CN208747635U - The solar energy titanium white waste acid enrichment facility complementary with air energy - Google Patents

The solar energy titanium white waste acid enrichment facility complementary with air energy Download PDF

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Publication number
CN208747635U
CN208747635U CN201821528026.3U CN201821528026U CN208747635U CN 208747635 U CN208747635 U CN 208747635U CN 201821528026 U CN201821528026 U CN 201821528026U CN 208747635 U CN208747635 U CN 208747635U
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China
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titanium white
waste acid
subsystem
white waste
solar energy
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徐众
黄平
吴恩辉
侯静
李军
刘黔蜀
张树立
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Panzhihua University Science Park Development Co Ltd
Panzhihua University
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Panzhihua University Science Park Development Co Ltd
Panzhihua University
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    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02PCLIMATE CHANGE MITIGATION TECHNOLOGIES IN THE PRODUCTION OR PROCESSING OF GOODS
    • Y02P20/00Technologies relating to chemical industry
    • Y02P20/10Process efficiency
    • Y02P20/129Energy recovery, e.g. by cogeneration, H2recovery or pressure recovery turbines
    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02PCLIMATE CHANGE MITIGATION TECHNOLOGIES IN THE PRODUCTION OR PROCESSING OF GOODS
    • Y02P20/00Technologies relating to chemical industry
    • Y02P20/10Process efficiency
    • Y02P20/133Renewable energy sources, e.g. sunlight

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Abstract

The utility model discloses a kind of solar energy titanium white waste acid enrichment facilities complementary with air energy, including sequentially connected solar energy heating subsystem, titanium white waste acid pre-heating heat-exchanging subsystem, it is concentrated by evaporation subsystem and titanium white waste acid crystallisation by cooling subsystem and is solar energy heating subsystem, titanium white waste acid pre-heating heat-exchanging subsystem, it is concentrated by evaporation the solar power generation energy-storage system of subsystem and the power supply of titanium white waste acid crystallisation by cooling subsystem, it further include heat pump subsystem, heat pump subsystem includes air source heat pump, air source heat pump is provided with air intlet, air arranges mouth, cold medium import and thermal medium arrange mouth, cold medium import and thermal medium row's mouth pass through pipeline and are connected with titanium white waste acid pre-heating heat-exchanging subsystem, realize that medium circulates in heat pump subsystem and titanium white waste acid pre-heating heat-exchanging subsystem.Solar energy heating subsystem is used cooperatively with heat pump subsystem, guarantees to be continuously the subsystem heat supply of titanium white waste acid pre-heating heat-exchanging, to realize titanium white waste acid continuous production demand.

Description

The solar energy titanium white waste acid enrichment facility complementary with air energy
Technical field
The utility model relates to waste acid concentration apparatus fields, and in particular to a kind of solar energy and the titanium white that air can be complementary are useless Sour enrichment facility.
Background technique
Acidic waste can be generated using method for producing gtitanium dioxide with sulphuric acid, this acidic waste is referred to as titanium white Spent acid.Titanium white waste acid direct emission can generate huge pollution to environment, entitled as application No. is 201210365019.7 The content of sulfuric acid is in titanium white waste acid described in the disclosure of the invention text of " utilizing the method for solar energy concentration titanium white waste acid " 19%~23%, and every production 1t titanium dioxide will generate the titanium white waste acid of 5~8t, utilize one of the major way of titanium white waste acid Exactly it is concentrated.Main method used at present is three sections of concentration methods, this method need to consume the steam energy of atm number, electric energy and Fossil energy.Due to society and economic continuous development, energy-output ratio is increasing and the increasing of environmental protection consciousness By force, people have a mind to also increase accordingly to low energy consumption, cleaning, sustainable production development, how using clean energy resource progress titanium White waste acid concentration also results in the concern and attention of many scholars, and solar energy is also opened as one kind of cleaning, renewable energy Beginning applies in the concentration of titanium white waste acid.However, solar energy has intermittence, lasting energy supply can not achieve, influence production effect Rate.
Utility model content
The technical problem to be solved by the utility model is to provide a kind of solar energy and the titanium white waste acid that air can be complementary are dense Compression apparatus makes full use of solar energy and air that can provide the energy for whole device, with meet titanium white waste acid serialization, clean, Energy-saving production requirement.
The utility model technical scheme applied to solve the technical problem is: the solar energy titanium white waste acid complementary with air energy Enrichment facility, including sequentially connected solar energy heating subsystem, titanium white waste acid pre-heating heat-exchanging subsystem, evaporation and concentration subsystem With titanium white waste acid crystallisation by cooling subsystem and for solar energy heating subsystem, titanium white waste acid pre-heating heat-exchanging subsystem, evaporation it is dense The solar power generation energy-storage system of contracting subsystem and the power supply of titanium white waste acid crystallisation by cooling subsystem,
It further include heat pump subsystem, the heat pump subsystem includes air source heat pump, and the air source heat pump setting is free Mouth is arranged in gas import, air row mouth, cold medium import and thermal medium, the cold medium import and thermal medium row's mouth pass through pipeline with Titanium white waste acid pre-heating heat-exchanging subsystem is connected, and realizes that medium recycles in heat pump subsystem and titanium white waste acid pre-heating heat-exchanging subsystem Flowing.
Further, the titanium white waste acid pre-heating heat-exchanging subsystem includes storing up on the titanium white waste acid set gradually from top to bottom Storage bin under case, media storage case and titanium white waste acid is deposited, heat exchange coil and the first driving are provided in the media storage case Pump, the upper end of heat exchange coil are connected with storage bin on titanium white waste acid, and lower end is connected to storage bin under titanium white waste acid, the titanium white Storage bin is connected to by pipeline with subsystem is concentrated by evaporation under spent acid, and thermal medium inlet, the heat are provided on media storage case Medium entrance is arranged mouth by pipeline and thermal medium and is connected to, and thermal medium is arranged and is provided with the on the pipeline between mouth and thermal medium inlet Two transfer tubes, first transfer tube pass through pipeline and cold medium inlet communication.
Further, third transfer tube and the first temperature detecting element, institute are provided under the titanium white waste acid in storage bin Third transfer tube is stated to be connected to by pipeline with storage bin on titanium white waste acid.
Further, the solar energy heating subsystem includes slot light collection heat collector, and the slot light collection heat collector is set It is equipped with the second cold medium import and the second thermal medium row's mouth, second thermal medium row's mouth is connected with the 4th transfer tube, and described four Transfer tube is connected to by pipeline with thermal medium inlet, and the second cold medium import is connected by pipeline with the first transfer tube.
Further, further include the first triple valve and the second triple valve, the second thermal medium row mouth, thermal medium row's mouth and Thermal medium inlet passes through three orifices of conduit and the first triple valve respectively, the second cold medium import, cold medium into Mouth and the first transfer tube pass through three orifices of conduit and the second triple valve respectively.
Further, being concentrated by evaporation subsystem includes vacuum concentrator, and the vacuum concentrator is provided with feed inlet, discharging Mouthful and vacuum orifice, storage bin is connected to by pipeline with feed inlet under the titanium white waste acid, and feed inlet under titanium white waste acid The 5th transfer tube is provided between storage bin, the discharge port is connected with titanium white waste acid crystallisation by cooling subsystem.
Further, the titanium white waste acid crystallisation by cooling subsystem includes crystallisation vessel, is arranged except the crystallisation vessel There is collet, cooling chamber is provided between the collet and crystallisation vessel, mouth on the rocks is provided at the top of the cooling chamber, bottom is set It is equipped with discharge outlet;Material inlet is provided at the top of the crystallisation vessel, side wall is provided with waste liquid row's mouth, and bottom is provided with crystallization Outlet, the material inlet are connected by pipeline with subsystem is concentrated by evaporation.
Further, second temperature detecting element is provided in the crystallisation vessel.
Further, the solar power generation energy-storage system includes photovoltaic battery matrix bracket, photovoltaic battery panel square matrix, stores Battery, inverter and controller, the photovoltaic battery panel square matrix are mounted on photovoltaic battery matrix bracket, the photovoltaic cell Plate square matrix, inverter, controller and battery are sequentially connected.
It further, further include mains supply, the mains supply is electrically connected with the controller.
Compared with prior art, the utility model has the beneficial effects that in addition to using solar energy heating subsystem acquisition heat Except energy, heat pump subsystem is also added, heat pump subsystem can absorb and be the dense of titanium white waste acid using the thermal energy in air Contracting provides thermal energy, and when the heat supply deficiency of solar energy heating subsystem, heat pump subsystem can substitute solar energy heating subsystem, Guarantee continuously to be the subsystem heat supply of titanium white waste acid pre-heating heat-exchanging, to realize that titanium white waste acid continuous production needs It asks.Further, since solar energy and air can be clean energy resource, and it is pollution-free, it is good for the environment, energy conservation.
Detailed description of the invention
Fig. 1 is the schematic diagram of the utility model.
Appended drawing reference: 1-heat pump subsystem;11-air intlets;12-air source heat pumps;13-cold medium imports; 14-thermal mediums arrange mouth;15-air arrange mouth;2-solar energy heating subsystems;21-slot light collection heat collectors;22-the second is cold Medium entrance;23-the second thermal medium arranges mouth;3-titanium white waste acid pre-heating heat-exchanging subsystems;31-media storage casees;311-change Hot coil;313-thermal medium inlets;Storage bin on 32-titanium white waste acids;Storage bin under 33-titanium white waste acids;4-are concentrated by evaporation Subsystem;41-vacuum concentrators;42-feed inlets;43-discharge ports;44-vacuum orifices;5-titanium white waste acid crystallisation by cooling Subsystem;51-crystallisation vessels;52-collets;53-cooling chambers;54-mouths on the rocks;55-discharge outlet;56-material inlets; 57-crystallization outlets;58-waste liquids arrange mouth;6-solar power generation energy-storage systems;61-photovoltaic battery matrix brackets;62-photovoltaics Solar panel square matrix;63-batteries;64-inverters;65-controllers;66-mains supplies;71-the first transfer tube;72— Second transfer tube;73-third transfer tubes;74-the four transfer tube;75-the five transfer tube;81-the first temperature detecting element; 82-second temperature detecting elements;91-the first triple valve;92-the second triple valve.
Specific embodiment
The present invention will be further described with reference to the accompanying drawings and examples.
As shown in Figure 1, the titanium white waste acid enrichment facility that the solar energy of the utility model is complementary with air energy, including successively connect The cooling knot of solar energy heating subsystem 2, titanium white waste acid pre-heating heat-exchanging subsystem 3, evaporation and concentration subsystem 4 and titanium white waste acid connect Matted crystal system 5 and for solar energy heating subsystem 2, titanium white waste acid pre-heating heat-exchanging subsystem 3, be concentrated by evaporation subsystem 4 and titanium The solar power generation energy-storage system 6 that white spent acid crystallisation by cooling subsystem 5 is powered.
Solar energy heating subsystem 2 can absorb the radiation of sunlight, convert light energy into thermal energy and add to medium Heat, the medium after heating enter titanium white waste acid pre-heating heat-exchanging subsystem 3, and are passed through titanium white waste acid pre-heating heat-exchanging subsystem 3 simultaneously Titanium white waste acid to be concentrated heat exchange, increase the temperature of titanium white waste acid, and the temperature of medium reduces and comes back to solar energy collection It absorbs heat and heats up in thermal sub-system 2, realize cycle heat exchange.Temperature after titanium white waste acid absorbs heat in titanium white waste acid pre-heating heat-exchanging subsystem 3 Degree increases, and then flows to and is concentrated by evaporation subsystem 4, and after being concentrated by evaporation the concentration of subsystem 4, it is cold to enter back into titanium white waste acid But subsystem 5 is crystallized, titanium white waste acid crystallisation by cooling subsystem 5 cools down the titanium white waste acid of high concentration, in titanium white waste acid Sulfuric acid salt solubility is reduced and is crystallized, and obtains the sulfuric acid and solid sulfate product of higher concentration.Solar power generation energy storage system System 6 can convert solar energy into electrical energy, when sunny, solar power generation energy-storage system 6 for sun can collect thermal sub-system 2, Titanium white waste acid pre-heating heat-exchanging subsystem 3 is concentrated by evaporation current consuming apparatus confession in subsystem 4 and titanium white waste acid crystallisation by cooling subsystem 5 While electric, power storage is got up, when sunlight deficiency, the electric energy of storage is recycled to supply for the electrical equipment of subsystems Electricity.
Since solar energy heating subsystem 2 is merely able to work under conditions of having sunlight, when sunlight is inadequate, often go out The case where processing of existing titanium white waste acid is interrupted, therefore, the utility model further includes heat pump subsystem 1, and the heat pump subsystem 1 is wrapped Air source heat pump 12 is included, the air source heat pump 12 is provided with air intlet 11, air row mouth 15, cold medium import 13 and heat and is situated between Matter arranges mouth 14, and the cold medium import 13 and thermal medium row's mouth 14 pass through pipeline and 3 phase of titanium white waste acid pre-heating heat-exchanging subsystem Even, realize that medium circulates in heat pump subsystem 1 and titanium white waste acid pre-heating heat-exchanging subsystem 3.
Energy of the air source heat pump 12 using in air is real by a small amount of electrical energy drive compressor operation as major impetus The transfer of existing energy, by the heat absorption in air and can be transferred in medium, air source heat pump 12 and solar power generation energy storage System 6 is connected, and required electric energy is provided by solar power generation energy-storage system 6.The specific course of work of heat pump subsystem 1 are as follows: empty Gas enters air source heat pump 12 from air intlet 11, and under the action of air source heat pump 12, the heat in air is transferred to medium In, the temperature of medium enters titanium white waste acid pre-heating heat-exchanging subsystem 3 after increasing, and flows through titanium white waste acid pre-heating heat-exchanging subsystem 3 Titanium white waste acid exchanges heat with medium, and the temperature of titanium white waste acid increases and enter subsequent processing, and the temperature of medium is reduced and returned It is flow to cold medium import 13, realizes circulation thermal-arrest and heat exchange.
The titanium white waste acid pre-heating heat-exchanging subsystem 3 include storage bin 32 on the titanium white waste acid that sets gradually from top to bottom, Storage bin 33 under media storage case 31 and titanium white waste acid is provided with heat exchange coil 311 and first in the media storage case 31 Transfer tube 71, the first transfer tube 71 are located at the lower part of media storage case 31, store on the upper end of heat exchange coil 311 and titanium white waste acid Case 32 is connected, and lower end is connected to storage bin 33 under titanium white waste acid, and storage bin 33 passes through pipeline and evaporation under the titanium white waste acid Subsystem 4 is concentrated to be connected to, is provided with thermal medium inlet 313 on media storage case 31, thermal medium inlet 313 is located at media storage case 31 top, the thermal medium inlet 313 are arranged mouth 14 by pipeline and thermal medium and are connected to, and thermal medium arrange mouth 14 and thermal medium into The second transfer tube 72 is provided on pipeline between mouth 313, first transfer tube 71 is connected by pipeline and cold medium import 13 It is logical.
Storage bin 33 can be used for storing titanium white waste acid to be processed under storage bin 32 and titanium white waste acid on titanium white waste acid Vinyon material, it is corrosion-resistant.Media storage case 31 is used for storage medium, double-layer structure can be used, internal layer is stainless steel Matter, corrosion-resistant, intensity is sufficiently high, and outer layer is insulating layer, and insulating layer can be existing common thermal insulation material, play reduction heat waste The effect of consumption.Water can be used in medium, the oil that thermal conductivity can also be used good.Solar energy heating subsystem 2 and heat pump subsystem 1 are equal Medium using the medium in media storage case 31 as transmitting heat.Due to storage bin 32, media storage case on titanium white waste acid 31 and titanium white waste acid under storage bin 33 set gradually from top to bottom, the titanium white waste acid on titanium white waste acid in storage bin 32 can weight The heat exchange coil 311 of media storage case 31 is automatically flowed through under the action of power and enters storage bin 33 under titanium white waste acid, is not needed Using transfer tube, energy consumption is reduced.First transfer tube 71 is used to for the cold medium of 31 bottom of media storage case to be delivered to air-source heat Pump 12, the second transfer tube 72 are used to for the thermal medium in air source heat pump 12 being delivered to the top of media storage case 31, are medium Circulation provide power.Heat exchange coil 311 is for transmitting heat, good, etch-proof material such as copper etc. using thermal conductivity, and is changing Titanium tube also can be directly used in the titanizing inner wall film of hot coil 311, guarantees corrosion resistance.Titanium white waste acid flows through from top to bottom Heat exchange coil 311, exchanges heat with medium, and the temperature of itself flows into storage bin 33 under titanium white waste acid after increasing.
For the ease of controlling the temperature of titanium white waste acid, guarantee that the temperature of titanium white waste acid is increased to enter back into down after desired value One process is provided with third transfer tube 73 and the first temperature detecting element 81 in storage bin 33 under the titanium white waste acid, described Third transfer tube 73 is connected to by pipeline with storage bin 32 on titanium white waste acid.First temperature detecting element 81 can be used thermocouple, The arbitrary ordinary temperature detecting element such as temperature sensor, for detecting the titanium white waste acid temperature under titanium white waste acid in storage bin 33 Degree, when suitable temperature of the temperature of titanium white waste acid lower than setting, using third transfer tube 73 by storage bin 33 under titanium white waste acid In titanium white waste acid be delivered to storage bin 32 on titanium white waste acid, make titanium white waste acid cycle heat exchange, until temperature is met the requirements.
The solar energy heating subsystem 2 includes slot light collection heat collector 21, and the slot light collection heat collector 21 is provided with Second cold medium import 22 and the second thermal medium arrange mouth 23, and the second thermal medium row mouth 23 is connected with the 4th transfer tube 74, institute It states four transfer tubes 74 to be connected to by pipeline with thermal medium inlet 313, the second cold medium import 22 is driven by pipeline and first Dynamic pump 71 is connected.
21 light and heat collection of slot light collection heat collector it is high-efficient, can be improved the utilization rate to solar energy, and can guarantee The temperature of medium is stablized.4th transfer tube 74 is used to the thermal medium in slot light collection heat collector 21 being delivered to media storage case 31.Cold medium in media storage case 31 can be delivered to slot light collection collection by being different from other transfer tubes of the first transfer tube 71 Hot device 21, in order to reduce equipment amount, preferably, two cold medium imports 22 are connected by pipeline with the first transfer tube 71, the Cold medium in matter storage box 31 can either be delivered to slot light collection heat collector 21 by one transfer tube 71, and can be defeated by cold medium It send to air source heat pump 12.
It further include the first triple valve 91 and the second triple valve 92, the second thermal medium row in order to facilitate the connection of pipeline Mouth 23, thermal medium row's mouth 14 and thermal medium inlet 313 pass through three orifices of conduit and the first triple valve 91 respectively, described Second cold medium import 22, cold medium import 13 and the first transfer tube 71 are connect by three of conduit and the second triple valve 92 respectively Mouth connection.Specifically, the first triple valve 91 is tool there are two the triple valve of import one outlet, and the second thermal medium arranges mouth 23 and heat Medium arranges mouth 14 and is connected respectively at two imports of the first triple valve 91, the outlet of thermal medium inlet 313 and the first triple valve 91 It is connected.Second triple valve 92 is the triple valves with an import and two outlets, and the first transfer tube 71 passes through pipeline and second The import of triple valve 92 is connected, and the second cold medium import 22 and cold medium import 13 are exported with two of the second triple valve 92 respectively It is connected.For the ease of the flow path of control medium, on the pipeline between the second cold medium import 22 and the second triple valve 92 Provided with valve fd3, valve fd1 is provided on the pipeline between cold medium import 13 and the second triple valve 92.
Being concentrated by evaporation subsystem 4 includes vacuum concentrator 41, and the vacuum concentrator 41 is provided with feed inlet 42, discharge port 43 and vacuum orifice 44, storage bin 33 is connected to by pipeline with feed inlet 42 under the titanium white waste acid, and feed inlet 42 and titanium The 5th transfer tube 75, the discharge port 43 and titanium white waste acid crystallisation by cooling subsystem 5 are provided under white spent acid between storage bin 33 It is connected.
Vacuum concentrator 41 uses chemical field commonly corrosion-resistant cold boiler, and vacuum orifice 44, which is connected with, to be vacuumized Pump, the hot titanium white waste acid under titanium white waste acid in storage bin 33 enter vacuum concentrator 41 from feed inlet 42, then using vacuumizing Pump extracts the air in vacuum concentrator 41 out from vacuum orifice 44, reduces the pressure in vacuum concentrator 41, the boiling of water Point is reduced and is largely evaporated, and water vapour is evacuated pumping and goes out, and realizes the concentration of titanium white waste acid.After the completion of concentration, high concentration Titanium white waste acid is discharged from discharge port 43.
The titanium white waste acid crystallisation by cooling subsystem 5 includes crystallisation vessel 51, is provided with folder except the crystallisation vessel 51 Set 52, is provided with cooling chamber 53, the top of the cooling chamber 53 is provided with mouth on the rocks between the collet 52 and crystallisation vessel 51 54, bottom is provided with discharge outlet 55;The top of the crystallisation vessel 51 is provided with material inlet 56, and side wall is provided with waste liquid row's mouth 58, bottom is provided with crystallization outlet 57, and the material inlet 56 is connected by pipeline with subsystem 4 is concentrated by evaporation, specifically, object Material import 56 is connected to by pipeline with discharge port 43.
Crystallisation vessel 51 metal cabinet, cylinder or the tank body high using thermal coefficient, the aluminium that specifically can be titanizing close Golden cabinet.Collet 52 is coated on the outside of crystallisation vessel 51, and heat preservation material can be used, to avoid the heat transfer in external environment Into cooling chamber 53.Titanium white waste acid crystallisation by cooling subsystem 5 uses ice cube as cooling source, in use, in vacuum concentrator 41 High concentration titanium white waste acid by material inlet 56 enter crystallisation vessel 51, by ice cube by mouth 54 on the rocks be added cooling chamber 53 In, ice cube absorbs the heat of titanium white waste acid, reduces the temperature of titanium white waste acid, the reduction of sulfuric acid salt solubility in titanium white waste acid and Crystallization, remaining sulfuric acid solution are arranged the discharge of mouth 58 by waste liquid and are recycled, and crystal is discharged and is recycled by crystallization outlet 57, thawing Ice water from discharge outlet 55 be discharged.
For the ease of the titanium white waste acid temperature in control crystallisation vessel 51, second temperature is provided in the crystallisation vessel 51 Detecting element 82.The temperature detecting element of the routine such as temperature sensor can be used in second temperature detecting element 82, for detecting knot Titanium white waste acid temperature in brilliant container 51 is added when the titanium white waste acid temperature in crystallisation vessel 51 is higher into cooling chamber 53 Ice cube guarantees sufficient crystallising.
The solar power generation energy-storage system 6 includes photovoltaic battery matrix bracket 61, photovoltaic battery panel square matrix 62, battery 63, inverter 64 and controller 65, the photovoltaic battery panel square matrix 62 are mounted on photovoltaic battery matrix bracket 61, the light Volt solar panel square matrix 62, inverter 64, controller 65 and battery 63 are sequentially connected.
Photovoltaic battery matrix bracket 61 is used to support photovoltaic battery panel square matrix 62, the supporting frame being welded using profile ?.Photovoltaic battery panel square matrix 62 is for absorbing solar energy and converting solar energy into electrical energy, using the polysilicon of muti-piece routine Or single crystal silicon battery plate.The DC conversion that inverter 64 is used to generate photovoltaic battery panel square matrix 62 is alternating current, control Device 65 contains solar charging discharging controller, controls the use and storage of electric energy.Solar energy heating subsystem 2, titanium white waste acid Pre-heating heat-exchanging subsystem 3, be concentrated by evaporation subsystem 4, titanium white waste acid crystallisation by cooling subsystem 5 and heat pump subsystem 1 with control Device 65 processed is electrically connected, and the power supply of subsystems is controlled by controller 65, while can pass through each electrical equipment of programming Control Automatic operating.Specifically, air source heat pump 12, the first transfer tube 71, the second transfer tube 72, third transfer tube the 73, the 4th Transfer tube 74, the 5th transfer tube 75, vacuum pumping pump, the first temperature detecting element 81 and second temperature detecting element 82 with control Device 65 processed is electrically connected.
Battery 63 is for storing extra electric energy, using vanadium cell, when sunlight deficiency, i.e., using in battery 63 Electric energy, guarantee production continuity.
In order to avoid sunlight is insufficient for a long time and causes 6 generated energy of solar power generation energy-storage system insufficient, this is practical new Type further includes mains supply 66, and the mains supply 66 is electrically connected with controller 65.Mains supply 66 is electrically connected with city, works as the sun Can 6 power supply of electrification energy storage system when cannot meet the requirements, then powered using mains supply 66, guarantee whole system can continue, Successfully run.
For the ease of the on-off of fluid flow and pipeline in control piper, mouth 14 and the second transfer tube are arranged in thermal medium It is provided with valve fd2 on pipeline between 72, arranges in the second thermal medium and is arranged on the pipeline between mouth 23 and the 4th transfer tube 74 There is valve fd4, valve fd5 is provided on the pipeline between feed inlet 42 and the 5th transfer tube 75, in discharge port 43 and material Valve fd6 is provided on pipeline between import 56, discharge outlet 55 is connected with valve fd7, and waste liquid row's mouth 58 is connected with valve fd8。
Present apparatus overall work process are as follows: when sunny, medium can be heated to setting by solar energy heating subsystem 2 Temperature when, thermal energy is provided separately by solar energy heating subsystem 2, specifically: valve fd2, valve fd1 close, valve fd3, Valve fd4, valve fd5 and valve fd6 are opened, and the second transfer tube 72 is closed, and the first transfer tube 71 and the 4th transfer tube 74 are opened, Cold medium in media storage case 31 is delivered in slot light collection heat collector 21 by the first transfer tube 71, slot light collection heat collector 21 It absorbs solar energy and cold medium is heated as thermal medium, thermal medium enters media storage under the action of the 4th transfer tube 74 again Case 31, medium circulate under the action of the first transfer tube 71 is with the 4th transfer tube 74, make the medium in media storage case 31 Temperature increases.Storage bin 32 on titanium white waste acid is added in titanium white waste acid to be concentrated, titanium white waste acid is automatic under gravity Into the heat exchange coil 311 in media storage case 31, titanium white waste acid passes through the medium in heat exchange coil 311 and media storage case 31 Exchange heat, itself temperature increases, subsequently into storage bin 33 under titanium white waste acid, under titanium white waste acid in storage bin 33 first Temperature detecting element 81 detects the temperature of titanium white waste acid, and when the temperature of titanium white waste acid reaches 60 DEG C to 90 DEG C, starting the 5th is driven Dynamic pump 75, is delivered to vacuum concentrator 41 for the titanium white waste acid under titanium white waste acid in storage bin 33;If the temperature of titanium white waste acid Lower than 60 DEG C, then starts three transfer tubes 73, the titanium white waste acid under titanium white waste acid in storage bin 33 is delivered on titanium white waste acid and is stored up Case 32 is deposited, the Repeat-heating to titanium white waste acid is realized, until the temperature of titanium white waste acid reaches 60 DEG C to 90 DEG C.
Vacuum concentrator 41 is vacuumized using vacuum pumping pump, the titanium white waste acid evaporation in vacuum concentrator 41 is dense Ice cube is added into cooling chamber 53 subsequently into crystallisation vessel 51 for contracting, and ice cube absorbs the temperature of titanium white waste acid, makes titanium white waste acid Temperature reduce, the sulphate crystal in titanium white waste acid, crystallization is from 57 discharge of crystallization outlet.Second temperature detecting element 82 detects The temperature of titanium white waste acid in crystallisation vessel 51, when temperature is reduced to 0 DEG C to 10 DEG C, Open valve fd8 arranges sulfuric acid solution Out.When temperature is higher than 10 degrees Celsius, ice cube is added into cooling chamber 53.After ice melting, Open valve fd7 arranges ice water Out.
Work as insufficient light, when solar energy heating subsystem 2 can not absorb enough heat, Open valve fd2 and valve Fd1 closes valve fd3 and valve fd4, starts the second transfer tube 72, the medium in media storage case 31 is delivered to air-source In heat pump 12, medium is heated using air source heat pump 12.
In above process, solar power generation energy-storage system 6 provides electric energy using solar power generation and for whole device, more Remaining power storage is spare in battery 63, and mains-supplied is used when generated energy deficiency.

Claims (10)

1. the solar energy titanium white waste acid enrichment facility complementary with air energy, including sequentially connected solar energy heating subsystem (2), Titanium white waste acid pre-heating heat-exchanging subsystem (3) is concentrated by evaporation subsystem (4) and titanium white waste acid crystallisation by cooling subsystem (5) and is Solar energy heating subsystem (2), titanium white waste acid pre-heating heat-exchanging subsystem (3) are concentrated by evaporation subsystem (4) and titanium white waste acid cooling Crystallize the solar power generation energy-storage system (6) of subsystem (5) power supply, it is characterised in that:
It further include heat pump subsystem (1), the heat pump subsystem (1) includes air source heat pump (12), the air source heat pump (12) air intlet (11), air row mouth (15), cold medium import (13) and thermal medium row mouth (14), the cold medium are provided with Import (13) and thermal medium row mouth (14) are connected by pipeline with titanium white waste acid pre-heating heat-exchanging subsystem (3), realize that medium exists It is circulated in heat pump subsystem (1) and titanium white waste acid pre-heating heat-exchanging subsystem (3).
2. the solar energy according to claim 1 titanium white waste acid enrichment facility complementary with air energy, it is characterised in that: described Titanium white waste acid pre-heating heat-exchanging subsystem (3) includes storage bin on the titanium white waste acid set gradually from top to bottom (32), media storage Storage bin (33) under case (31) and titanium white waste acid is provided with heat exchange coil (311) and first in the media storage case (31) The upper end of transfer tube (71), heat exchange coil (311) is connected with storage bin on titanium white waste acid (32), stores up under lower end and titanium white waste acid Case (33) connection is deposited, storage bin (33) is connected to by pipeline with subsystem (4) are concentrated by evaporation under the titanium white waste acid, media storage It is provided on case (31) thermal medium inlet (313), the thermal medium inlet (313) is connected by pipeline and thermal medium row mouth (14) It is logical, and be provided with the second transfer tube (72) on the pipeline between thermal medium row mouth (14) and thermal medium inlet (313), described first Transfer tube (71) is connected to by pipeline with cold medium import (13).
3. the solar energy according to claim 2 titanium white waste acid enrichment facility complementary with air energy, it is characterised in that: described Third transfer tube (73) and the first temperature detecting element (81), the third driving are provided under titanium white waste acid in storage bin (33) Pump (73) is connected to by pipeline with storage bin on titanium white waste acid (32).
4. the solar energy according to claim 2 titanium white waste acid enrichment facility complementary with air energy, it is characterised in that: described Solar energy heating subsystem (2) includes slot light collection heat collector (21), and it is cold that the slot light collection heat collector (21) is provided with second Medium entrance (22) and the second thermal medium row mouth (23), the second thermal medium row mouth (23) are connected with the 4th transfer tube (74), Four transfer tube (74) is connected to by pipeline with thermal medium inlet (313), and the second cold medium import (22) passes through pipeline It is connected with the first transfer tube (71).
5. the solar energy according to claim 4 titanium white waste acid enrichment facility complementary with air energy, it is characterised in that: also wrap The first triple valve (91) and the second triple valve (92) are included, the second thermal medium row mouth (23), thermal medium row mouth (14) and heat are situated between Matter import (313) respectively by three orifices of conduit and the first triple valve (91), the second cold medium import (22), Cold medium import (13) and the first transfer tube (71) pass through three orifices of conduit and the second triple valve (92) respectively.
6. the solar energy according to claim 2 titanium white waste acid enrichment facility complementary with air energy, it is characterised in that: evaporation It includes vacuum concentrator (41) that subsystem (4), which are concentrated, and the vacuum concentrator (41) is provided with feed inlet (42), discharge port (43) And vacuum orifice (44), storage bin (33) is connected to by pipeline with feed inlet (42) under the titanium white waste acid, and feed inlet (42) and under titanium white waste acid the 5th transfer tube (75) is provided between storage bin (33), the discharge port (43) and titanium white waste acid are cold But crystallization subsystem (5) is connected.
7. being concentrated according to claim 1 to solar energy described in 6 any one claims with the titanium white waste acid that air can be complementary Device, it is characterised in that: the titanium white waste acid crystallisation by cooling subsystem (5) includes crystallisation vessel (51), the crystallisation vessel (51) it is provided with except collet (52), is provided with cooling chamber (53) between the collet (52) and crystallisation vessel (51), it is described cold But it is provided with mouth on the rocks (54) at the top of chamber (53), bottom is provided with discharge outlet (55);It is set at the top of the crystallisation vessel (51) It is equipped with material inlet (56), side wall is provided with waste liquid row mouth (58), and bottom is provided with crystallization outlet (57), the material inlet (56) it is connected by pipeline with subsystem (4) are concentrated by evaporation.
8. the solar energy according to claim 7 titanium white waste acid enrichment facility complementary with air energy, it is characterised in that: described Second temperature detecting element (82) are provided in crystallisation vessel (51).
9. being concentrated according to claim 1 to solar energy described in 6 any one claims with the titanium white waste acid that air can be complementary Device, it is characterised in that: the solar power generation energy-storage system (6) includes photovoltaic battery matrix bracket (61), photovoltaic battery panel Square matrix (62), battery (63), inverter (64) and controller (65), the photovoltaic battery panel square matrix (62) are mounted on photovoltaic On battery array bracket (61), the photovoltaic battery panel square matrix (62), inverter (64), controller (65) and battery (63) It is sequentially connected.
10. the solar energy according to claim 9 titanium white waste acid enrichment facility complementary with air energy, it is characterised in that: also Including mains supply (66), the mains supply (66) is electrically connected with controller (65).
CN201821528026.3U 2018-09-18 2018-09-18 The solar energy titanium white waste acid enrichment facility complementary with air energy Active CN208747635U (en)

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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN108751147A (en) * 2018-09-18 2018-11-06 攀枝花学院 The solar energy titanium white waste acid enrichment facility complementary with air energy

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN108751147A (en) * 2018-09-18 2018-11-06 攀枝花学院 The solar energy titanium white waste acid enrichment facility complementary with air energy

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