invention, greatly improves material To the absorptivity of light;The present invention obtains visible light-responded nanometer rods using Fe(NO3)39H2O fabricated in situ on carbonitride and answered Condensation material, hetero-junctions is formed by iron carbonyl and carbonitride, reduce light induced electron it is compound-hole-recombination rate, while composite The light abstraction width of carbonitride is brought up into visible region from ultraviolet region, significantly improves the photocatalytic activity of material;This hair The bright raw material melamine used it is cheap, be just prepared for nitrogen by simple in-situ synthesized reaction and hydro-thermal reaction method Change carbon/iron carbonyl nano composite material;Process is simple, and it is convenient to prepare, and at a low price, the heterojunction structure of formation significantly reduces light to raw material Raw electron-hole recombination rate, effectively increase the photo-catalysis capability of material.
Brief description of the drawings
Fig. 1 is the scanning electron microscope (SEM) photograph for testing two obtained carbonitride/iron carbonyl nano composite materials;
Fig. 2 is the UV-vis DRS figure for carbonitride/iron carbonyl nano composite material that experiment one obtains;
Fig. 3 is different proportion composition carbonitride/iron carbonyl nano composite material catalyst light Fenton drop that experiment four obtains Solution activity figure;
Fig. 4 is that the catalyst that experiment five obtains recycles figure;
Fig. 5 is carbonitride/iron carbonyl nano composite material catalyst light degradation work at different conditions that experiment six obtains Property figure.
Embodiment
Make specific introduce to the present invention below in conjunction with the drawings and specific embodiments.
A kind of synthetic method with visible light-responded nitride porous carbon/iron carbonyl nanometer rods complex light Fenton material, Comprise the following steps:
Step 1, melamine is fitted into porcelain boat, temperature reaction 4 hours in argon atmosphere, then in nitrogen atmosphere Middle cooling, the final carbonitride for obtaining yellow shape, grind into powder;
Step 2, product prepared by step 1 load beaker, add isopropanol solvent, are put into continual ultrasonic in ultrasonic machine 4h, carbonitride macromolecular ultrasound, which is peeled off, turns into nitridation carbon quantum dot;
Step 3, appropriate ferric nitrate is added in the carbonitride that step 2 has been peeled off, magnetic agitation is uniform, is then adjusted with PH Section agent pH is adjusted to 10,30 DEG C of temperature constant magnetic stirring half an hour, mixed liquor is transferred in reactor, 100 DEG C reaction 10h it Afterwards, product is centrifuged, 60 DEG C of dry 24h, obtain carbonitride/iron carbonyl nano composite material in an oven.
It should be noted that:Above-mentioned argon atmosphere in step 1 is that argon gas flow velocity is 50cc/min.It is upper in step 1 Stating the condition of temperature reaction includes:Started to warm up from room temperature to 540 degrees Celsius to 600 degrees Celsius;2.3 DEG C of liter per minute.In order to Can maximum increase its surface area, in favor of follow-up synthesis, the nitridation carbon quantum dot in step 2 is single-layer silicon nitride carbon.Step The power bracket of ultrasonic machine in rapid two is arranged on 700 watts.As a preferred embodiment, the PH conditioning agents in step 3 are hydroxide Sodium.
The preparation of 1 carbonitride of embodiment/iron carbonyl nano composite material
1)3g melamines are fitted into porcelain boat, in argon atmosphere 540 DEG C with 2.3 DEG C of speed temperature reactions per minute 4 hours, then cooled down in nitrogen atmosphere, the final carbonitride for obtaining yellow shape, grind into powder.Argon gas flow velocity is 50cc/ min。
2)By appropriate step 1)The product of preparation loads 500ml beakers, adds isopropanol solvent, 700w power continual ultrasonics 4h, carbonitride is peeled off as far as possible turns into individual layer, and maximum increases its surface area, in favor of follow-up synthesis.
3)2) appropriate ferric nitrate will be added in the carbonitride peeled off, magnetic agitation is uniform, then with sodium hydroxide by pH 10 or so, 30 DEG C of temperature constant magnetic stirring half an hour are adjusted to, mixed liquor is transferred in reactor, 100 DEG C of reaction 10h, afterwards Product is centrifuged, 60 DEG C of dry 24h, obtain carbonitride/iron carbonyl nano composite material in an oven.
The preparation of 2 carbonitrides of embodiment/iron carbonyl nano composite material
1)3g melamines are fitted into porcelain boat, in argon atmosphere 560 DEG C with 5 DEG C of speed temperature reactions 4 per minute Hour, then cooled down in nitrogen atmosphere, the final carbonitride for obtaining yellow shape, grind into powder.Argon gas flow velocity is 50cc/ min。
2)By appropriate step 1)The product of preparation loads 500ml beakers, adds isopropanol solvent, 800w power continual ultrasonics 4h, carbonitride is peeled off as far as possible turns into individual layer, and maximum increases its surface area, in favor of follow-up synthesis.
3)2) appropriate ferric nitrate will be added in the carbonitride peeled off, magnetic agitation is uniform, then with sodium hydroxide by pH 10 or so, 30 DEG C of temperature constant magnetic stirring half an hour are adjusted to, mixed liquor is transferred in reactor, 100 DEG C of reaction 10h, afterwards Product is centrifuged, 60 DEG C of dry 24h, obtain carbonitride/iron carbonyl nano composite material in an oven.
The preparation of 3 carbonitrides of embodiment/iron carbonyl nano composite material
1)3g melamines are fitted into porcelain boat, in argon atmosphere 580 DEG C with 7 DEG C of speed temperature reactions 4 per minute Hour, then cooled down in nitrogen atmosphere, the final carbonitride for obtaining yellow shape, grind into powder.Argon gas flow velocity is 50cc/ min。
2)By appropriate step 1)The product of preparation loads 500ml beakers, adds isopropanol solvent, 750w power continual ultrasonics 4h, carbonitride is peeled off as far as possible turns into individual layer, and maximum increases its surface area, in favor of follow-up synthesis.
3)2) appropriate ferric nitrate will be added in the carbonitride peeled off, magnetic agitation is uniform, then with sodium hydroxide by pH 10 or so, 30 DEG C of temperature constant magnetic stirring half an hour are adjusted to, mixed liquor is transferred in reactor, 100 DEG C of reaction 10h, afterwards Product is centrifuged, 60 DEG C of dry 24h, obtain carbonitride/iron carbonyl nano composite material in an oven.
The preparation of 4 carbonitrides of embodiment/iron carbonyl nano composite material
1)3g melamines are fitted into porcelain boat, in argon atmosphere 600 DEG C with 2.3 DEG C of speed temperature reactions per minute 4 hours, then cooled down in nitrogen atmosphere, the final carbonitride for obtaining yellow shape, grind into powder.Argon gas flow velocity is 50cc/ min。
2)By appropriate step 1)The product of preparation loads 500ml beakers, adds isopropanol solvent, 650w power continual ultrasonics 4h, carbonitride is peeled off as far as possible turns into individual layer, and maximum increases its surface area, in favor of follow-up synthesis.
3)2) appropriate ferric nitrate will be added in the carbonitride peeled off, magnetic agitation is uniform, then with sodium hydroxide by pH 10 or so, 30 DEG C of temperature constant magnetic stirring half an hour are adjusted to, mixed liquor is transferred in reactor, 100 DEG C of reaction 10h, afterwards Product is centrifuged, 60 DEG C of dry 24h, obtain carbonitride/iron carbonyl nano composite material in an oven.
Beneficial effects of the present invention are proved with tests below.
Experiment one:
1)3g melamines are fitted into porcelain boat, in argon atmosphere 540 DEG C with 2.3 DEG C of speed temperature reactions per minute 4 hours, then cooled down in nitrogen atmosphere, the final carbonitride for obtaining yellow shape, grind into powder.Argon gas flow velocity is 50cc/ min。
2)By appropriate step 1)The product of preparation loads 500ml beakers, adds isopropanol solvent, 700w power continual ultrasonics 4h, carbonitride is peeled off as far as possible turns into individual layer, and maximum increases its surface area, in favor of follow-up synthesis.
3)2) ferric nitrate of different quality will be added in the carbonitride peeled off, magnetic agitation is uniform, then uses hydroxide PH is adjusted to 10 or so, 30 DEG C of temperature constant magnetic stirring half an hour by sodium, and mixed liquor is transferred in reactor, 100 DEG C of reactions 10h, product is centrifuged afterwards, in an oven 60 DEG C of dry 24h, the carbonitride/iron carbonyl nanometer for obtaining different proportion is answered Condensation material.
Experiment two:Carbonitride/iron carbonyl nano composite material made from experiment one is carried out using SEM Electron-microscope scanning obtains carbonitride as shown in Figure 1/iron carbonyl nano composite material SEM figures, tests one as can be seen from Figure 1 and is made Carbonitride/iron carbonyl nano composite material SEM figure, test one as can be seen from Figure 1 made from carbonitride/iron carbonyl nanometer answer Condensation material is nanometer rods, and there is iron carbonyl on surface.
Experiment three:Using UV-vis DRS spectrometer to the nano combined material of carbonitride/iron carbonyl made from experiment one Material carries out electron-microscope scanning and obtains carbonitride as shown in Figure 2/iron carbonyl nano composite material DRS figures, tests as can be seen from Figure 2 Carbonitride made from one/iron carbonyl nano composite material DRS figures, tests carbonitride/iron carbonyl made from one as can be seen from Figure 2 Nano composite material is remarkably reinforced relative to pure graphite phase carbon nitride in absorption of the visible region to light, therefore produces more photoelectricity Son separates with hole, contributes to the degraded for pollutant.
Experiment four:The carbonitride prepared using experiment one/iron carbonyl nano composite material degraded bisphenol-A, with graphite-phase nitrogen It is control group and experimental group to change carbon, iron carbonyl, carbonitride/iron carbonyl nano composite material of load different proportion iron carbonyl, is had Body process is as follows:
Weighing 20mg experiments one and carbonitride/iron carbonyl nano composite material is made, ultrasonic 2h is scattered in 41ml ultra-pure waters, 5ml 100mg/L bisphenol-As are added, are put into lucifuge magnetic agitation half an hour in light reaction instrument, ensure absorption-resolving balance, Using 300w xenon lamp as light source, before timing plus 4ml 100mmol/L persulfates carry out the experiment of light Fenton degraded bisphenol-A instead Should.
20mg graphite phase carbon nitrides are weighed, ultrasonic 2h is scattered in 41ml ultra-pure waters, is added 5ml 100mg/L bisphenol-As, is put Enter lucifuge magnetic agitation half an hour in light reaction instrument, ensure absorption-resolving balance, using 300w xenon lamp as light source, counting Shi Qianjia 4ml 100mmol/L persulfates carry out the experiment reaction of light degradation bisphenol-A.
20mg iron carbonyls are weighed, ultrasonic 2h is scattered in 41ml ultra-pure waters, adds 5ml 100mg/L bisphenol-As, it is anti-to be put into light Ying Yizhong lucifuge magnetic agitation half an hour, ensure absorption-resolving balance, using 300w xenon lamp as light source, add before timing 4ml 100mmol/L persulfates carry out the experiment reaction of light degradation bisphenol-A.
1.5ml reaction solutions are taken every reasonable time, with its absorbance of liquid phase measurement after centrifugation, are obtained as shown in Figure 3 Light degradation curve map.The effect of the light Fenton degradation of contaminant of carbonitride/iron carbonyl nano composite material of doping 15% is best , reason is as follows:Carbonitride is limited to the activation of persulfate, adulterates 20% carbonitride/iron carbonyl nano composite material Doping is excessive, causes carbonitride photocatalysis substantially to weaken, and two kinds of effects are combined, and causes carbonitride/hydroxyl of doping 15% The effect of the activation degraded bisphenol-A of iron nano composite material is best, adulterate 15% carbonitride/iron carbonyl nano composite material compared with Carbonitride can possess light region more preferable absorbance, and as shown in experiment three, therefore under visible light, carbonitride is by photoproduction Electronics is transmitted to the iron carbonyl that iron carbonyl produces divalence, and light induced electron occurs and is separated with hole, oxygen reduction is super by light induced electron Oxygen root free radical, super oxygen root free radical produce the hydroxyl of hydrogen peroxide, hydrogen peroxide and the persulfate that is directly added into via divalence The catalysis of base iron produces hydroxyl radical free radical and potentiometric titrations respectively, and two kinds of free radicals can be with mineralising pollutant;Carbonitride While photoelectron to be passed to the iron carbonyl of iron carbonyl generation divalence of trivalent, photoelectron is consumed, greatly reduces photoelectron sky Cave separates, the direct mineralising pollutant bisphenol-A in hole, so as to reach the purpose of environmental protection.
Experiment five:Carbonitride/iron carbonyl nano composite material centrifugal drying in four will be tested, being scattered in 50ml concentration is In 10mg/L bisphenol-A, it is put into lucifuge in light reaction instrument and stirs half an hour, reaches catalyst and balanced with bisphenol-A absorption-parsing, Using 300w xenon lamp as light source, light Fenton degradation experiment is carried out, is so repeated twice to obtain light Fenton catalysis drop as shown in Figure 4 Solve repeated curve map.Light Fenton catalytic activity keeps constant.
Experiment six:15% carbonitride prepared using experiment one/iron carbonyl nano composite material degraded bisphenol-A, it is fragrant with light , only illumination, only Fenton condition be experimental group or control group, detailed process is as follows:
15% carbonitrides of 20mg/iron carbonyl nano composite material is weighed, ultrasonic 2h is scattered in 41ml ultra-pure waters, is added 5ml 100mg/L bisphenol-As, lucifuge magnetic agitation half an hour in light reaction instrument is put into, ensures absorption-resolving balance, with 300w xenon lamp is light source, and before timing plus 4ml 100mmol/L persulfates carry out the experiment reaction of light degradation bisphenol-A.
15% carbonitrides of 20mg/iron carbonyl nano composite material is weighed, ultrasonic 2h is scattered in 41ml ultra-pure waters, is added 5ml 100mg/L bisphenol-As, lucifuge magnetic agitation half an hour in light reaction instrument is put into, ensures absorption-resolving balance, with 300w xenon lamp is light source, directly carries out the experiment reaction of light degradation bisphenol-A.
15% carbonitrides of 20mg/iron carbonyl nano composite material is weighed, ultrasonic 2h is scattered in 41ml ultra-pure waters, is added 5ml 100mg/L bisphenol-As, lucifuge magnetic agitation half an hour in light reaction instrument is put into, ensures absorption-resolving balance, black Under conditions of dark lucifuge, the experiment reaction of light degradation bisphenol-A is directly carried out.
Carbonitride macromolecular ultrasound is turned into quantum dot by the present invention, greatly improves absorptivity of the material to light;The present invention makes Visible light-responded nanometer rod composite material is obtained on carbonitride with Fe(NO3)39H2O fabricated in situ, passes through iron carbonyl and nitrogen Change carbon formed hetero-junctions, reduce light induced electron it is compound-hole-recombination rate, while composite by the light abstraction width of carbonitride from Ultraviolet region brings up to visible region, significantly improves the photocatalytic activity of material;The raw material melamine that the present invention uses It is cheap, just it is prepared for the nano combined material of carbonitride/iron carbonyl by simple in-situ synthesized reaction and hydro-thermal reaction method Material;Process is simple, and it is convenient to prepare, and at a low price, the heterojunction structure of formation significantly reduces photo-generate electron-hole recombination rate to raw material, effectively Improve the photo-catalysis capability of material.
The basic principles, principal features and advantages of the present invention have been shown and described above.The technical staff of the industry should Understand, the invention is not limited in any way for above-described embodiment, all to be obtained by the way of equivalent substitution or equivalent transformation Technical scheme, all fall within protection scope of the present invention.

Claims (6)

1. a kind of synthetic method with visible light-responded nitride porous carbon/iron carbonyl nanometer rods complex light Fenton material, its It is characterised by, comprises the following steps:
Step 1, melamine is fitted into porcelain boat, temperature reaction 4 hours in argon atmosphere are then cold in nitrogen atmosphere But, the carbonitride of yellow shape, grind into powder are finally obtained;
Step 2, product prepared by step 1 load beaker, add isopropanol solvent, are put into continual ultrasonic 4h in ultrasonic machine, Carbonitride macromolecular ultrasound, which is peeled off, turns into nitridation carbon quantum dot;
Step 3, appropriate ferric nitrate is added in the nitridation carbon quantum dot that step 2 has been peeled off, magnetic agitation is uniform, then uses pH PH is adjusted to 10,30 DEG C of temperature constant magnetic stirring half an hour by conditioning agent, and mixed liquor is transferred in reactor, 100 DEG C of reaction 10h Afterwards, product is centrifuged, 60 DEG C of dry 24h, obtain carbonitride/iron carbonyl nano composite material in an oven.
It is 2. according to claim 1 a kind of fragrant with visible light-responded nitride porous carbon/iron carbonyl nanometer rods complex light The synthetic method of material, it is characterised in that the above-mentioned argon atmosphere in step 1 is that argon gas flow velocity is 50cc/min.
It is 3. according to claim 1 a kind of fragrant with visible light-responded nitride porous carbon/iron carbonyl nanometer rods complex light The synthetic method of material, it is characterised in that the condition of the above-mentioned temperature reaction in step 1 includes:From room temperature start to warm up to 540 degrees Celsius to 600 degrees Celsius;2.3 DEG C of liter per minute.
It is 4. according to claim 1 a kind of fragrant with visible light-responded nitride porous carbon/iron carbonyl nanometer rods complex light The synthetic method of material, it is characterised in that the above-mentioned nitridation carbon quantum dot in step 2 is single-layer silicon nitride carbon.
It is 5. according to claim 1 a kind of fragrant with visible light-responded nitride porous carbon/iron carbonyl nanometer rods complex light The synthetic method of material, it is characterised in that the power setting of the above-mentioned ultrasonic machine in step 2 is at 700 watts.
It is 6. according to claim 1 a kind of fragrant with visible light-responded nitride porous carbon/iron carbonyl nanometer rods complex light The synthetic method of material, it is characterised in that the above-mentioned pH adjusting agent in step 3 is sodium hydroxide.
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