JPH08178320A - Heat storage type floor heating control system - Google Patents

Abstract

PURPOSE: To simply, effectively supply daytime power to a heat storage type floor heating system in accordance with heating state of a room by sending a command of power supply to a heating portion according to time and supplying power to the heating portion on the basis of the signal. CONSTITUTION: A heat storage type floor heating control system (B) for controlling power supply to a heat storage type floor heating system (A) is provided with a time power-supply controlling portion 21 and a power supply portion 25. The time power-supply controlling portion 21 controls supply of power to a heat generating portion 1 according to time in such a manner that a tamer as a night time setting means gives a signal to the power supply portion 25 to supply power during a time interval of low power rate on a time zone contract, e.g. an 8-hour time zone ranging from 11p.m. to 7a.m. The time power- supply control portion 21 sends to the power supply portion 25 a command to automatically start power supply to the heat generating portion 1 at 11p.m. and sends another signal to stop supplying power to the heat generating portion 25 at a specified time set before 7a.m. The specified time is to be determined according to setting of heat storage quantity to the heat storage portion 5.

Description

Detailed Description of the Invention

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a heat storage floor heating control device for controlling energization to a heat storage floor heating device.

[0002]

2. Description of the Related Art Conventionally, heat storage floor heating that uses heat generated by using cheap nighttime electric power for the purpose of realizing energy saving, improving the balance of day and night power demand, and reducing electricity charges. There is a device. This heat storage floor heating system A
As shown in FIG. 11, a heat generating portion 1 that generates heat by energizing the heater, and a heat storage portion 5 that is adjacent to the upper surface and the lower surface of the heat generating portion 1 and that stores the heat generated in the heat generating portion 1,
have. Further, the heat storage unit 5 has a large amount of heat storage per unit volume as compared with a sensible heat storage material such as concrete or brick, and moreover, a latent heat storage material capable of storing and releasing heat at a constant temperature is often used.

By the way, the heat generating portion of the heat storage floor heating system A
Heat storage floor heating control device for controlling energization to 1
There is B. This heat storage floor heating control device B is a time energization control unit 21 that gives an instruction to energize the heat generating unit 1 based on time,
An electric power supply unit 25 that energizes the heat generating unit 1 based on an instruction from the time energization control unit 21. At night when the electricity rate is low, for example, from 23:00 to 7:00 in the morning, the power supply section 25 automatically energizes the heat generation section 1 to store heat in the heat storage section 5 based on the instruction of the time energization control section 21. Every day, the heat is radiated in the daytime (7:00 am to 23:00 pm), but the heating capacity of the heat storage floor heating system A decreases only by the heat storage amount at night, and the heat storage floor heating system A in the daytime is used. By manually operating the operation unit 35 that gives an instruction to the power supply unit 25 when the heating condition of the room in which it is installed is not good (for example, when the room temperature decreases), the power supply unit 25 can generate power during daytime. The fever part 1
I am trying to supply it to.

Assuming that the electricity bill at the nighttime is cheaper than that at the daytime under the contract with the electric power company, the electric lights by time zone (TOU: T
image of Use), midnight power, heat storage adjustment contract for business, heat storage adjustment contract for industry, etc. The time zone electric light is a contract in which the electric charges that are generally wired in a house or the like are used as they are and the electric charges for the daytime and the nighttime are different. Midnight Electric Power supplies low-priced electric power to electric equipment at midnight by wiring a dedicated electric wire.

[0005]

SUMMARY OF THE INVENTION The heat storage floor heating control device described above heats a room by using the electric power during the daytime when the heating capacity of the heat storage floor heating device during the daytime is insufficient only with the heat storage amount at night. You can However, in order to supply daytime electric power to the heat generating section, it is necessary to manually operate the operation section, which is not only troublesome, but also when the operation time is delayed, the temperature of the heat storage floor heating apparatus falls and Since it takes a lot of time to raise the temperature, the room may not be in a good heating state for a long time. In addition, it is necessary to manually operate the operation unit again in order to stop the energization after using the electric power in the daytime.

The present invention has been made in view of the above circumstances, and an object thereof is to easily and effectively supply daytime electric power to a heat storage floor heating apparatus in accordance with a heating state of a room. A heat storage floor heating control device capable of

[0007]

In order to solve such a problem, a heat storage floor heating control apparatus according to a first aspect of the present invention is characterized in that a heat generating portion which generates heat when energized and a heat generating portion located adjacent to the heat generating portion. A heat storage floor heating device having a heat storage unit for storing the heat storage unit, and a time energization control unit for instructing energization of the heat generation unit based on time, and a heat generation unit based on an instruction of the time energization control unit. In a heat storage floor heating control device having a power supply section for supplying electricity to a detector, a detection section for detecting a heating state of a room, and a detection energization control section for giving an instruction to energize the power supply section based on a detection signal of the detection section, , Are provided.

Further, in the heat storage floor heating control apparatus according to a second aspect, the time energization control section according to the first aspect includes a nighttime time setting means for setting the time at night when the electricity rate is low based on the contract with the electric power company. It is configured to have.

Further, the heat storage floor heating control device according to a third aspect of the present invention predicts the time when the heating state of the room becomes unfavorable to the detection energization control part according to the first or second aspect based on the detection signal of the detection part, The heating state predicting means for giving an instruction to energize the power supply unit is provided a predetermined time before that time.

According to a fourth aspect of the heat storage floor heating control apparatus of the present invention, the heating state predicting means according to the third aspect is provided with a storage section for storing a plurality of detection signals at predetermined time intervals, and heating is performed based on the detection signals. It is configured to predict the time when the condition is not good.

Further, the heat storage floor heating control apparatus according to a fifth aspect of the present invention is characterized in that, after a predetermined time has elapsed from the time when the power supply section was instructed to energize the heat generating section by the detection energization control section according to the first to fourth aspects, The power supply unit is provided with time measuring means for giving an instruction to stop energization.

The heat storage floor heating control apparatus according to a sixth aspect of the present invention is configured such that the time measuring means according to the fifth aspect is provided with a time setting section that sets a predetermined time based on a detection signal from the detection section.

Further, a heat storage floor heating control apparatus according to a seventh aspect of the present invention is a state in which the instructions of the time energization control section and the detection energization control section are both transmitted to the power supply section according to the first to sixth aspects, and the time. It is configured to include a switching unit that selects a state in which only the instruction of the energization control unit is transmitted.

Further, the heat storage floor heating control system according to the present invention has a heat storage floor heating device which has a heat generating portion which generates heat when energized and a heat storage portion which is adjacent to the heat generating portion and stores heat. The time energization control unit for instructing energization to the heating unit based on time, and the switch operation when the energization of the heating unit by the time energization control unit is stopped. In the heat storage floor heating control device having an operation section for instructing energization to the heat generating section, and a power supply section for energizing the heat generating section based on the energization instruction of the time energization control section or the operation section, in the operation section, After a lapse of a predetermined time from the time when the power supply unit is instructed to energize the heat generating unit,
The power supply unit is provided with time measuring means for giving an instruction to stop energization.

[0015]

According to the structure of the first aspect, when the heating capacity of the heat storage unit of the room in which the heat storage floor heating system is installed is lowered by the detection unit, it is detected, and the detection energization control unit is detected based on the detection. By instructing the power supply unit to energize,
It is possible to energize the heat generating portion without manual labor.

Further, according to the structure of claim 2, in addition to the operation of claim 1, energization of the heat generating portion based on the instruction of the time energization control unit is based on the electricity rate set by the night time setting means. It is held at a cheap night time.

Further, according to the configuration of claim 3, in addition to the operation of claim 1 or 2, the detection energization control unit causes the heating state predicting means to time the heating state of the room by the heat storage section to become unfavorable. It is possible to energize the heat generating portion by predicting the above and giving an instruction to the power supply portion a predetermined time before that time.

Further, according to the configuration of claim 4, in addition to the effect of claim 3, since the detection signal of the detection part at every predetermined time can be stored in the storage part, the change of the detection signal It is possible to predict the time when the heating condition of the room is not good.

According to the structure of claim 5, in addition to the operation of any one of claims 1 to 4, a predetermined time after the time measuring means instructs the power supply part to energize the heat generating part. It is possible to measure the time and give an instruction to the power supply unit to stop the power supply to the heat generating unit after the predetermined time has elapsed.

According to the structure of claim 6, in addition to the function of claim 5, the predetermined time in the time measuring means is set by the time setting part based on the detection signal of the detection part.
It is possible to change the energization time to the heat generating portion according to the heating state of the room.

According to the structure of claim 7, in addition to the operation of any one of claims 1 to 6, the energization of the heat generating part is instructed by the switching means only by the time energization control part, or the time energization is performed. Since the instruction of the control unit or the detection energization control unit can be selected to be transmitted, if the former is selected, the power based on the instruction of the detection energization control unit can be prevented from being used.

Further, according to the structure of claim 8, the time measuring means measures a predetermined time after the power supply section is instructed to energize the heat generating section, and after the predetermined time elapses, the power supply section is instructed. It is possible to give an instruction to stop the power supply to the heat generating portion.

[0023]

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS A first embodiment of the present invention will be described below with reference to FIGS. The heat storage floor heating device A has a heat generation part 1 and a heat storage part 5, and the heat storage floor heating control device B for controlling the energization of the heat storage floor heating device A has a time energization control part 21 and a detection part 22.
And the detection energization control unit 23, the switching means 24 and the power supply unit 25,
It is a main component. Members having the same basic functions as those described in the conventional example are designated by the same reference numerals.

First, the heat storage floor heating device A will be described. The heat generating part 1 generates heat when energized.
It has a heater 2 and a heater holding member 3. This heating part
As shown in FIG. 3, 1 is a substantially flat heater holding member 3
The linear heater 2 is arranged in a meandering manner, and the end portion 2a of the heater 2 is connected to a power supply connection portion 4 for connecting to a power supply portion of a heat storage floor heating control device B described later. .

The heat storage parts 5, 5 are substantially flat plates for storing heat, and are arranged so as to contact the upper surface and the lower surface of the heat generating part 1.
The heat storage parts 5 and 5 are formed by molding a latent heat storage material in which paraffin is dispersed in polyethylene and do not become liquid even when the paraffin is melted, for example, an ethylene-α-olefin copolymer having a density of less than 0.925 g / cm ^3. The main component is a mixture of a polymer and a crystalline organic compound.

A floor temperature sensor 6 measures the temperature of the heat generating portion 1. Reference numeral 7 is a heat insulating material, which is made of urethane foam or the like so that the heat generated in the heat generating portion 1 is difficult to dissipate to the underside of the floor. 8 is Daihiki, 9 is joist, 10 is abandoned, and 11 is floor finishing material. Then, the heat storage floor heating system A is laid between the joists 9 on the waste upholstery 10.

Next, the heat storage floor heating control device B will be described. The time energization control unit 21 controls the energization of the heat generating unit 1 based on the time, and the electricity rate is low due to the contract of the electric lights for each time zone, for example, 8 hours from 23:00 at night to 7:00 in the morning. In the meantime, a timer (not shown) as night time setting means is used to instruct the power supply unit 25 described later to perform energization. This time energization control unit 21
At 3 o'clock, the power supply section 25 is instructed to automatically energize the heat generating section 1 as described later, and the power supply section 25 is instructed to stop energizing the heat generating section 1 at a predetermined time until 7 am. Give instructions. This predetermined time is determined by setting the amount of heat stored in the heat storage unit 5, and when the temperature is high and a large amount of heat need not be stored, the energization time to the heat generation unit 1 is shortened. That is, the power supply to the heat generating part 1 starts at 23:00,
The stop of energization is not limited to 7:00 am, and a predetermined time between 23:00 pm and 7:00 am is set by the night time setting means.
The determination of the energization time, that is, the heat storage amount is determined by the heating state at a predetermined time, that is, based on, for example, a detection signal of the detection unit 22 described later.

The detection unit 22 detects the heating state of the room in which the heat storage floor heating system A is installed, that is, whether or not the room is in a comfortable air conditioning environment.
It is formed by a room temperature sensor. In the case of this room temperature sensor,
A detection signal proportional to room temperature is output and output to a detection energization control unit 23 described later.

The detection energization control unit 23 determines that the heating state of the room in which the heat storage floor heating system A is installed is from 7:00 am to 23:00 pm (daytime) only by energizing the time energization control unit 21 at night. When it becomes unsatisfactory, the power supply to the heat generating part 1 is controlled at that time, and the power supply part 25 to be described later is instructed to supply the power under a predetermined condition based on the detection signal of the detection part 22. Specifically, for example, when a detection signal indicating that the room temperature is 30 ° C. or higher is input from the detection unit 22, the power supply unit 25 is not instructed to energize, but the room temperature is lower than 30 ° C. When the detection signal is input from the detection unit 12, the power supply unit 25 is instructed to energize. That is,
The detection energization control unit 23 operates between 7:00 am and 23:00 pm when a sufficient heating state cannot be obtained only by energizing the heat generating unit 1 by the time energization control unit 22.

The switching means 24 controls whether the one for controlling the power supply unit 25, which will be described later, is only the instruction of the time energization control unit 11 or both of the time energization control unit 21 or the detection energization control unit 23. The selection is made by the user operating a switch (not shown). That is, it is possible to select whether to use only the nighttime electric power, which has a low price, or to use not only the nighttime electric power but also the daytime electric power depending on the case.

The power supply section 25 energizes the heat generating section 1 based on an instruction from the time energization control section 21 or the detection energization control section 23.
That is, when the switching means 24 is selected only as the instruction of the time energization control section 11, it operates by the instruction of the time energization control section 11 at night, and the switching means 24 operates the time energization control section 21 or the detection energization control section. When both instructions of 23 are selected, operation is performed by the time energization control section 21 at night and by the detection energization control section 23 at daytime. In addition, this electricity to be energized is
Use the electric power by the time of day when the electricity bill is cheap at night when the electric power company has contracted for the electric light by the time of the day.

As a concrete product form, the heat storage floor heating control device B includes a controller 26 including a time energization control unit 21, a detection unit 22, a detection energization control unit 23, and a switching unit 24, as shown in FIG. The power supply unit 25 is housed in the control panel 27. 28 is a main power supply line for supplying electric power to the controller 26 and the control panel 27. 29 is an auxiliary power supply line, and the heating unit 1 is connected via the power supply connection unit 4.
To supply power.

Next, the operation of this device will be described with reference to FIG. First, the switching means 24 selects whether to use only nighttime power or nighttime and possibly daytime power. When using only electric power at night, as shown on the left side of the figure, the amount of heat storage at night, that is, the time to energize the heat generating part 1 at night (heat storage time) is based on the initial value etc. determined in advance at the manufacturing stage. After the determination, the time energization control unit 21 controls the power supply unit 25 for the heat storage time to energize the heat generating unit 1 at night. For example, if the contract allows you to use cheap electricity at night for 8 hours from 23:00 to 7:00,
The power is supplied at 23:00, and the power is supplied until a predetermined time within 8 hours from 23:00, which is set by the initial value. When the heat generating part 1 is energized, the heat storage part 5 stores heat and also the heat storage floor heating device.
A radiates heat into the room and heats the room. This heat dissipation continues after the power supply to the heat generating unit 1 is stopped at night, that is, during the daytime, and the room heating state is maintained. Then, for example, the amount of heat stored at night is checked at 20:00 at night. This is because the detection unit 22 detects the room temperature and, for example, if the temperature is 30 ° C., the heat storage amount at night is just right, and if it is different from 30 ° C., it is determined that the heat storage amount at night is excessive or insufficient. When there is an excess or deficiency in the heat storage amount at night and the room temperature at 20 o'clock at night is 30 ° C. or higher, the heat storage amount on the next day is decreased, that is, the predetermined time for stopping the energization at night is shortened, When the temperature is lower than ℃, the heat storage amount is increased, that is, the predetermined time at which the power supply at night is stopped is delayed. Then, when the changed amount or the amount of heat stored at night is just right, the same amount of heat stored at night, that is, the heat storage time, is used to store heat for the next night, and the same operation is continued every day thereafter.

Further, when the electric power is used at night and in the daytime as the case may be, as shown on the right side of FIG. By controlling the power supply unit 25, the heat generating unit 1 is energized at night. When energizing the heat generating part 1, the heat storing part 5
Stores heat, and the heat storage floor heating device A radiates heat to the room to heat the room. This heat dissipation continues after the power supply to the heat generating unit 1 is stopped at night, that is, during the daytime, and the room heating state is maintained. During the daytime, the detection unit 22 sometimes detects the heating state of the room, and when the room temperature is, for example, 30 ° C. or lower, it is determined that the heating state is not good, and the detection energization control unit 23 controls the power supply unit 25. , Energize the heat generating part 1. Then, the heat storage floor heating device A radiates high-temperature heat into the room, and when the heating condition of the room is improved, the heat generation part 1 is de-energized, and at night, the time energization control part 21 By controlling the power supply unit 25, the heat generating unit 1 is energized at night. After that, the same operation is continued.

On the other hand, when the detection unit 22 does not judge that the heating condition of the room is not good in the daytime, the heating unit 1 is not energized in the daytime, for example, at 20 o'clock in the night, as described above. Check the amount of heat stored at night. This is also the detector
The room temperature is detected by 22, and for example, if it is 30 ° C, the nighttime heat storage amount is just right, and if it is 30 ° C or more, the nighttime heat storage amount is large, that is, the next day night heat storage amount, that is, the heat storage amount. Reduce time. Then, if the changed amount or the amount of heat stored at night is just right, the same amount of heat stored at night is stored for the next night, and the same operation is continued thereafter.

By doing so, during the daytime when the heating capacity of the heat storage floor heating system A is reduced, it is possible to energize the heat-generating part 1 without manual labor, so that it is possible to easily use the daytime power and to use it. It also helps to keep the room comfortable and heated. In addition, this product supplies electric power with a low electricity rate at night by contracting for electric lights according to time zones, so it is possible to use the electric wires generally wired in the house without wiring special electric wires. , Initial construction cost is low.

Next, a second embodiment of the present invention will be described with reference to FIGS.
It will be described based on. In this embodiment, the heating state of the room is predicted and the electric power in the daytime is used, and the difference from the first embodiment will be mainly described.

Reference numeral 31 is a heating state predicting means for predicting the time when the heating state of the room is not good, based on the detection signal of the detecting section 22. The heating state predicting means 31 includes a detection energization control unit 23.
And has a storage unit 32 that stores a plurality of detection signals at predetermined time intervals. Specifically, the storage unit 32 stores, for example, room temperature for each predetermined time, and the time when the room temperature becomes, for example, 30 ° C. or lower is calculated and predicted from the change in the room temperature.

Reference numeral 33 is a time measuring means, which measures a predetermined time after the detection energization control section 23 instructs the power supply section 25 to energize the heat generating section 1. A time setting unit 34 sets the above-described predetermined time based on the detection signal of the detection unit 22. In particular,
A long predetermined time is set when the room temperature is rapidly decreased, and a short predetermined time is set when the room temperature is gently decreased.

This is, for example, as shown in FIG.
Predicting the time when the room temperature becomes 30 ° C. or lower, it is possible to energize the heat generating part 1 shortly before, and the energizing time is adjusted according to the change in the room temperature. Therefore, it becomes easier to maintain the room in a comfortable heating state.

Next, a third embodiment of the present invention will be described with reference to FIG. In this embodiment, without providing the detection unit 22, the power is manually supplied to the heat generating unit 1 in the daytime,
The detection energization control unit 23 has a time measuring means 33.

Reference numeral 35 denotes an operation unit, which controls the power supply unit 25 to operate by manually operating a switch (not shown). In this device, the power supply unit 25 does not operate automatically because the detection unit 22 is not provided, but the operation unit 35 instructs the power supply unit 25 to energize the heat generating unit 1 and then energizes the power after a predetermined time. It can be controlled to stop. Therefore, it saves energy. In this case, the time setting unit 34 sets the predetermined time by externally operating.

Although the latent heat storage material is used as the structure of the heat storage section, it is not limited to this. In addition, the power supplied to the heat generating unit is not limited to the contract for the electric lights for each time zone, and may be a contract for the late-night electric power or a contract for a general flat-rate light. Further, although the detection unit is formed of the room temperature sensor, the detection unit is not limited to this, and one or more sensors for measuring the air conditioning environment such as a floor temperature sensor can be used. Anything that detects the heating state of the room from the value may be used. Further, although the power supply to the heat generating part is stopped during the daytime after the elapse of a predetermined time or based on the room temperature detected by the detection part, it may be stopped at a certain time. Furthermore, the initial nighttime heat storage amount may be changed according to the season.

[0044]

According to the heat storage floor heating control device of the first aspect,
When the heating capacity by the heat storage unit of the room where the heat storage floor heating device is installed in the detection unit is reduced, it is detected, and the detection energization control unit gives an instruction to energize the power supply unit based on it, Since it is possible to energize the heat generating portion without manual labor, the usability is improved and the room can be easily maintained in a comfortable heating state.

Further, in addition to the effect of claim 1, the heat storage floor heating control device according to claim 2 is such that the heat generation part is energized based on an instruction from the time energization control part by an electricity set by night time setting means. It is economical because it is held at a cheap night time.

Further, in addition to the effect of claim 1 or 2, the heat storage floor heating control device according to the third aspect is such that the detection energization control part has a good heating state of the room by the heat storage part by the heating state predicting means. Since it is possible to energize the heat generating portion by predicting the time when it will run out and giving an instruction to the power supply unit a predetermined time before that time, it becomes easier to maintain the room in a comfortable heating state.

Further, in addition to the effect of claim 3, the heat storage floor heating control device according to claim 4 can store the detection signal of the detection part at every predetermined time in the storage part. Since it is possible to predict the time when the heating state of the room is not good due to the change, the prediction accuracy is improved, and it becomes easier to maintain the room in the comfortable heating state.

Further, in addition to the effect of any one of claims 1 to 4, the heat storage floor heating control apparatus according to a fifth aspect of the present invention, in addition to the effect of any of the first to fourth aspects, after the time measuring means instructs the power supply section to energize the heat generating section. Since a predetermined time can be measured and an instruction can be given to the power supply unit to stop the power supply to the heat generating unit after the predetermined time has elapsed, the power can be effectively used and the electricity charge can be reduced.

Further, in addition to the effect of claim 5, the heat storage floor heating control device according to claim 6 sets the predetermined time in the time measuring means based on the detection signal of the detection part in the time setting part. Since it is possible to change the energization time to the heat generating portion according to the heating state of the room, it is possible to reduce extra energization, use the electric power more effectively, and reduce the electricity charge.

Further, in addition to the effect of any one of claims 1 to 6, the heat storage floor heating control apparatus according to a seventh aspect of the present invention has a switching means for instructing only the time energization control section to energize the heat generating section, or Since the instruction of the time energization control unit or the detection energization control unit can be selected to be transmitted, if the former is selected, it is possible to prevent the use of the electric power based on the instruction of the detection energization control unit, resulting in energy saving. At the same time, electricity charges can be reduced.

Further, in the heat storage floor heating control apparatus according to the present invention, the time measuring means measures a predetermined time after the power supply section is instructed to energize the heat generating section, and the power is supplied after the predetermined time has elapsed. Since it is possible to give an instruction to the section to stop energizing the heat generating section, it is possible to effectively use the electric power and reduce the electricity charge.

[Brief description of drawings]

FIG. 1 is a block diagram of a heat storage floor heating control device and a heat storage floor heating device showing a first embodiment of the present invention.

FIG. 2 is a sectional view of the heat storage floor heating device.

FIG. 3 is a perspective view of the heat generating portion.

FIG. 4 is a sectional view of the heat generating portion.

FIG. 5 is a perspective view of the heat storage floor heating device.

FIG. 6 is a schematic connection diagram of the heat storage floor heating control device and the heat storage floor heating device.

FIG. 7 is a flowchart showing an operation of the heat storage floor heating control device.

FIG. 8 is a block diagram of a heat storage floor heating control apparatus and a heat storage floor heating apparatus showing a second embodiment of the present invention.

FIG. 9 is a flowchart showing an operation of the heat storage floor heating control device.

FIG. 10 is a block diagram of a heat storage floor heating control device and a heat storage floor heating device showing a third embodiment of the present invention.

FIG. 11 is a block diagram of a heat storage floor heating control device and a heat storage floor heating device showing a conventional example of the present invention.

[Explanation of symbols]

 A Heat storage floor heating system B Heat storage floor heating control device 1 Heat generating part 2 Heater 5 Heat storage part 7 Insulation material 11 Floor finishing material 21 Time energization control part 22 Detection part 23 Detection energization control part 24 Switching means 25 Power supply part 31 Heating state prediction Means 32 Storage unit 33 Time measuring means 34 Time setting unit 35 Operation unit

Claims (8)

[Claims] 1. A heat storage floor heating apparatus having a heat generating portion that generates heat when energized and a heat storing portion that is adjacent to the heat generating portion and stores heat.
In a heat storage floor heating control device having a time energization control unit that gives an instruction to energize a heating unit based on time, and a power supply unit that energizes a heating unit based on an instruction from the time energization control unit, heating a room A heat storage floor heating control device comprising: a detection unit that detects a state; and a detection energization control unit that gives an instruction to energize a power supply unit based on a detection signal of the detection unit. 2. The heat storage floor heating control apparatus according to claim 1, wherein the time energization control unit has a nighttime time setting means for setting time at night when the electricity rate is low based on a contract with an electric power company. . 3. A heating state in which the detection energization control unit predicts a time when the heating state of the room becomes unfavorable based on a detection signal of the detection unit and gives an instruction to energize the power supply unit a predetermined time before that time. The heat storage floor heating control apparatus according to claim 1 or 2, further comprising a prediction unit. 4. The heating state predicting means is provided with a storage section for storing a plurality of detection signals for each predetermined time, and is configured to predict a time when the heating state becomes unfavorable based on the detection signals. The heat storage floor heating control device according to claim 3. 5. The detection energization control unit is provided with time measuring means for giving an instruction to stop energization to the power supply unit after a lapse of a predetermined time from the time when the power supply unit is instructed to energize the heat generating unit. The heat storage floor heating control device according to any one of claims 1 to 4. 6. The heat storage floor heating control apparatus according to claim 5, wherein the time measuring unit is provided with a time setting unit that sets a predetermined time based on a detection signal from the detection unit. 7. A switching means is provided for selecting, to the power supply unit, a state in which both the instructions of the time energization control unit and the detection energization control unit are transmitted and a state in which only the instruction of the time energization control unit is transmitted. The heat storage floor heating control device according to claim 1, wherein 8. A heat storage floor heating apparatus comprising: a heat generating section that generates heat when energized and a heat storing section that is adjacent to the heat generating section and stores heat.
When the time energization control unit that gives an instruction to energize the heating unit based on the time and the instruction to energize the heating unit by the time energization control unit are stopped, the energization of the heating unit is instructed by operating the switch. And an electric power supply unit that energizes the heat generating unit based on a time energization control unit or an energization instruction of the operation unit,
In the heat storage floor heating control device having, the operation unit is provided with time measuring means for giving an instruction to stop energizing the power supply unit after a predetermined time has elapsed from the time when the power supply unit was instructed to energize the heat generating unit. A heat storage floor heating control device characterized by the above.