CN202119044U - Mixing type ground source heat pump monitoring system based on health evaluation technology - Google Patents

Mixing type ground source heat pump monitoring system based on health evaluation technology Download PDF

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CN202119044U
CN202119044U CN2011202490581U CN201120249058U CN202119044U CN 202119044 U CN202119044 U CN 202119044U CN 2011202490581 U CN2011202490581 U CN 2011202490581U CN 201120249058 U CN201120249058 U CN 201120249058U CN 202119044 U CN202119044 U CN 202119044U
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徐坚
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Abstract

The utility model belongs to the technical field of ground source heat pump monitoring, relates to a mixing type ground source heat pump monitoring system based on the health evaluation technology and a method, and solves problems that monitoring and development of control technology of the existing ground heat pump mixing system are not perfect and the like. The monitoring system comprises a monitoring subsystem, a loading forecasting subsystem and a health evaluation subsystem. The health evaluation subsystem is connected with the control subsystem. The monitoring method is that data are collected by the monitoring subsystem and stored in a data storage. The loading forecasting subsystem extracts data collected by the monitoring subsystem and is loaded to forecast, and loading forecasted data are stored in the data storage. The health evaluation subsystem stores health index to the data storage and controls the subsystem to conduct corresponding control. The mixing type ground source heat pump monitoring system based on the health evaluation technology has the advantages of evaluating health condition reasonably, improving system automation, reducing management labor intensity, guaranteeing cold-hot balance of long-time running of the system, guaranteeing that economical efficiency is met when the system is under the condition of short-time running, and the like.

Description

Hybrid earth source heat pump monitoring system based on the health evaluating technology
Technical field
The utility model belongs to geothermal heat pump air-conditioner monitoring technique field, relates to hybrid earth source heat pump central air conditioner system, especially relates to a kind of hybrid earth source heat pump monitoring system based on the health evaluating technology.
Background technology
Because the otherness of weather, soil characteristic and the building type of various places; Single earth-source hot-pump system often can not be suitable for; Thereby need suit measures to local conditions, integrated use solar energy, wind energy, surface water, shallow layer geothermal energy equal energy source are set up optimum heating ventilation air-conditioning system solution.The greatest problem of this type design is the operation control in later stage, to different condition, need select energy saving, economy, comfortableness, all good operation control strategies of reliability for use.But the monitoring system research of earth source heat pump does not also cause enough attention, makes a general survey of domestic and international present Research, and the monitoring of earth source heat pump hybrid system and control technology development are all perfect inadequately.At present, domestic monitoring and control about the earth source heat pump hybrid system also only is in the desk study stage, and all there is certain weak point in existing achievement.
The Chinese patent document discloses a kind of earth source heat pump central air-conditioning remote information monitoring system and method [application number: CN200910089636.7] thereof; This system is made up of central air-conditioning unit data collection station, grid and monitoring center; Central air-conditioning unit data collection station is responsible for gathering the real-time parameter of central air-conditioning unit operation; And, transfer to monitoring center via grid.This scheme has also proposed a kind of method of utilizing said system that the central air conditioning group is monitored simultaneously.Such scheme has been realized concentrated supervision and the control to the central air conditioner system operational factor, can accomplish on-the-spot unmanned, improves economic benefit of enterprises.Yet such scheme is primarily aimed at single geothermal heat pump air-conditioning system, and in the practical engineering application, the hybrid earth-source hot-pump system of more employing is so the practical popularization significance of this invention is little.
People such as Zhang Xiaoli have proposed to solve traditional earth source heat pump monitoring through controller, touch screen technology and internet configuration software The Application of Technology in " based on research of earth source heat pump long distance control system and the realization of WebAccess "; This method has improved the automaticity of system; Promoted the ability of man-machine interaction aspect, made user's operational system according to actual needs.People such as Song Zhenlong propose to utilize LabVIEW to realize the long distance control system of earth source heat pump unit equipment in " based on the earth source heat pump unit equipment long distance control system of LabVIEW "; Advantages such as it is easy to operate, flexible scalable that this remote monitoring and controlling system has; The user no longer uses telephone report unit data, has improved operating efficiency greatly.But two kinds of control methods all are the method for supervising to single geothermal heat pump air-conditioning system, and dissemination is little, and does not all provide the appraisal procedure of earth-source hot-pump system operation conditions, so be difficult to the control target of the system that reaches.
Summary of the invention
The purpose of the utility model is to the problems referred to above, provides a kind of and can realize real-time adjustment, the hybrid earth source heat pump monitoring system based on the health evaluating technology of holding the best adjustment time.
For achieving the above object; The utility model has adopted following technical proposal: this is based on the hybrid earth source heat pump monitoring system of health evaluating technology; It is characterized in that; This monitoring system comprises the monitoring subsystem that can monitor hybrid earth source heat pump working condition and/or hybrid earth source heat pump working environment; Can obtain the real-time Monitoring Data of monitoring subsystem and/or the load prediction subsystem of data of weather forecast and the hybrid earth source heat pump load of the above-mentioned data prediction of foundation; Thereby the health evaluating subsystem that the load prediction data that can obtain historical Monitoring Data and the load prediction subsystem of monitoring subsystem are assessed the work health status of hybrid earth source heat pump, described health evaluating subsystem with can control hybrid earth source heat pump according to the health index of health evaluating subsystem and adjust the RACS of duty in real time and link to each other.
In above-mentioned hybrid earth source heat pump monitoring system based on the health evaluating technology; Described monitoring subsystem comprises some sensors; Described sensor links to each other with communication apparatus; Described communication apparatus links to each other with host computer through wired or wireless communication modes, on host computer, is connected with data storage.
In above-mentioned hybrid earth source heat pump monitoring system based on the health evaluating technology, described sensor comprises the flow sensor that can detect ground pipe laying flow, can detect the ground pipe laying import and export the temperature sensor of water temperature, can detect the underground temperature temperature sensor, can detect the temperature sensor of outdoor temperature and can detect in the humidity sensor of outside humidity any one or multiple.
In above-mentioned hybrid earth source heat pump monitoring system based on the health evaluating technology; Described load prediction subsystem comprises the load prediction module; On the load prediction module, be connected with weather forecast input module and above-mentioned data storage, described data storage links to each other with the health evaluating subsystem.
In above-mentioned hybrid earth source heat pump monitoring system based on the health evaluating technology; Described monitoring subsystem comprises that also can detect auxiliary Cooling and Heat Source accumulates the open-interval timing module in the unit interval, and described timing module is connected with data storage.
In above-mentioned hybrid earth source heat pump monitoring system based on the health evaluating technology; Described RACS respectively with source pump, the auxiliary Cooling and Heat Source switching mechanism of ground pipe laying switching mechanism and auxiliary Cooling and Heat Source of pipe laying link to each other, described auxiliary Cooling and Heat Source comprise in cooling tower, solar facilities, ice cold-storage apparatus and the surface water equipment any one or multiple.
A kind of hybrid earth source heat pump method for supervising based on the health evaluating technology is characterized in that, is regularly gathered each association of hybrid earth source heat pump and/or hybrid each association of earth source heat pump working environment and is deposited in data storage by monitoring subsystem; Regularly extract the history that the monitoring subsystem in the data storage collects by the load prediction subsystem and detect data and combine weather forecast information to carry out load prediction, deposit the load prediction data in above-mentioned data storage then; Carry out each item assessment by the health evaluating subsystem real-time detection data that regularly the extraction monitoring subsystem collects from data storage and deposit health index in data storage then; The regular accesses data memory of RACS is also made control corresponding according to the load prediction data that the health index of health evaluating subsystem and load prediction subsystem generate to hybrid earth source heat pump.
In the above-mentioned hybrid earth source heat pump method for supervising based on the health evaluating technology, described load prediction subsystem draws the heat of hybrid earth source heat pump on the same day: Q according to the data of monitoring subsystem collection n=C ρ V (T Ni-T No);
Wherein, Q nFor working as world source heat; C ρ is the product of specific heat of water and density; T NiBe ground source inflow temperature; T NoBe ground source leaving water temperature; V nBe ground source flow;
The heat that combines the next workaday hybrid earth source heat pump of weather forecast information prediction then: Q ( n + 1 ) f = Q n * Temp ( n + 1 ) f Temp n * C w ;
Wherein, Q (n+1) fHeat predicted value for the workaday earth source heat pump of the next one; Q nFor working as world source heat; Temp (n+1) fIt is the representation temperature of weather forecast in second day; Temp (n+1) fMean value for forecast maximum temperature on the same day and minimum temperature; C wBe weather conditions correction factor on next working day, wherein C when raining heavyly wBe not more than 0.75, C during moderate rain wBe not more than 0.8, C during light rain wBe not more than 0.85, the C during cloudy day wBe not more than 0.9, C when cloudy wBe not more than 0.95, C when fine wBe 1.
In above-mentioned hybrid earth source heat pump method for supervising based on the health evaluating technology, described health index full marks are that 100 minutes and the hybrid earth source heat pump of the high more representative of score value are more healthy, and the computing formula of health index is: H n + 1 = T Ow - T No T Ow - T Ob * 100 C t + Q n - Q ( n + 1 ) f Q n * 100 C q + T Ns ′ - T Ns T Ns ′ - T Nsb * 100 C Ts ′ + 24 - t Nf 24 * 100 C f ; Wherein,
Figure BSA00000538125300043
Be short-period fluctuation item, T ObBe best outlet temperature, be 22-28 summer, and be 12-18 winter; T OwBe the poorest outlet temperature, be 28-32 summer, and be 4-6 winter; T NoBe current outlet temperature;
Figure BSA00000538125300051
Be load change item, Q nBe work at present daily load, Q (n+1) fBe next load prediction on working day value;
Figure BSA00000538125300052
Be long-term change item, T ' NsBe the soil moisture of the same period last one year, T NsBe the current soil moisture, T NsbBe the best soil temperature, be 14-16 summer, and be 24-26 winter;
Figure BSA00000538125300053
Be auxiliary Cooling and Heat Source change item, t NfIt is the auxiliary Cooling and Heat Source accumulation opening time in 24 hours;
Above-mentioned C t, C q, C ' TsAnd C fBe respectively the weight factor of short-period fluctuation item, load change item, long-term change item and auxiliary Cooling and Heat Source change item, above-mentioned C t, C q, C ' TsAnd C fSum is 1, and 0.4≤C t≤0.5,0.25≤C q≤0.35,0.15≤C ' Ts≤0.25,0.05≤C f≤0.15.
In above-mentioned hybrid earth source heat pump method for supervising based on the health evaluating technology; Described RACS is confirmed control strategy according to the designing requirement of hybrid earth source heat pump, and according to the operation of health index and the hybrid earth source heat pump of control strategy real-time regulated.
Compared with prior art; This advantage based on the hybrid earth source heat pump monitoring system of health evaluating technology is: can be through hybrid earth source heat pump is monitored and controlled; The operation of dynamic debugging system makes system under various situation, can reach design parameter and with mode operation the most reliably, guarantees the result of use of system; The automatization level of raising system reduces management labour intensity.Cold and hot balance under the assurance system long-time running condition; The assurance system satisfies economy under the short-term operation condition.
Description of drawings
Fig. 1 is the structural representation that the utility model provides.
Among the figure, monitoring subsystem 1, communication apparatus 10, flow sensor 11, temperature sensor 12, humidity sensor 13, load prediction subsystem 2, load prediction module 21, weather forecast input module 22, health evaluating subsystem 3, RACS 4, host computer 5, data storage 6, timing module 7, source pump A, pipe laying B, the pipe laying switching B1 of mechanism, auxiliary Cooling and Heat Source C, the auxiliary Cooling and Heat Source switching C0 of mechanism, cooling tower C1, solar facilities C2, ice cold-storage apparatus C3, surface water equipment C4.
The specific embodiment
As shown in Figure 1; This hybrid earth source heat pump monitoring system based on the health evaluating technology comprises the monitoring subsystem 1 that can monitor hybrid earth source heat pump working condition and/or hybrid earth source heat pump working environment; Real-time Monitoring Data and/or the data of weather forecast of monitoring subsystem 1 can be obtained and according to the load prediction subsystem 2 of the hybrid earth source heat pump load of above-mentioned data prediction, thereby the health evaluating subsystem 3 that the load prediction data of historical Monitoring Data and the load prediction subsystem 2 of monitoring subsystem 1 are assessed the work health status of hybrid earth source heat pump can be obtained.Health evaluating subsystem 3 with can control hybrid earth source heat pump according to the health index of health evaluating subsystem 3 and adjust the RACS 4 of duty in real time and link to each other.That is, the utility model is made up of four sub-systems, is respectively monitoring subsystem 1, health evaluating subsystem 3, load prediction subsystem 2 and RACS 4.Hybrid earth source heat pump working environment comprises underground temperature, outdoor temperature, humidity etc.
In order to guarantee the normal operation of ground heat exchanger, the temperature of underground needs in the reasonable scope, especially the pipe laying central area; Must in time gather the temperature of each measuring point; Flow obtains the temperature field of soil, imports and exports the relevant parameter of water temperature and auxiliary Cooling and Heat Source.Monitoring subsystem 1 comprises some sensors, and described sensor links to each other with communication apparatus 10, and described communication apparatus 10 links to each other with host computer 5 through wired or wireless communication modes, on host computer 5, is connected with data storage 6.Sensor comprise can detect ground pipe laying flow flow sensor 11, can detect the ground pipe laying import and export the temperature sensor 12 of water temperature, can detect the underground temperature temperature sensor 12, can detect the temperature sensor 12 of outdoor temperature and can detect in the humidity sensor 13 of outside humidity any one or multiple.
Because there is the heat history effect in geothermal heat pump air-conditioner, the long-time continuous operation can cause operational efficiency to descend, and adopts auxiliary Cooling and Heat Source then can improve the overall operation efficiency of system greatly in good time.Therefore must rationally arrange running time, be optimized control according to the height of loading.This just needs system accurately to predict load through various data, so that regulate earth source heat pump better.Load prediction subsystem 2 comprises load prediction module 21, on load prediction module 21, is connected with weather forecast input module 22 and above-mentioned data storage 6, and described data storage 6 links to each other with health evaluating subsystem 3.Monitoring subsystem 1 comprises that also can detect auxiliary Cooling and Heat Source C accumulates open-interval timing module 7 in the unit interval, and described timing module 7 is connected with data storage 6 through communication apparatus 10.RACS 4 respectively with source pump A, the B1 of ground pipe laying switching mechanism and the auxiliary Cooling and Heat Source switching C0 of mechanism of auxiliary Cooling and Heat Source C of pipe laying B link to each other, described auxiliary Cooling and Heat Source C comprise among cooling tower C1, solar facilities C2, ice cold-storage apparatus C3 and the surface water equipment C4 any one or multiple.
Hybrid earth source heat pump method for supervising based on the health evaluating technology: regularly gather each association of hybrid earth source heat pump and/or hybrid each association of earth source heat pump working environment and deposit data storage 6 in by monitoring subsystem 1; The history that is collected by the load prediction subsystem 2 regular monitoring subsystems 1 that extract in the data storage 6 detects data and combines weather forecast information to carry out load prediction, deposits the load prediction data in above-mentioned data storage 6 then; Carry out each item assessment by the health evaluating subsystem 3 real-time detection data that regularly extraction monitoring subsystem 1 collects from data storage 6 and deposit health index in data storage 6 then; RACS 4 regular accesses data memory 6 are also made control corresponding according to the load prediction data that the health index of health evaluating subsystem 3 and load prediction subsystem 2 generate to hybrid earth source heat pump.
Load prediction subsystem 2 draws the heat of hybrid earth source heat pump on the same day: Q according to the data of monitoring subsystem 1 collection n=C ρ V (T Ni-T No);
Wherein, Q nFor working as world source heat; C ρ is the product of specific heat of water and density; T NiBe ground source inflow temperature; T NoBe ground source leaving water temperature; V nBe ground source flow;
The heat that combines the next workaday hybrid earth source heat pump of weather forecast information prediction then: Q ( n + 1 ) f = Q n * Temp ( n + 1 ) f Temp n * C w ;
Wherein, Q (n+1) fHeat predicted value for the workaday earth source heat pump of the next one; Q nFor working as world source heat; Temp (n+1) fIt is the representation temperature of weather forecast in second day; Temp (n+1) fMean value for forecast maximum temperature on the same day and minimum temperature; C wBe weather conditions correction factor on next working day, wherein C when raining heavyly wBe not more than 0.75, C during moderate rain wBe not more than 0.8, C during light rain wBe not more than 0.85, the C during cloudy day wBe not more than 0.9, C when cloudy wBe not more than 0.95, C when fine wBe 1.In the present embodiment, C wBe heavy rain 0.75, moderate rain 0.8, light rain 0.85, cloudy day 0.9, cloudy 0.95, fine 1.
Health evaluating subsystem 3 is cores of the utility model.Control for large-scale hybrid earth-source hot-pump system; Progressive control dynamically; To reach the balance of underground temperature field, must confirm the health status of earth-source hot-pump system through real-time health evaluating, and then take the operation normally and efficiently of control measure safeguards system timely and effectively.Present embodiment is introduced the operation conditions that health index characterizes earth-source hot-pump system, full marks 100 minutes, and the high more representative system of score value is more healthy.
The computing formula of health index is:
H n + 1 = T Ow - T No T Ow - T Ob * 100 C t + Q n - Q ( n + 1 ) f Q n * 100 C q + T Ns ′ - T Ns T Ns ′ - T Nsb * 100 C Ts ′ + 24 - t Nf 24 * 100 C f ; Wherein:
Figure BSA00000538125300083
Be short-period fluctuation item, T ObBe best outlet temperature, be 22-28 summer, and be 12-18 winter; T OwBe the poorest outlet temperature, be 28-32 summer, and be 4-6 winter; T NoBe current outlet temperature;
Figure BSA00000538125300091
Be load change item, Q nBe work at present daily load, Q (n+1) fBe next load prediction on working day value;
Figure BSA00000538125300092
Be long-term change item, T ' NsBe the soil moisture of the same period last one year, T NsBe the current soil moisture, T NsbBe the best soil temperature, be 14-16 summer, and be 24-26 winter:
Figure BSA00000538125300093
Be auxiliary Cooling and Heat Source change item, t NfIt is the auxiliary 9 accumulation opening times of Cooling and Heat Source in 24 hours;
Above-mentioned C t, C q, C ' TsAnd C fBe respectively the weight factor of short-period fluctuation item, load change item, long-term change item and auxiliary Cooling and Heat Source change item, above-mentioned C t, C q, C ' t sAnd C fSum is 1, and 0.4≤C t≤0.5,0.25≤C q≤0.35,0.15≤C ' Ts≤0.25,0.05≤Cf≤0.15.In the present embodiment, C t, C q, C ' TsAnd C fBe respectively 0.4,0.3,0.2 and 0.1.More particularly, the health index of earth-source hot-pump system comprises four indexs, wherein:
First is the short-period fluctuation item, estimates the health condition of earth-source hot-pump system according to the short-period fluctuation of source leaving water temperature.T ObBe best outlet temperature, be 26 general summer, and be 15 winter; T OwBe the poorest outlet temperature, be 31 general summer, and be 5 winter; T NoBe current outlet temperature;
Second is the load change item, dopes the load change situation that next workaday load comes characterization system according to the load prediction subsystem.Q nBe work at present daily load, Q (n+1) fBe next load prediction on working day value;
The 3rd is long-term change item, and the long-term change conditions of soil moisture field is estimated the buried tube heat exchanger health condition under the base area; T ' NsBe the soil moisture of the same period last one year, T NsBe the current soil moisture; T NsbBe the best soil temperature, be 15 general summer, and be 25 winter
The 4th is auxiliary Cooling and Heat Source change item.
RACS 4 is confirmed control strategy according to the designing requirement of hybrid earth source heat pump, and according to the operation of health index and the hybrid earth source heat pump of control strategy real-time regulated.The hardware of RACS 4 is formed and is mainly comprised: host computer, Programmable Logic Controller, and controlled plants such as magnetic valve, water pump.Send instruction and various kinds of equipment is controlled in real time by industrial computer through field controller.Usually, local source heat pump health index is low then launches auxiliary cold (heat) source, and health index is low more, and the refrigeration that auxiliary Cooling and Heat Source is born (heating) share is big more.In cooling condition, the low auxiliary cold source of then launching of health index is like cooling tower, ice cold-storage or air-cooled heat pump etc.; In heating condition, health index is low then launches auxiliary thermal source, like solar energy, boiler or air-cooled heat pump etc.
Workflow is following:
1, sets C t, C q, C f, T Ow, T Ob, C ρ, T NsbAnd C w
2, read ground source leaving water temperature T from data storage 6 No, ground source inflow temperature T Ni, ground source flow V n, Q (n-1), Q n, Temp (n+1) f, T ' Ns, T Ns, calculate Q n=C ρ V (T Ni-T No);
3, the load of prediction n+1 day Q ( n + 1 ) f = Q n * Temp ( n + 1 ) f Temp n
4, calculate health index:
H n + 1 = T ow - T no T ow - T ob * 100 C t + Q n - Q ( n + 1 ) f Q n * 100 C q + T ns ′ - T ns T ns ′ - T nsb * 100 C ts ′ + 24 - t nf 24 * 100 C f
Adding the tower hybrid system of cooling with earth source heat pump below is that example is introduced control strategy, and the Cooling and Heat Source of this mixing earth-source hot-pump system is mainly underground heat exchanger, and cooling tower is an auxiliary cold source.
Summer, the method for operation mainly contained during refrigerating operaton:
(1) pipe laying is as independent cooling source;
(2) as the low-temperature receiver of unit operation, buried tube heat exchanger is connected with cooling tower simultaneously for pipe laying and cooling tower;
(3) shut down or partly open, this part control is conventional, does not do and gives unnecessary details;
Operational mode 1 is the main operational mode of this system, and this pattern is most economical energy-conservation, is fit to the low operating mode of load in summer.
Operational mode 2 is a kind of heavy-duty service patterns of this system, and this pattern is both economical energy-conservation, the higher operating mode of loading suitable summer.Because it is bigger that the refrigerating efficiency of cooling tower is influenced by outdoor environment temperature, outdoor temperature is low more, and the cooling tower operational efficiency is high more, so the optimum operation time is followed successively by early morning: 0 o'clock to 8 o'clock, night: 16 o'clock to 24 o'clock, in the daytime: 8 o'clock to 16 o'clock;
Operational mode 3 is a kind of underrun patterns of this system, shuts down or part is shut down underground temperature field is recovered, for the efficient operation of unit creates conditions.
Three opening time sections of definition cooling tower are respectively t 1: 16 o'clock to 24 o'clock, t 2: 24 to some next day 8, t 3: 8 o'clock to 16 o'clock, unit was minute.
Concrete control strategy is:
As 100>=H N+1>=50 o'clock, t 1=9.6* (100-H N+1), t 2=0, t 3=0;
As 50>=H N+1>=20 o'clock, t 1=480, t 2=16 (50-H N+1), t 3=0;
As 20>H N+1>0 o'clock, t 1=480, t 2=480, t 3=24 (20-H N+1)
The utility model can guarantee the cold and hot balance under system's long-time running condition: " earth-source hot-pump system engineering legislation GB50366-2005 " regulation: " pipe laying heat-exchange system design should carry out annual dynamic load and calculate, the minimum of computation cycle is preferably 1 year.In the computing cycle, total heat release amount of earth-source hot-pump system should balance each other with its total caloric receptivity." southern area, the refrigeration duty in summer is much larger than the thermic load in winter, and promptly earth source heat pump surpasses the heat of drawing to the heat of underground input, and heat can cause the soil moisture to raise year by year in underground accumulation, causes the heat exchanger heat exchange efficiency to reduce.When the soil temperature rise reaches a threshold value, even can cause earth source heat pump ineffective.Therefore, must the assurance system cold and hot balance under the long-time running condition.Native system is mainly regulated the opening time of earth source heat pump through the variation of monitoring underground temperature field.
The utility model can guarantee that system is satisfying economy under the short-term operation condition: under the short-term operation condition, also can fluctuate in the temperature field of earth source heat pump buried tube heat exchanger, thereby influence the performance of system.Under the lower situation of load intensity, the Energy Efficiency Ratio of earth source heat pump is bigger, generally adopts earth source heat pump isolated operation less expensive.When load is big, long-play will cause the underground temperature field temperature to raise, and cause the geothermal heat pump air-conditioner performance to descend gradually, finally lose exchange capability of heat, so need the variation of monitoring underground temperature field in real time, adopt earth source heat pump and cooling tower joint refrigeration in case of necessity.Native system is mainly regulated the opening time of earth source heat pump through the variation of monitoring ground source inflow temperature.
Specific embodiment described herein only is that the utility model spirit is illustrated.The utility model person of ordinary skill in the field can make various modifications or replenishes or adopt similar mode to substitute described specific embodiment, but can't depart from the spirit of the utility model or surmount the defined scope of appended claims.
Although this paper used morely monitoring subsystem 1, communication apparatus 10, flow sensor 11, temperature sensor 12, humidity sensor 13, load prediction subsystem 2, load prediction module 21, weather forecast input module 22, health evaluating subsystem 3, RACS 4, host computer 5, data storage 6, timing module 7, source pump A, pipe laying B, terms such as the pipe laying switching B1 of mechanism, auxiliary Cooling and Heat Source C, the auxiliary Cooling and Heat Source switching C0 of mechanism, cooling tower C1, solar facilities C2, ice cold-storage apparatus C3, surface water equipment C4, do not get rid of the possibility of using other term.Using these terms only is in order to describe and explain the essence of the utility model more easily; It all is contrary with the utility model spirit being construed to any additional restriction to them.

Claims (6)

1. hybrid earth source heat pump monitoring system based on health evaluating technology; It is characterized in that; This monitoring system comprises the monitoring subsystem (1) that can monitor hybrid earth source heat pump working condition and/or hybrid earth source heat pump working environment; Can obtain the real-time Monitoring Data of monitoring subsystem (1) and/or the load prediction subsystem (2) of data of weather forecast and the hybrid earth source heat pump load of the above-mentioned data prediction of foundation; Can obtain monitoring subsystem (1) historical Monitoring Data and load prediction subsystem (2) thus load prediction data health evaluating subsystem (3) that the work health status of hybrid earth source heat pump is assessed, described health evaluating subsystem (3) with can control hybrid earth source heat pump according to the health index of health evaluating subsystem (3) and adjust the RACS of duty (4) in real time and link to each other.
2. the hybrid earth source heat pump monitoring system based on the health evaluating technology according to claim 1; It is characterized in that; Described monitoring subsystem (1) comprises some sensors; Described sensor links to each other with communication apparatus (10), and described communication apparatus (10) links to each other with host computer (5) through wired or wireless communication modes, on host computer (5), is connected with data storage (6).
3. the hybrid earth source heat pump monitoring system based on the health evaluating technology according to claim 2; It is characterized in that, described sensor comprise can detect ground pipe laying flow flow sensor (11), can detect the ground pipe laying import and export the temperature sensor (12) of water temperature, can detect the underground temperature temperature sensor (12), can detect the temperature sensor (12) of outdoor temperature and can detect in the humidity sensor (13) of outside humidity any one or multiple.
4. according to claim 2 or 3 described hybrid earth source heat pump monitoring systems based on the health evaluating technology; It is characterized in that; Described load prediction subsystem (2) comprises load prediction module (21); On load prediction module (21), be connected with weather forecast input module (22) and above-mentioned data storage (6), described data storage (6) links to each other with health evaluating subsystem (3).
5. the hybrid earth source heat pump monitoring system based on the health evaluating technology according to claim 4; It is characterized in that; Described monitoring subsystem (1) comprises that also can detect auxiliary Cooling and Heat Source (C) accumulates open-interval timing module (7) in the unit interval, and described timing module (7) is connected with data storage (6).
6. the hybrid earth source heat pump monitoring system based on the health evaluating technology according to claim 5; It is characterized in that; Described RACS (4) respectively with source pump (A), ground pipe laying switching mechanism (B1) and the auxiliary Cooling and Heat Source switching mechanism (C0) of auxiliary Cooling and Heat Source (C) of pipe laying (B) link to each other, described auxiliary Cooling and Heat Source (C) comprise in cooling tower (C1), solar facilities (C2), ice cold-storage apparatus (C3) and the surface water equipment (C4) any one or multiple.
CN2011202490581U 2011-07-04 2011-07-04 Mixing type ground source heat pump monitoring system based on health evaluation technology Expired - Lifetime CN202119044U (en)

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* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN102305451A (en) * 2011-07-04 2012-01-04 徐坚 Mixed ground source heat pump monitoring system and method based on health assessment technology
CN105045964A (en) * 2015-06-25 2015-11-11 卡斯柯信号有限公司 Intelligent application cutting method and system for 2*2 platform
CN110296497A (en) * 2018-03-21 2019-10-01 开利公司 The system and method for connecting the HVAC health monitoring of family

Cited By (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN102305451A (en) * 2011-07-04 2012-01-04 徐坚 Mixed ground source heat pump monitoring system and method based on health assessment technology
CN105045964A (en) * 2015-06-25 2015-11-11 卡斯柯信号有限公司 Intelligent application cutting method and system for 2*2 platform
CN105045964B (en) * 2015-06-25 2019-03-01 中国铁路总公司 The intelligent Application for multiplying 2 platforms for 2 cuts machine method and system
CN110296497A (en) * 2018-03-21 2019-10-01 开利公司 The system and method for connecting the HVAC health monitoring of family
CN110296497B (en) * 2018-03-21 2022-10-11 开利公司 System and method for linking home HVAC health monitoring

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