CN102662387A - Heat supply monitoring system and method - Google Patents

Heat supply monitoring system and method Download PDF

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CN102662387A
CN102662387A CN2012101793196A CN201210179319A CN102662387A CN 102662387 A CN102662387 A CN 102662387A CN 2012101793196 A CN2012101793196 A CN 2012101793196A CN 201210179319 A CN201210179319 A CN 201210179319A CN 102662387 A CN102662387 A CN 102662387A
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heat supply
hot water
information
monitoring point
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张克
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    • Y02PCLIMATE CHANGE MITIGATION TECHNOLOGIES IN THE PRODUCTION OR PROCESSING OF GOODS
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Abstract

The invention discloses a heat supply monitoring system comprising a collecting module used for collecting heat supply information at a monitoring point, a transmitting module used for transmitting the heat supply information collected by the collecting module, an analyzing and storing module used for storing, calculating and analyzing the heat supply information transmitted by the transmitting module, a control module used for controlling onsite equipment according to a preset program, control information transmitted by the transmitting module and control information sent by a heat supply enterprise, and a display module used for displaying the data in the analyzing and storing module. A heat supply monitoring method utilizing the heat supply monitoring system disclosed by the invention comprises the steps: the collecting module collects heat supply information, the transmitting module transmits the heat supply information, the analyzing and storing module processes the data, the display module displays a result, and the control module regulates the heat supply. The heat supply monitoring system and method disclosed by the invention can remotely transmit the heat supply network data of the heat supply industry, online count, calculate and analyze the data in real time and regulate and control the heat supply site according to the analysis result.

Description

Heat supply monitoring system and method
Technical field
The present invention relates to the heat supply field, particularly a kind of heat supply monitoring system and method that is applied in the heating industry automated information technical field.
Background technology
Along with social development, heating network, area of heat-supply service, industrial steam thermal load, heat are changed the station and are all being increased sharply.The whole pipe network network of rivers, vapour net interlock, situation is complicated, the adjusting difficulty is big, if do not understand for whole pipe network system operation conditions, the adjustment dynamics is not enough, a series of problem will occur.
In the prior art, do not set up the heating enterprise of heat supply monitoring system, need to send every day the special messenger to check meter to thermal source factory and user place, hand computation day net decrease, all nets undermine a month net and decrease, and make production report.Under this environment; Also needed to accomplish in three days even only calculate a month net damage in multidisciplinary working in coordination with down; Even and after obtaining relevant data; Want earlier after each subsidiary factory gathers, to gather by production department more this gathering the machine-processed waste of manpower that reports again and having a strong impact on heating enterprise layer by layer to the on-the-spot allotment of heat supply and the improvement of production status by each head of a station's statistics.
Simultaneously, be the completion task of checking meter, company has often disposed the more person of checking meter; But in this mode,, continuous data also is difficult to unusually find indivedual enterprises are arranged for reducing production costs even having; Reduce the heat cost spending, on gauging table, juggle things, reach the decline of heat expense; And means are various to be not easy to find, for example:
(1) indivedual steam users revise parameter on the meter system element, to reach the purpose that reduces steam consumption;
(2) indivedual hot water primary water users; Use the bigger Siemens's flowmeter of table bore; Owing to what supply power to the product flow appearance is not that battery needs external 220V power supply; Outside the person of checking meter is checked meter the time; Take the mode of cutting off the electricity supply; Make gauge no flow value no record between turnoff time, reduce clearing heat purpose to reach;
(3) dwelling house resident ultrasonic heat water meter splits out the gauge battery, the internal core wire of the supply and return water temperature line that fractures, but the crust of supply and return water temperature line is still good, reaches the purpose that reduces flow and calorie value;
More than all situation caused a lot of abnormal loss of heat supply, user and heating enterprise produce dispute through regular meeting when trade settlement.It is particularly important that the foundation of therefore, heat supply monitoring system just seems.
Yet, even there are some comparatively advanced heating enterprises, set up the heat supply monitoring system, these enterprise's heat exchange stations are monitored with phone dialing mode, and use from establishing radio station mode 220,000,000 or Nuo Te net as communication modes at user data and thermal source factory critical point; Because to the wrong choice of transmission mode, a lot of heating enterprises only use rich and influential family and thermal source factory critical point data to carry out the teletransmission monitoring to tens steam under the forcing of cost.In addition, still exist and can not set up automatic net damage statistical analysis system for various reasons, the work that statistics day net and decrease, all nets undermines moon net damage still need adopt the mode that combines with manual calculation of checking meter to carry out.Backward technology, monitoring system among a small circle can't realize the requirement of robotization, information system management at all, does not match with the development of heat supply undertaking.
In addition along with the growth in zone; Hot user is increasing; Existing only pinpoint the problems or the user heat supply occurs and reinforms heating enterprise unusually by heating enterprise, then heating enterprise carries out heat supply on-the-spot regulation and control or apparatus maintenance, service-user well again; How for the user provides quality services more, change from passive to active, this just requires the heat supply monitoring system not only will set up equally, and as one of important means of heat supply modern management, implementing in full of heat supply monitoring system is also extremely urgent.
Summary of the invention
The object of the present invention is to provide a kind of teletransmission and real-time online data statistics, calculating and analysis of the heat supply network data that can realize heating industry and heat supply monitoring system and the method for the heat supply scene being regulated and control according to analysis result.
To achieve these goals, technical scheme of the present invention is following:
A kind of heat supply monitoring system; Comprise the acquisition module of the heat supply information at place, monitoring point preset in the acquiring heat supply pipe network, the heat supply transmission of Information module that the transmission acquisition module collects; In addition, also comprise analyzing stored module that the heat supply information of transmitting in the transport module is stored, calculated and analyzes and the control module of field apparatus being controlled according to the control information that the pre-set programs combination is issued by the next heating enterprise of transport module transmission; Acquisition module, transport module and analyzing stored module connect in order, and control module picks out, constitutes another branch road arranged side by side from transport module; The analyzing stored module comprises database server and is stored in the data base management subsystem in the database server; This data base management subsystem includes function modules set makes the analyzing stored module call, calculate and analyze what the data of transport module transmission were stored, are scheduled to; Be derived as and differentiate the operation production status and whether provide support rationally that the instantaneous net of data decreases, the road network that net decreases, transmission causes in the branch road of each transfer conduit in presupposition analysis cycle decreases and operation conditions; Each result that will calculate then analyzes with national normal value and/or historical data respectively, relatively, obtain a result and store back the analyzing stored module.
Preferably, acquisition module comprises a plurality of calorimeters that are arranged at each preset monitoring point; This acquisition module can also comprise the pressure transducer of gathering pressure and the temperature sensor of collecting temperature; Heating enterprise can be made the judgement to the heat supply operation condition in site thereby obtain the on-the-spot related data of heat supply in all directions better through the heat supply pressure and temperature that is collected by pressure transducer and temperature sensor like this.
Transport module comprises GPRS modulator-demodular unit and communication server; Because the heating network pipeline is comparatively huge and complicated; Thermal source monitoring point and each user monitoring point distribute and disperse; Thereby be not easy to adopt ADSL or this wired data transmission that is not easy to set up of optical fiber, and the gprs service that is particularly suitable for sudden, frequent low discharge data transmission has satisfied the requirement of the heat supply transmission of Information at the place, monitoring point in the heating network well.In the GPRS modulator-demodular unit, put into one and open the SIM of logical GPRS function; Just can realize being connected between acquisition module and the analyzing stored module through GPRS network; Not only wide, the level security of network coverage well simultaneously can realize that user real time is online, farthest saves cost according to charge on traffic.From the thermal source monitoring point and the heat supply information of the monitoring point that collects, each user monitoring point get into the analyzing stored module through communication server; Simultaneously; Heating enterprise transfers to the GPRS modulator-demodular unit for the control information at scene through the communication server in the transport module; Transfer to the on-the-spot heat exchange station controller of each heat supply of dispersed and distributed by the GPRS modulator-demodular unit through GPRS network again, because each thermal source monitoring point and each user monitoring point SIM number are unique, and the corresponding IP address of each card number; Set up an independently transmission channel, so data can not obscured.
Preferably; Control module comprise a plurality of heat exchange station controllers and respectively with the controlled a plurality of temperature control adjusting valve that are connected of heat exchange station controller; The heat exchange station controller receives after the control information that transport module transmits through regulating the aperture of temperature control adjusting valve, regulates the heat supply of field apparatus.
Preferably; Heat supply monitoring system of the present invention can also comprise display module that the data presentation in the analyzing stored module is come out; Display module comprises web server, LAN client and internet client; Heating enterprise directly through the LAN client in the LAN just can be fast, data in the access analysis memory module in real time monitor the heat supply scene, each user then can conduct interviews through the internet client in the internet.
A kind of heat supply monitoring method of using above-mentioned heat supply monitoring system may further comprise the steps:
The heat supply information at the place, monitoring point in step 1, the acquisition module acquiring heat supply pipe network;
Heat supply information transmission to the analyzing stored module at the place, monitoring point in the heating network that step 2, the every interval of transport module certain hour collect acquisition module;
Step 3, analyzing stored module are called and are calculated what the data of transport module transmission were stored, are scheduled to; Be derived as and differentiate whether rationally the provide support duty parameter of data of operation production status, each result who calculates is analyzed with national normal value and/or historical data respectively, relatively and be stored in the analyzing stored module;
Step 4, display module are received after the call request of LAN client or internet client corresponding invoked data in the display analysis memory module;
Step 5, heating enterprise issue corresponding control information to transport module according to the on-the-spot duty parameter of heat supply in the analyzing stored module of external environment condition and display module demonstration, and transfer to control module by transport module;
After step 6, control module reception are transmitted next control information by transport module, through regulating temperature control adjusting valve field apparatus is controlled according to preset program.
Preferably, transport module the heat supply information in the analyzing stored module of transferring to comprises the instantaneous delivery, integrated flux at place, monitoring point/and accumulation heat in the step 2.
Preferably, the analyzing stored module draws respectively duty parameter according to the difference of the heating agent of heat supply in the step 3, and is stored to respectively in the analyzing stored module.
Preferably, the duty parameter of step 3 kind comprises that instantaneous net decreases, the net in presupposition analysis cycle undermines the road network that transmission causes in the branch road of each transfer conduit and decreases.
Preferably; The control information that transport module transfers in the control module in the step 5 comprises the complement operation information that outdoor temperature and heating enterprise issue; Therefore; The outdoor temperature that storage inside has the control module that combines outdoor temperature that the heat exchange station technological requirement makes with heat exchange station daily management experience and heat supply relation curve just can combine to receive is controlled field apparatus through the adjusting temperature control adjusting valve, thereby automatically adjusts heat supply.Simultaneously, heating enterprise also can issue complement operation information according to situation such as actual heat supply and weather and transfer to control module through transport module, carry out by control module again, thus the adjustment heat supply.
Preferably, the general accuracy rating decision that combines the expense that produces in the transmission course and the need interval time of the transmission of the transport module in step 2 heat supply information; Select every 5-30 minute transmission primaries during for steam for use at heating agent in the present invention; When heating agent is hot water, select every 5-30 minute transmission primaries for use for the hot water primary water, for hot water secondary wet concentration with every 6-12 hour transmission primaries.
Adopt the heat supply monitoring system and the method for invention to have the following advantages:
1, on the basis that the heat supply monitoring system of heat supply network is implemented in full; Set up proprietary data analysis system again; Utilize the teletransmission of heat supply monitoring system that the online in real time data are added up, calculate, analyzed; Draw the heat supply network net at last and decrease and analyze, relatively reach storage, this process is all accomplished by preset Automatic Program, need not manual operations; The higher heat supply monitoring system of this automaticity is added up, is calculated net automatically according to online data and decreases; The relevant data that embodies the on-the-spot real-time production status of heat supply is provided; Speed is fast, accuracy is high, traditional manual calculation is difficult comparablely, has greatly improved efficient.
2, heat supply monitoring system of the present invention is divided for steam and two kinds of condition of different of hot water according to the difference of heating agent and is calculated and analyze; Being divided into the monitoring point according to position, monitoring point difference again always nets at the whole network at thermal source and user place respectively and decreases and decrease at branch road initiating terminal and the terminal road network of branch road respectively the monitoring point; With the presupposition analysis cycle be divided into hour, day, week and calculate that a hour net decreases, a day net decreases, all nets undermine a month net and decrease the moon respectively; With heating agent is that the situation of hot water is subdivided into hot water primary water and the different situations of the hot water secondary water between heat exchange station and the user between thermal source and the heat exchange station again; And calculated flow rate loss of singularity difference and thermal loss to hot water secondary water; Finally compare with above-mentioned net damage value and country or industry standard value or historical data; Draw the heat supply network net and lose unreasonable economic conclusion, methodological science is reasonable and comprehensive, at aspects such as cost, production, science scheduling, production coupling, production safeties strong data support is provided all; To reach energy-saving and cost-reducing, safe and reliable production purpose.
3, heat supply monitoring system of the present invention carries control module; If find that some problems in the operational process can be through the directly adjustment heat supply of setting in the control module automatically of program; Thereby rely on whole heat supply monitoring system to settle a dispute by the parties concerned themselves; Also can add the complement operation information of heating enterprise simultaneously, transfer to control module by transport module and solve jointly, realize the robotization of heating industry, information-based production well.
4, heating enterprise carries out the monitoring of real-time working condition through LAN; The user can realize the visit of real time data through the internet simultaneously; Either party finds that continuous data is undesired and all can deal with problems fast; And no longer rely on the one-sided large-scale investigation of heating enterprise or treat that the user finds that heat supply just solves after unusual, thereby guaranteed and for the client quality services more to be provided.
5, heating enterprise and with can obtaining trade settlement table service data rapidly and accurately per family, the possibility that dispute occurs when greatly reducing trade settlement, guaranteed trade settlement just accurately, reduced abnormal loss.
6, aspects such as required pressure of heat supply and actual pressure imbalance problem, heating network caliber and flow velocity and the unmatched difficult problem of operation; All need utilize the pipe network real data of moving; Heat supply monitoring system of the present invention and method are that production run provides complete online in real time net to decrease analysis; Simplified the investigation process that the heat supply scene goes wrong, also foundation is provided, for further foundation being provided the design of the optimal case of each parameter of heating network for addressing this problem.
7, outdoor temperature is issued through transport module is unified in real time by heating enterprise; And no longer gather separately and regulation and control by each heat exchange station; It is excessive to have overcome ground each heat exchange station measuring point temperature difference; Underground heat exchange station measuring point does not have the difficulty of mounting condition, is beneficial to the realization according to outdoor temperature adjustment heat supply more.
Description of drawings
Fig. 1 is the structural representation of each module among the present invention;
Fig. 2 is the synoptic diagram of the analytic process in the analyzing stored module among the present invention.
Embodiment
Below in conjunction with accompanying drawing the present invention is further specified.
As shown in Figure 1; 1 is the acquisition module of the heat supply information at place, monitoring point preset in the acquiring heat supply pipe network; The heat supply information at the 2 monitoring point places that collect for transmission acquisition module 1 and the transport module of the control information that heating enterprise issues; 3 is the analyzing stored module that the heat supply information that the monitoring point that transmission in the transport module 2 comes is located is stored, calls, calculated and analyze, compares; 5 is the display module that the relevant data presentation in the analyzing stored module 3 is come out, and 4 is the control module of field apparatus being controlled according to the control information that the pre-set programs combination is issued by the next heating enterprise of transport module 2 transmission.Acquisition module 1, transport module 2, analyzing stored module 3 and display module 5 connect in order, and control module 4 picks out, constitutes another branch road arranged side by side from transport module 2.Analyzing stored module 3 comprises database server 301 and is stored in the data base management subsystem in the database server 301.
Acquisition module 1 comprises a plurality of calorimeters 101 that are arranged at each preset monitoring point; Transport module 2 comprises GPRS modulator-demodular unit 201 and communication server 202; Display module 5 comprises web server 501, LAN client 502 and internet client 503, control module 4 comprise a plurality of heat exchange station controllers 401 and respectively with the heat exchange station controller 401 controlled a plurality of temperature control adjusting valve 402 that are connected.
First kind of embodiment:
The heating agent of heat supply is a steam; At this moment; Acquisition module 1 can also comprise the pressure transducer of gathering place, monitoring point vapor pressure and the temperature sensor of gathering place, monitoring point vapor (steam) temperature, uses the heat supply monitoring method of heat supply monitoring system of the present invention, may further comprise the steps:
The instantaneous delivery and the integrated flux of the steam at the place, monitoring point in step 1, the acquisition module 1 acquiring heat supply pipe network, simultaneously collected vapor pressure that also comprises the place, monitoring point and vapor (steam) temperature etc.;
The instantaneous delivery and the integrated flux of the steam at the place, monitoring point that step 2, transport module 2 every 5-30 minute collect acquisition module 1 are sent to analyzing stored module 3, and what be transmitted simultaneously also comprises vapor pressure and the vapor (steam) temperature that pressure transducer and temperature sensor by the place, monitoring point collect;
Each data that step 3,3 storages of analyzing stored module are come by transport module 2 transmission; And to the instantaneous delivery of steam and integrated flux calls and predetermined calculating, be derived as and differentiate the operation production status and whether provide support rationally that the steam instantaneous delivery net of data decreases and steam presupposition analysis cycle flow network decreases and storage; Wherein, Steam instantaneous delivery net decreases the total steam instantaneous delivery net of the whole network can be subdivided into whole heating network again and decreases and judge that the steam instantaneous delivery net of the branch road of each branch road operation conditions in the whole heating network transfer conduit decreases, and steam presupposition analysis cycle flow network decreases and can be subdivided into again that the total steam presupposition analysis cycle flow network of the whole network decreases and the steam presupposition analysis cycle flow network of branch road decreases; Computing method with online damage value are following:
1) steam instantaneous delivery net decreases
G=h-i ... (formula 101)
G '=h '-i ' ... (formula 102)
k = g - g ′ g × 100 % (formula 1)
K be the whole network total/the steam instantaneous delivery net of branch road decreases; G is the steam instantaneous delivery of the monitoring point of thermal source place/branch road initiating terminal; G ' for user place/the steam instantaneous delivery of the terminal monitoring point of branch road; H is the summation of steam instantaneous delivery of the monitoring point of each thermal source place/branch road initiating terminal; H ' for each user place/summation of the steam instantaneous delivery of the terminal monitoring point of branch road; Thereby i is the monitoring point of thermal source place/branch road initiating terminal do not upload data in 25 minutes thereby cause thermal source in the analyzing stored module 3/database of branch road initiating terminal do not upgrade obtain still for the data of last storage added by mistake h thermal source/the invalid steam instantaneous delivery of branch road initiating terminal; Thereby i ' for user place/the terminal monitoring point of branch road do not upload data in 25 minutes thereby cause user in the analyzing stored module 3/the terminal database of branch road do not upgrade obtain still for the data of last storage added by mistake h ' the user/the terminal invalid steam instantaneous delivery of branch road
2) steam presupposition analysis cycle flow network decreases
Steam presupposition analysis cycle flow network decreases and can calculate according to dual mode,
The mode I: system software calculates presupposition analysis total integrated flux in the cycle according to instantaneous delivery, and calculation of steam presupposition analysis cycle flow network decreases again.
a = b ( 60 / n ) (formula 201)
a ′ = b ′ ( 60 / n ) (formula 202)
f = a - a ′ a × 100 % (formula 2)
F be the whole network total/the steam presupposition analysis cycle flow network of branch road decreases; A is that the monitoring point of thermal source place/branch road initiating terminal is at presupposition analysis total steam integrated flux in the cycle; A ' for user place/the terminal monitoring point of branch road is at presupposition analysis total steam integrated flux in the cycle; N is that acquisition module 1 and transport module 2 gathered and promptly gather transmission cycle the interval time of the heat supply information at transmission of monitoring point place, and n value between 5-30, b be the thermal source place/monitoring point of branch road initiating terminal is in the summation of every n minute the steam instantaneous delivery of presupposition analysis in the cycle; B ' for user place/summation at every n minute the steam instantaneous delivery of presupposition analysis in the cycle of the terminal monitoring point of branch road; This kind method be used for more the cumulative flow value unusually often, can not guarantee normal demonstration, influence net decreases situation about calculating
The mode II: the integrated flux that the transport module that directly utilizes the analyzing stored module to receive transmits carries out the calculating of the steam net damage value in presupposition analysis cycle
j = ( c - d + e ) - ( c ′ - d ′ + e ′ ) c - d + e × 100 % (formula 3)
J be the whole network total/the steam presupposition analysis cycle flow network of branch road decreases; C is the steam integrated flux of the monitoring point of thermal source place/branch road initiating terminal at the start time point in this presupposition analysis cycle; C ' for user place/the terminal monitoring point of branch road is at the steam integrated flux of the start time point in this presupposition analysis cycle; D is the steam integrated flux of the monitoring point of thermal source place/branch road initiating terminal at the start time point in last presupposition analysis cycle; D ' for user place/the terminal monitoring point of branch road is at the steam integrated flux of the start time point in last presupposition analysis cycle; E is the summation of the monitoring point of thermal source place/branch road initiating terminal at the steam compensating flowrate of this presupposition analysis in the cycle, e ' for user place/the terminal monitoring point of branch road is in the summation of the steam compensating flowrate of this presupposition analysis in the cycle
When the calorimeter in the acquisition module 1 101 is examined and determine, is keeped in repair in year or changes; Be not equipped with in table or the new table if the integrated flux in the former table is inserted; Perhaps when recovering former measuring instrument; New cumulative flow value is not inserted; The cumulative flow value that is collected by acquisition module can produce significantly fluctuation; Address this problem with offset this moment, and the basis for estimation that the compensation incident takes place is following
The compensation incident takes place during as
E=∑ (m-p) ... (formula 301)
The compensation incident takes place when
E '=∑ (m '-p ') ... (formula 302)
M is the steam integrated flux of the monitoring point of thermal source place/branch road initiating terminal at presupposition analysis preceding last collection transmission cycle of compensation incident generation in the cycle; Last gathers the steam integrated flux of transmission cycle to m ' before the generation of compensation incident in cycle at presupposition analysis for the terminal monitoring point of user's place/branch road; P is the steam integrated flux that first collection transmission cycle of back takes place in the compensation incident in the monitoring point of thermal source place/branch road initiating terminal; First gathers the steam integrated flux of transmission cycle to p ' for the terminal monitoring point of user's place/branch road in the compensation incident back takes place
The presupposition analysis cycle can be hour, day, month; Therefore; The total steam presupposition analysis cycle flow network of the whole network of correspondence decreases and is respectively the total steam of the whole network hour flow network damage, the total all flow network damages of the steam that steam daily flow net decreases, the whole network is total, the total steam moon flow network of the whole network of the whole network decreases, and the steam presupposition analysis cycle flow network damage of branch road is then corresponding to have comprised that the steam hour flow network damage of branch road, the steam daily flow net damage of branch road, the steam week flow network damage of branch road, the steam moon flow network of branch road decrease;
Because the personnel of heating enterprise outfit at night are less; Thereby a lot of problems can be accumulated to the working time of next day and solve, therefore when carrying out the calculating that day net decreases can with the acquisition time point by 0 o'clock of start time point every day in each presupposition analysis cycle change into the morning 9 between 11 o'clock;
As shown in Figure 2; The steam presupposition analysis cycle flow network damage value that the whole network that calculates in the analyzing stored module 3 is total compares with corresponding national (industry) standard value: normal if the total steam presupposition analysis cycle flow network damage value of the whole network is not more than country's then heat supply field working conditions of (industry) standard value, need not to adjust; If greater than country's (industry) standard value, then combining the steam presupposition analysis cycle flow network of branch road to decrease, the total steam presupposition analysis cycle flow network damage value of the whole network analyzes; If it is unusual to find that the steam presupposition analysis cycle flow network of certain branch road in the heating network transfer conduit decreases; The corresponding historical data that the heat supply information that then each place, monitoring point on this branch road is collected by acquisition module 1 is stored in it respectively in the analyzing stored module 3 compare; If find that the heat supply information change amplitude at place, a certain monitoring point is bigger; Go to the bigger monitoring point of this fluctuating range to check before then can sending the operational management personnel in the zone of being responsible for this branch road place; Judgement is that the calorimeter 101 at place, this monitoring point nature occurs and damages and cause measuring inaccurate problem or heat, the relevant WT-MSR of artificial destruction are stolen by enterprise, does not check then whether near the pipe network inspection the bigger monitoring point of heat supply information change amplitude takes place to leak and overhaul if calorimeter 101 all is damaged; Compare all comparatively stable if the steam presupposition analysis cycle flow network of all branch roads decreases with its historical data that is stored in the analyzing stored module 3; The corresponding historical data that then the heat supply information that is collected by acquisition module 1 that will not only belong to the place, monitoring point on any branch road at the total net of heat supply are stored in it respectively in the analyzing stored module 3 compare; Here with the investigation basically identical of branch road; If certain monitoring point fluctuating range goes to the calorimeter place of monitoring point to check before then sending the operational management personnel greatly, whether near the pipe network inspection if calorimeter 101 all is not damaged the then inspection takes place to leak and overhaul; Need not investigating one by one of heating network the whole network on the spot, improved efficient largely;
The situation of the production run that above-mentioned analysis draws can be stored to said analyzing stored module 3 in the lump;
Step 4, display module 5 are received after the call request of LAN client 502 or internet client 503 invoked data in the display analysis memory module 3;
Step 5, heating enterprise issue corresponding control information to transport module 2 according to the on-the-spot duty parameter of heat supply in the analyzing stored module 3 of external environment condition and display module 5 demonstrations, and are transferred in the control module 4 by transport module 2;
Step 6, control module 4 receptions are controlled through regulating 402 pairs of field apparatus of temperature control adjusting valve based on preset program after transmitting next heat supply information and control information by transport module 2.
Second kind of embodiment:
The heating agent of heat supply is a hot water; Wherein, between thermal source and the heat exchange station is the hot water primary water, and between heat exchange station and the user is hot water secondary water; At this moment; Acquisition module 1 can also comprise the heat hydraulic pressure's who gathers the place, monitoring point pressure transducer and the temperature sensor of gathering the hot water temperature, uses the heat supply monitoring method of heat supply monitoring system of the present invention, may further comprise the steps:
The heat supply information at place, monitoring point in step 1, the acquisition module 1 acquiring heat supply pipe network, with heating agent be steam different be the heat supply this moment information instantaneous delivery that not only comprises the hot water primary water, integrated flux, accumulation heat that integrated flux also comprises hot water secondary water and reach the hot water temperature who collects by temperature sensor with hot water primary water and the corresponding place, monitoring point of hot water secondary water by the heat hydraulic pressure that pressure transducer collects respectively;
The instantaneous delivery and the integrated flux of the hot water primary water at the place, monitoring point that step 2, transport module 2 every N minute collect acquisition module 1 are sent to analyzing stored module 3, and integrated flux and accumulation heat (hot water secondary cycle integrated flux and hot water secondary cycle accumulation heat) with the hot water secondary water at place, monitoring point transferred to analyzing stored module 3 in transport module 2 every 6-12 hours; Be transferred to corresponding with hot water primary water and the hot water secondary water respectively pressure of also having of analyzing stored module 3, temperature etc. simultaneously;
Each data that step 3,3 storages of analyzing stored module are come by transport module 2 transmission; And the integrated flux and the accumulation heat of the instantaneous delivery of hot water primary water and integrated flux, hot water secondary water called and predetermined calculating, be derived as differentiate whether the operation production status provides support rationally that the hot water primary water instantaneous delivery net of data decreases, hot water primary water presupposition analysis cycle flow network decreases, hot water secondary water presupposition analysis cycle flow network undermines that hot water secondary water presupposition analysis cycle heat net decreases and storage; Wherein, Hot water primary water instantaneous delivery net decreases the total hot water primary water instantaneous delivery net of the whole network can be subdivided into whole heating network again and decreases and judge that the hot water primary water instantaneous delivery net of the branch road of the branch road of each branch road operation conditions in the transfer conduit decreases, hot water primary water presupposition analysis cycle flow network decrease that the total hot water primary water presupposition analysis cycle flow network of the whole network that can be subdivided into whole heating network again decreases and the heating network branch road in the hot water primary water presupposition analysis cycle flow network of branch road decrease; Computing method with online damage value are following:
1) hot water primary water instantaneous delivery net decreases
G=H-I ... (formula 401)
G '=H '-I ' ... (formula 402)
K = G - G ′ G × 100 % (formula 4)
K be the whole network total/the hot water primary water instantaneous delivery net of branch road decreases; G is the hot water primary water instantaneous delivery of the monitoring point of thermal source place/branch road initiating terminal; G ' for user place/the hot water primary water instantaneous delivery of the terminal monitoring point of branch road; H is the summation of hot water primary water instantaneous delivery of the monitoring point of each thermal source place/branch road initiating terminal; H ' for each user place/summation of the hot water primary water instantaneous delivery of the terminal monitoring point of branch road; Thereby I is the monitoring point of thermal source place/branch road initiating terminal do not upload data in 25 minutes thereby cause thermal source in the analyzing stored module 3/database of branch road initiating terminal do not upgrade obtain still for the data of last storage added by mistake H thermal source/the invalid hot water primary water instantaneous delivery of branch road initiating terminal; Thereby I ' for user place/the terminal monitoring point of branch road do not upload data in 25 minutes thereby cause user in the analyzing stored module 3/the terminal database of branch road do not upgrade obtain still for the data of last storage added by mistake H ' the user/the terminal invalid hot water primary water instantaneous delivery of branch road
2) hot water primary water presupposition analysis cycle flow network decreases
Hot water primary water presupposition analysis cycle flow network decreases and can calculate according to dual mode,
The mode I: system software calculates presupposition analysis total integrated flux in the cycle according to instantaneous delivery, and calculate hot water primary water presupposition analysis cycle flow network again and decrease,
A = B ( 60 / N ) (formula 501)
A ′ = B ′ ( 60 / N ) (formula 502)
F = A - A ′ A × 100 % (formula 5)
F be the whole network total/the hot water primary water presupposition analysis cycle flow network of branch road decreases; A is that the monitoring point of thermal source place/branch road initiating terminal is at presupposition analysis total hot water primary water integrated flux in the cycle; A ' for user place/the terminal monitoring point of branch road is at presupposition analysis total hot water primary water integrated flux in the cycle; N promptly gathers transmission cycle the interval time of the heat supply information at acquisition module 1 and transport module 2 collections and transmission of monitoring point place; And N is value between 5-30; B is the summation of the monitoring point of thermal source place/branch road initiating terminal at every N minute the hot water primary water instantaneous delivery of presupposition analysis in the cycle, B ' for user place/summation at every N minute the hot water primary water instantaneous delivery of presupposition analysis in the cycle of the terminal monitoring point of branch road
The mode II: the integrated flux that the transport module that directly utilizes the analyzing stored module to receive transmits carries out the calculating of a network of rivers of the hot water damage value in presupposition analysis cycle
J = ( C - D + E ) - ( C ′ - D ′ + E ′ ) C - D + E × 100 % (formula 6)
J be the whole network total/the hot water primary water presupposition analysis cycle flow network of branch road decreases; C is the hot water primary water integrated flux of the monitoring point of thermal source place/branch road initiating terminal at the start time point in this presupposition analysis cycle; C ' for user place/the terminal monitoring point of branch road is at the hot water primary water integrated flux of the start time point in this presupposition analysis cycle; D is the hot water primary water integrated flux of the monitoring point of thermal source place/branch road initiating terminal at the start time point in last presupposition analysis cycle; D ' for user place/the terminal monitoring point of branch road is at the hot water primary water integrated flux of the start time point in last presupposition analysis cycle; E is the summation of the monitoring point of thermal source place/branch road initiating terminal at the hot water primary water compensating flowrate of this presupposition analysis in the cycle; E ' for user place/the terminal monitoring point of branch road is in the summation of the hot water primary water compensating flowrate of this presupposition analysis in the cycle
When the calorimeter in the acquisition module 1 101 is examined and determine, is keeped in repair in year or changes; Be not equipped with in table or the new table if the integrated flux in the former table is inserted; Perhaps when recovering former measuring instrument; New cumulative flow value is not inserted; The cumulative flow value that is collected by acquisition module can produce significantly fluctuation; Address this problem with offset this moment, and the basis for estimation that the compensation incident takes place is following
The compensation incident takes place during as
Figure BDA00001718717500162
E=∑ (M-P) ... (formula 601)
The compensation incident takes place during as
Figure BDA00001718717500171
E '=∑ (M '-P ') ... (formula 602)
M is the hot water primary water integrated flux of the monitoring point of thermal source place/branch road initiating terminal at presupposition analysis preceding last collection transmission cycle of compensation incident generation in the cycle; Last gathers the hot water primary water integrated flux of transmission cycle to M ' before the generation of compensation incident in cycle at presupposition analysis for the terminal monitoring point of user's place/branch road; P is the hot water primary water integrated flux that first collection transmission cycle of back takes place in the compensation incident in the monitoring point of thermal source place/branch road initiating terminal; First gathers the hot water primary water integrated flux of transmission cycle to P ' for the terminal monitoring point of user's place/branch road in the compensation incident back takes place
3) hot water secondary water presupposition analysis cycle flow network decreases
Hot water secondary water is different with steam and hot water primary water; The more huge and more dispersion that distributes of the quantity of the monitoring point of hot water secondary water; And the flow of each monitoring point of hot water secondary water is comparatively stable; Therefore the on-the-spot data frequency of transport module transmission heat supply need be not same with hot water secondary water and vapor phase; Integrated flux with the hot water secondary water at place, monitoring point transferred to the needs that the analyzing stored module can satisfy monitoring in the every 6-12 of transport module hour, and the analyzing stored module is carried out the calculating that hot water secondary water presupposition analysis cycle flow network decreases, and computing method are following:
Q = ( R - S ) - ( R ′ - S ′ ) R - S × 100 % (formula 6)
Q is that hot water secondary water presupposition analysis cycle flow network decreases; R is the hot water secondary water cycle integrated flux of the monitoring point at heat exchange station place at the start time point in presupposition analysis cycle; R ' is the monitoring point at the user place hot water secondary water cycle integrated flux at the start time point in presupposition analysis cycle; S is the hot water secondary water cycle integrated flux of the monitoring point at heat exchange station place at the start time point in last presupposition analysis cycle, and S ' is the monitoring point at the user place hot water secondary water cycle integrated flux at the start time point in last presupposition analysis cycle;
The judgement that the incident that in the calculating that the flow network of hot water secondary water decreases, no longer need compensate takes place and the calculating of offset; Because of the monitoring point quantity in the hot water secondary grid huge and calorimeter 101 maintenances take place or the frequency changed lower; Even this thing happens; The variation of the integrated flux of the monitoring point of minority is also less to the influence of the numerical value generation of huge integral body, need not to count in the net damage value of hot water secondary water
4) hot water secondary water day heat net decreases
The computing method of decreasing with the flow network of hot water secondary water are similar; Accumulation heat with the hot water secondary water at place, monitoring point transferred to analyzing stored module and storage of being scheduled to and calculating in the every 6-12 of transport module hour, and the value of calculating comprises that hot water secondary water presupposition analysis cycle heat net decreases; Computing method with online damage value are following:
U = ( V - W ) - ( V ′ - W ′ ) V - W × 100 % (formula 6)
U is that hot water secondary water presupposition analysis cycle heat net decreases; V is the hot water secondary cycle accumulation heat of the monitoring point at heat exchange station place at the start time point in presupposition analysis cycle; V ' accumulates heat for the monitoring point at user place in the hot water secondary water cycle of the start time point in presupposition analysis cycle; W is the hot water secondary water cycle accumulation heat of the monitoring point at heat exchange station place at the start time point in last presupposition analysis cycle, and W ' accumulates heat for the monitoring point at user place in the hot water secondary water cycle of the start time point in last presupposition analysis cycle;
The compute classes of decreasing with the flow network of hot water secondary water seemingly, the heat net of hot water secondary water decreases and also need not the judgement that the incident that compensates takes place and the calculating of offset;
The presupposition analysis cycle can be hour, day, month; Therefore; The total hot water primary water presupposition analysis cycle flow network of corresponding the whole network decreases and is respectively the total hot water primary water of the whole network hour flow network damage, the total moon in water flow network of hot water that the hot water primary water that hot water primary water daily flow net decreases, the whole network is total week flow network decreases, the whole network is total of the whole network decreases; The corresponding hot water primary water hour flow network damage of branch road, the hot water primary water daily flow net damage of branch road, the hot water primary water week flow network damage of branch road, the moon in water flow network of hot water of branch road of having comprised of the hot water primary water presupposition analysis cycle flow network damage of branch road decreases; Hot water secondary water presupposition analysis cycle flow network decreases correspondence and has comprised that hot water secondary water daily flow net damage, all flow networks of hot water secondary water decrease, hot water secondary moon in water flow network decreases, and hot water secondary water presupposition analysis cycle heat net decreases correspondence and comprised that hot water secondary water day heat net damage, all heat nets of hot water secondary water decrease, hot water secondary moon in water heat net decreases;
With heating agent be that the situation of steam is similar; Because the personnel of heating enterprise outfit at night are less; Thereby a lot of problems can be accumulated to the working time of next day and solve, therefore when carrying out the calculating that day net decreases can with the acquisition time point by 0 o'clock of start time point every day in each presupposition analysis cycle change into the morning 9 between 11 o'clock;
Heating agent be hot water analytic process and step 4, five and heating agent be the basic identical of steam, repeat no more at this;
Step 6, control module 4 receptions are controlled through regulating 402 pairs of field apparatus of temperature control adjusting valve based on preset program after transmitting next heat supply information and control information by transport module 2:
The outdoor temperature that the experience that combines heat exchange station technological requirement and heat exchange station daily management is made and the relation curve of heat supply are stored in the control module 4, thereby adjust heat supply by the aperture of the control module 4 outdoor temperature auto-control temperature control adjusting valve 402 that unification in real time issues according to the heating enterprise that receives then; Simultaneously; For same outdoor temperature; Cloudy day and blow the weather of northwester and the weather of sunny sun Gao Zhao; Human feeling's difference, heating enterprise just can be revised outdoor temperature through heat supply monitoring system of the present invention neatly, carry out temperature compensation or directly issue complement operation information transferring to control module 4 by transport module 2 and regulating.
The calculating that be to cooperate net to decrease, measuring instrument is in year calibrating, maintenance or when changing, and the integrated flux of former table inserted be equipped with in the table, when recovering former measuring instrument, new cumulative flow value inserted, and so just can reduce the workload of the judgement and the calculating of compensation incident.
More than two kinds of embodiments be two kinds of situation that heating agent is respectively steam and hot water; If occur in the heat supply; As: need transfer steam to situation that hot water carries out heat supply; Then only need in steam pipe system, to add the steam-water heat exchanging station, this moment the branch road at this place, steam-water heat exchanging station is carried out computational analysis as a user and get final product, or the combination heating agent is that two kinds of situation of steam and hot water are carried out computational analysis.
The above only is a preferred implementation of the present invention, should be pointed out that for those skilled in the art, under the prerequisite that does not break away from the principle of the invention, can also make some improvement, and these improvement also should be regarded as protection scope of the present invention.

Claims (10)

1. heat supply monitoring system; Comprise in the acquiring heat supply pipe network heat supply information at preset place, monitoring point acquisition module (1), transmit the said heat supply transmission of Information module (2) that said acquisition module (1) collects, it is characterized in that: the control module (4) that also comprises analyzing stored module (3) that the said heat supply information of transmission in the said transport module (2) is stored, calls, calculated and analyzes and combine according to pre-set programs field apparatus to be controlled by the control information that the heating enterprise that said transport module (2) transmission comes issues; Said acquisition module (1), transport module (2) and analyzing stored module (3) connect in order, and said control module (4) picks out, constitutes another branch road arranged side by side from said transport module (2); Said analyzing stored module (3) comprises database server (301) and is stored in the data base management subsystem in the said database server (301).
2. heat supply monitoring system according to claim 1 is characterized in that: said acquisition module (1) comprises a plurality of calorimeters (101) that are arranged at each preset monitoring point.
3. heat supply monitoring system according to claim 1 is characterized in that: said transport module (2) comprises GPRS modulator-demodular unit (201) and communication server (202).
4. heat supply monitoring system according to claim 1 is characterized in that: said control module (4) comprise a plurality of heat exchange station controllers (401) and respectively with the controlled a plurality of temperature control adjusting valve (402) that are connected of said heat exchange station controller (401).
5. according to each described heat supply monitoring system in the claim 1 to 4; It is characterized in that: said heat supply monitoring system also comprises display module (5) that the data presentation in the said analyzing stored module (3) is come out, and said display module (5) comprises web server (501), LAN client (502) and internet client (503).
6. a heat supply monitoring method of using the described heat supply monitoring system of claim 5 is characterized in that, may further comprise the steps:
Said heat supply information in step 1, said acquisition module (1) the acquiring heat supply pipe network;
Said heat supply information transmission to the said analyzing stored module (3) that step 2, the every interval of said transport module (2) certain hour collect said acquisition module (1);
Step 3, said analyzing stored module (3) are stored, are called and calculate the data of said transport module (2) transmission; Be derived as and differentiate whether rationally the provide support duty parameter of data of operation production status, each result who calculates is analyzed with national normal value and/or historical data respectively, relatively and be stored in the said analyzing stored module (3);
Step 4, said display module (5) show invoked data in the said analyzing stored module (3) after receiving the call request of LAN client (502) or internet client (503);
Step 5, heating enterprise issue corresponding control information to said transport module (2) according to the on-the-spot said duty parameter of heat supply in the said analyzing stored module (3) of external environment condition and said display module (5) demonstration, and transfer to said control module (4) by said transport module (2);
After step 6, said control module (4) reception are transmitted next said control information by said transport module (2), through regulating said temperature control adjusting valve (402) field apparatus is controlled according to preset program.
7. heat supply monitoring method according to claim 6 is characterized in that: transport module described in the step 2 (2) the said heat supply information in the said analyzing stored module (3) of transferring to comprises the instantaneous delivery, integrated flux at place, monitoring point/and accumulation heat.
8. heat supply monitoring method according to claim 6 is characterized in that: the module of analyzing stored described in the step 3 (3) draws corresponding separately said duty parameter according to the difference of the heating agent of heat supply, and is stored to respectively in the said analyzing stored module (3).
9. heat supply monitoring method according to claim 6 is characterized in that: duty parameter described in the step 3 comprises that instantaneous net decreases, the net in presupposition analysis cycle undermines the road network that transmission causes in the branch road of each transfer conduit and decreases.
10. heat supply monitoring method according to claim 6 is characterized in that: the said control information that transport module described in the step 5 (2) transfers in the said control module (4) comprises the complement operation information that outdoor temperature and heating enterprise issue.
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