JPH08272458A - Floor heating system - Google Patents

Floor heating system

Info

Publication number
JPH08272458A
JPH08272458A JP7073453A JP7345395A JPH08272458A JP H08272458 A JPH08272458 A JP H08272458A JP 7073453 A JP7073453 A JP 7073453A JP 7345395 A JP7345395 A JP 7345395A JP H08272458 A JPH08272458 A JP H08272458A
Authority
JP
Japan
Prior art keywords
temperature
time
floor
energization
floor heating
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Pending
Application number
JP7073453A
Other languages
Japanese (ja)
Inventor
Chiaki Kobayashi
千明 小林
Kenichi Nemoto
憲一 根本
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Furukawa Electric Co Ltd
Original Assignee
Furukawa Electric Co Ltd
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Furukawa Electric Co Ltd filed Critical Furukawa Electric Co Ltd
Priority to JP7073453A priority Critical patent/JPH08272458A/en
Publication of JPH08272458A publication Critical patent/JPH08272458A/en
Pending legal-status Critical Current

Links

Classifications

    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02BCLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO BUILDINGS, e.g. HOUSING, HOUSE APPLIANCES OR RELATED END-USER APPLICATIONS
    • Y02B30/00Energy efficient heating, ventilation or air conditioning [HVAC]
    • Y02B30/70Efficient control or regulation technologies, e.g. for control of refrigerant flow, motor or heating

Landscapes

  • Central Heating Systems (AREA)
  • Programmable Controllers (AREA)
  • Control Of Temperature (AREA)

Abstract

PURPOSE: To judge the optimal temperature rising value taking into account the climate change and the fluctuation of the load and to eliminate the input of the temperature rising value by turning on the power of the floor heating at the time which is decided based on the average value of the stored plural temperature rising values. CONSTITUTION: The initializing energization time in the past period, the time of starting the energization, and the floor temperature at the end of the energization are measured. An arithmetic circuit 5 calculates the temperature gradient α based on these measured values. The calculation of the temperature gradient α by the circuit 5 is performed for each operation of the floor heating system and it is stored in a storage circuit 3. Then, when a new operation is performed, the latest temperature gradient α of few days from the day before last to the previous day is averaged by the circuit 5 and the average temperature gradient αav is adopted. Normally, when the average value of two to ten days is taken, it is useful to grasp the change of climate. Thus, the time of turning on the power can be set so that the optimal temperature rising gradient can be kept at all times.

Description

【発明の詳細な説明】Detailed Description of the Invention

【0001】[0001]

【産業上の利用分野】本発明は、床暖房システムに関す
るものであり、特に蓄熱型の床暖房システムであって、
床温度を所定の時刻までに所定温度にするために、最も
適切な時刻に電源を投入する機能を有する床暖房システ
ムに関する。
BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a floor heating system, and more particularly to a heat storage type floor heating system,
The present invention relates to a floor heating system having a function of turning on the power at the most appropriate time in order to bring the floor temperature to a predetermined temperature by a predetermined time.

【0002】[0002]

【従来の技術】蓄熱型の床暖房システムは、目標の時刻
までに床に蓄熱し、蓄熱された熱で暖房するものであ
る。この目標の時刻は、室の使用開始時刻や深夜電力の
終了時刻などに相当する。この蓄熱型の床暖房システム
では床が蓄熱されるまでに時間がかかるので、通常は床
が目標とする温度まで昇温するのにどの程度の時間がか
かるかを予見しておき、目標時刻よりもその時間分だけ
先に電源を投入して蓄熱を開始するようにしている。そ
のためには、電源を投入する時刻を設定するために、床
暖房システムの昇温勾配を判定することが必要になる。
2. Description of the Related Art A heat storage type floor heating system stores heat in the floor by a target time and heats the stored heat. The target time corresponds to the start time of use of the room, the end time of midnight power, and the like. In this heat storage type floor heating system, it takes time for the floor to store heat.Therefore, it is necessary to foresee how long it will take for the floor to heat up to the target temperature. Also, the power is turned on earlier for that time to start heat storage. For that purpose, it is necessary to determine the temperature rise gradient of the floor heating system in order to set the time when the power is turned on.

【0003】図2により説明すると、横軸に時間tをと
り、縦軸に床温度Tをとり、目標の時刻t0 に目標とす
る床温度T0 に昇温するものとする。また、この床暖房
システムの昇温勾配αが実線で表されるものとする。そ
うすると、電源投入前の床温度が点線に沿って変化する
場合、実線と点線が交差する時間t1 において電源を投
入すればよい。床温度が実線の示す温度よりも高くなっ
ている時点では、床暖房システムに通電する必要はな
い。言い換えると、時刻t1 よりも早く通電を開始する
と、時刻t0 には床温度はT0 よりも高くなり、消費電
力に無駄を生ずる。一方、時刻t1 よりも遅く通電を開
始すると、時刻t0 には床温度はT0 に到達しない。
Referring to FIG. 2, it is assumed that the time t is plotted on the abscissa and the floor temperature T is plotted on the ordinate, and the temperature is raised to a target floor temperature T 0 at a target time t 0 . Further, the temperature rising gradient α of this floor heating system is represented by a solid line. Then, when the floor temperature before the power is turned on changes along the dotted line, the power may be turned on at time t 1 when the solid line and the dotted line intersect. When the floor temperature is higher than the temperature indicated by the solid line, it is not necessary to energize the floor heating system. In other words, if the energization starts earlier than the time t 1 , the floor temperature becomes higher than T 0 at the time t 0 , and the power consumption is wasted. On the other hand, if the energization is started later than the time t 1 , the bed temperature does not reach T 0 at the time t 0 .

【0004】従来は、実験により床暖房システムの昇温
勾配を測定したり、あるいは、シュミレーションにより
算定したりして、その結果を温度制御装置に入力してい
た。昇温勾配は季節により異なるので、電源投入の判定
を最適化するために特に正確な昇温勾配を要するときに
は、数日間にわたる実験を行い、気候の変化に伴う地中
温度の変動や、室内環境の変化による暖房負荷の変動が
床暖房システムの昇温勾配に及ぼす影響を測定してい
た。
Conventionally, the temperature rise gradient of the floor heating system was measured by an experiment, or calculated by simulation, and the result was input to the temperature control device. Since the temperature rise gradient varies depending on the season, when a particularly accurate temperature rise gradient is required to optimize the decision of power-on, experiments are carried out over several days to investigate changes in underground temperature due to climate change and indoor environment. The influence of the change of the heating load due to the change of the temperature on the heating gradient of the floor heating system was measured.

【0005】[0005]

【発明が解決しようとする課題】しかしながら、季節毎
にあるいは定期的に床暖房システムの昇温勾配の測定や
シュミレーションによる昇温勾配の算定を行うには、多
大な時間と労力を要するという問題があった。また、こ
れらの結果を温度制御装置に入力する際に、入力ミスを
起こしたり、装置の取扱が複雑になるという問題があっ
た。
However, it takes a lot of time and labor to measure the temperature rising gradient of the floor heating system or to calculate the temperature rising gradient by simulation every season or periodically. there were. In addition, when these results are input to the temperature control device, there are problems that an input error occurs and handling of the device becomes complicated.

【0006】[0006]

【課題を解決するための手段】本発明は上記問題点を解
決した床暖房システムを提供するもので、床温度が目標
時刻に目標温度になるように所定の時刻に床暖房に電源
投入する床暖房システムであって、過去のある時期にお
ける立ち上がり通電時間と、その通電開始時と通電終了
時の床温度を計測する手段と、これらの計測値から昇温
勾配を算出する手段と、その昇温勾配値を記憶する手段
を有し、記憶された複数の昇温勾配値の平均値に基づい
て決定される時刻に床暖房の電源を投入することを特徴
とするものである。
DISCLOSURE OF THE INVENTION The present invention provides a floor heating system which solves the above-mentioned problems, in which a floor heating system is turned on at a predetermined time so that the floor temperature reaches the target temperature at the target time. A heating system, a means for measuring a rising energization time at a certain time in the past, a floor temperature at the time of energization start and an energization end, a means for calculating a temperature rise gradient from these measured values, and a temperature rise thereof. It is characterized in that it has means for storing a gradient value, and turns on the floor heating at a time determined based on the average value of the stored plurality of temperature rising gradient values.

【0007】[0007]

【作用】上述のように、立ち上がり通電開始時とその通
電終了時の床温度を計測し、これらの計測値から昇温勾
配を算出し、その昇温勾配値を記憶させておいて、記憶
された複数の昇温勾配値を平均化すると、気候の変化や
負荷の変動を反映した無駄のない運転を可能にする最適
な昇温勾配を判定することができる。また、この方法で
は、昇温勾配値を記憶させておくので、昇温勾配値をあ
らためて入力する操作を省くことができる。
As described above, the floor temperature at the start of the energization and at the end of the energization is measured, the temperature rise gradient is calculated from these measured values, and the temperature rise gradient value is stored and stored. By averaging the plurality of temperature rising gradient values, it is possible to determine the optimum temperature rising gradient that enables lean operation that reflects changes in climate and changes in load. Further, in this method, since the temperature rising gradient value is stored, the operation of newly inputting the temperature rising gradient value can be omitted.

【0008】[0008]

【実施例】以下、図面に示した実施例に基づいて本発明
を詳細に説明する。図1は、本発明にかかる床暖房シス
テムの一実施例の説明図である。図中、符号10は床温
検出部であり、床温度を検出するサーミスタなどの床温
センサ1と、測定回路2から構成されている。符号3は
記憶回路、符号4はタイマー回路、5は演算回路であ
る。符号6は記憶部7に記憶された目標床温度T0 と記
憶回路3に記憶された測定床温度との比較を行い、床暖
房システムの通電を行うかどうかを判定する通電判定回
路である。符号8は床暖房システムへの通電をon−o
ffする床温調節器である。符号9は目標床温度T0
記憶部7に入力する入力装置である。
DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS The present invention will be described in detail below with reference to the embodiments shown in the drawings. FIG. 1 is an explanatory diagram of an embodiment of a floor heating system according to the present invention. In the figure, reference numeral 10 is a floor temperature detecting section, which is composed of a floor temperature sensor 1 such as a thermistor for detecting the floor temperature, and a measuring circuit 2. Reference numeral 3 is a memory circuit, reference numeral 4 is a timer circuit, and 5 is an arithmetic circuit. Reference numeral 6 is an energization determination circuit that compares the target floor temperature T 0 stored in the storage unit 7 with the measured floor temperature stored in the storage circuit 3 to determine whether to energize the floor heating system. Reference numeral 8 is on-o for energizing the floor heating system.
It is a floor temperature controller that turns off. Reference numeral 9 is an input device for inputting the target bed temperature T 0 to the storage unit 7.

【0009】上記システムにおいて、昇温勾配判定の手
順は以下の通りである。即ち、 1)目標床温度T0 を入力装置9で記憶部7に入力す
る。 2)床温度を床温検出部10で測定して、その測定床温
度を記憶回路3に送り、記憶させる。この測定開始とタ
イミングを同じくしてタイマー回路4のカウンターをス
タートさせる。 3)床温度の測定開始とほぼタイミングを合わせて、通
電判定回路6は、記憶部7に記憶された目標床温度T0
と記憶回路3に記憶された測定床温度との比較を開始す
る。測定床温度が目標床温度T0 よりも低い場合には、
通電判定回路6からの指示により、床温調節器8は蓄熱
装置(図示せず)へその能力の100%で通電を開始す
るように作動する。この時点t1 の温度をT1 とする。
通電判定回路6における測定床温度と目標床温度T0
の比較は、通電により床温度が昇温中は絶えず行われて
いる。測定床温度が目標床温度T0 に達した時点t
0 で、通電判定回路6からの指示により床温調節器8は
蓄熱装置への通電を停止するように作動する。また、こ
の時点で通電判定回路6からの指示により、タイマー回
路4のカウンター値(t0 −t1 :温度立ち上げの通電
時間に相当)を記憶回路3に記憶させる。 4)演算回路5は、記憶回路3に記憶された立ち上げの
通電開始時t1 とその通電終了時t0 のそれぞれの測定
床温度T1 、T0 とタイマー回路4のカウンター値(t
0 −t1 )から、昇温勾配α(=(T0 −T1 )/(t
0 −t1 ))を算出する。演算回路5による昇温勾配の
算出は、床暖房システムの運転毎に行い、その昇温勾配
αを記憶回路3に記憶させておく。 5)昇温勾配αを記憶回路3に記憶させた後、新たに運
転を行う場合には、その数日前から前日までの最新の数
日間の昇温勾配を演算回路5で平均化し、その平均昇温
勾配αavを採用する。この場合、図2を用いて説明する
と、T0 、t0 が設定されているので、床温度が低下し
てT1 となり、床温度の変化を示す点線が平均昇温勾配
αavから定まる実線と交わった時点t1 で床暖房システ
ムの運転が開始する。
In the above system, the procedure for determining the temperature rise gradient is as follows. That is, 1) The target bed temperature T 0 is input to the storage unit 7 by the input device 9. 2) The floor temperature is measured by the floor temperature detector 10, and the measured floor temperature is sent to the memory circuit 3 and stored therein. The counter of the timer circuit 4 is started at the same timing as the start of measurement. 3) The energization determination circuit 6 causes the target floor temperature T 0 stored in the storage unit 7 almost at the same time as the start of the measurement of the floor temperature.
And the comparison with the measured bed temperature stored in the memory circuit 3 are started. When the measured bed temperature is lower than the target bed temperature T 0 ,
In response to an instruction from the energization determination circuit 6, the floor temperature controller 8 operates to start energizing the heat storage device (not shown) with 100% of its capacity. The temperature at this time t 1 is T 1 .
The comparison between the measured floor temperature and the target floor temperature T 0 in the energization determination circuit 6 is constantly performed while the floor temperature is being raised by energization. Time t at which the measured bed temperature reaches the target bed temperature T 0
At 0 , the floor temperature controller 8 operates so as to stop energization of the heat storage device according to an instruction from the energization determination circuit 6. At this point, the counter value of the timer circuit 4 (t 0 -t 1 : corresponding to the energization time for temperature rise) is stored in the storage circuit 3 according to an instruction from the energization determination circuit 6. 4) The arithmetic circuit 5 stores the measured bed temperatures T 1 and T 0 at the start of energization t 1 and the end of energization t 0 stored in the storage circuit 3 and the counter value (t) of the timer circuit 4, respectively.
From 0 -t 1), heating gradient α (= (T 0 -T 1 ) / (t
0 -t 1)) is calculated. The calculation of the temperature rising gradient by the arithmetic circuit 5 is performed every time the floor heating system is operated, and the temperature rising gradient α is stored in the storage circuit 3. 5) When the temperature rise gradient α is stored in the memory circuit 3 and then a new operation is performed, the arithmetic circuit 5 averages the temperature rise gradients for the latest several days from several days before to the previous day, and the average is calculated. Adopt a heating gradient α av . In this case, to explain with reference to FIG. 2, since T 0 and t 0 are set, the bed temperature decreases to T 1 , and the dotted line indicating the change in the bed temperature is the solid line determined from the average temperature rise gradient α av. The operation of the underfloor heating system is started at the time point t 1 when it intersects.

【0010】通常、2〜10日間の平均値を採ると、気
候の変化を捉えるのに最適である。このようにすること
で、初冬から厳冬、初春への気候の移り変わりに伴う地
中温度の変化や、室内の人員、家具の移動に伴う暖房負
荷の変化による床暖房システムの昇温特性の変化を、そ
の運転に反映させ、常に最適な昇温勾配になるように、
電源投入時刻を設定することができる。
Usually, taking an average value for 2 to 10 days is most suitable for catching a change in climate. By doing this, changes in the underground temperature due to changes in the climate from early winter to severe winter and early spring, and changes in the heating characteristics of the floor heating system due to changes in the heating load due to movement of indoor personnel and furniture. , So that it will be reflected in the operation so that there is always an optimal temperature rise gradient,
The power-on time can be set.

【0011】[0011]

【発明の効果】以上説明したように本発明によれば、床
温度が目標時刻に目標温度になるように所定の時刻に床
暖房に電源投入する床暖房システムであって、過去のあ
る時期における立ち上がり通電時間と、その通電開始時
と通電終了時の床温度を計測する手段と、これらの計測
値から昇温勾配を算出する手段と、その昇温勾配値を記
憶する手段を有し、記憶された複数の昇温勾配値の平均
値に基づいて決定される時刻に床暖房の電源を投入する
ため、気候の変化や負荷の変動を反映した最適な昇温勾
配を判定することができ、また、昇温勾配値を記憶させ
ておくので、昇温勾配値をあらためて入力する操作を省
くことができるという優れた効果がある。
As described above, according to the present invention, there is provided a floor heating system in which the floor heating is powered on at a predetermined time so that the floor temperature becomes the target temperature at the target time. It has a means for measuring the rising energization time and the floor temperature at the start and end of the energization, a means for calculating a temperature rise gradient from these measured values, and a means for storing the temperature rise gradient value. Since the floor heating is turned on at the time determined based on the average value of the plurality of temperature rising gradient values, it is possible to determine the optimum temperature rising gradient that reflects the change in climate and the change in load, Further, since the temperature rise gradient value is stored, there is an excellent effect that the operation of newly inputting the temperature rise gradient value can be omitted.

【図面の簡単な説明】[Brief description of drawings]

【図1】本発明に係る床暖房システムの一実施例の説明
図である。
FIG. 1 is an explanatory diagram of an embodiment of a floor heating system according to the present invention.

【図2】床暖房システムにおける床温度と時間の関係を
示す図である。
FIG. 2 is a diagram showing a relationship between floor temperature and time in a floor heating system.

【符号の説明】[Explanation of symbols]

1 床温センサ 2 測定回路 3 記憶回路 4 タイマー回路 5 演算回路 6 通電判定回路 7 記憶部 8 床温調節器 9 入力装置 10 床温検出部 1 Floor Temperature Sensor 2 Measurement Circuit 3 Memory Circuit 4 Timer Circuit 5 Arithmetic Circuit 6 Energization Judgment Circuit 7 Memory Section 8 Floor Temperature Controller 9 Input Device 10 Floor Temperature Detection Section

Claims (1)

【特許請求の範囲】[Claims] 【請求項1】 床温度が目標時刻に目標温度になるよう
に所定の時刻に床暖房に電源投入する床暖房システムで
あって、過去のある時期における立ち上がり通電時間
と、その通電開始時と通電終了時の床温度を計測する手
段と、これらの計測値から昇温勾配を算出する手段と、
その昇温勾配値を記憶する手段を有し、記憶された複数
の昇温勾配値の平均値に基づいて決定される時刻に床暖
房の電源を投入することを特徴とする床暖房システム。
1. A floor heating system in which floor heating is powered on at a predetermined time so that the floor temperature reaches a target temperature at a target time, and a rising energization time at a certain time in the past, a start time of the energization, and an energization. Means for measuring the bed temperature at the end, means for calculating the temperature rise gradient from these measured values,
A floor heating system having means for storing the temperature rising gradient value, wherein the floor heating system is turned on at a time determined based on an average value of a plurality of stored temperature rising gradient values.
JP7073453A 1995-03-30 1995-03-30 Floor heating system Pending JPH08272458A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP7073453A JPH08272458A (en) 1995-03-30 1995-03-30 Floor heating system

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP7073453A JPH08272458A (en) 1995-03-30 1995-03-30 Floor heating system

Publications (1)

Publication Number Publication Date
JPH08272458A true JPH08272458A (en) 1996-10-18

Family

ID=13518679

Family Applications (1)

Application Number Title Priority Date Filing Date
JP7073453A Pending JPH08272458A (en) 1995-03-30 1995-03-30 Floor heating system

Country Status (1)

Country Link
JP (1) JPH08272458A (en)

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US20120183014A1 (en) * 2006-02-10 2012-07-19 Danfoss A/S Control of a system with a large thermal capacity

Cited By (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US20120183014A1 (en) * 2006-02-10 2012-07-19 Danfoss A/S Control of a system with a large thermal capacity
US8708244B2 (en) 2006-02-10 2014-04-29 Danfoss A/S Control of a system with a large thermal capacity
US9027847B2 (en) * 2006-02-10 2015-05-12 Danfoss A/S Method of estimating a floor temperature of a solid floor

Similar Documents

Publication Publication Date Title
JP4785927B2 (en) Electric kettle control method
US4993233A (en) Demand defrost controller for refrigerated display cases
EP3662210B1 (en) Method for learning the pattern of hot water withdrawals in a storage water heater
KR970070870A (en) Temperature control method and temperature control device of refrigerator
JP6283637B2 (en) Thermal transmissivity estimation system, thermal transmissivity estimation device, and thermal transmissivity estimation program
JPH08272458A (en) Floor heating system
JP2006038472A (en) Thermoregulator
JP2003207255A (en) Refrigerator and its control method
JP3102788B1 (en) Thermal storage operation control method of thermal storage electric floor heating device
JP2568377Y2 (en) Combustion device life prediction device
CN113405153A (en) Control method and device for centralized cooling/heating system
KR0178334B1 (en) Apparatus and method for controlling temperature of kimchi stocker
EP0494226B1 (en) Adaptive ice detector circuit
US6528738B2 (en) Electronic balance/scale
JP3897680B2 (en) Hot water supply equipment
JP5320314B2 (en) Gas detector
JP2002269622A (en) Service life estimation system
JP2001292949A (en) Arithmetic method of estimated necessary time for operation in dish washing and drying machine, and dish washing and drying machine having arithmetic function of estimated necessary time for operation
JPH01143948A (en) Boiling detecting device
JP2503543Y2 (en) air conditioner
JPH0876858A (en) Heat source control system
JP2002317977A (en) Controller for constant temperature and humidity cabinet
JPS61256124A (en) Warm apparatus
JPH0742063Y2 (en) Hot water storage type electric water heater
JP2016176758A (en) System, method, and program for estimating heat transfer coefficient, and heat transfer coefficient test apparatus