1300835 九、發明說明： 【發明所屬之技術領域】 本發明係關於一種空調控制之技術領域，尤指一種適 用於空調節能之空調管理節能控制系統。 5 【先前技術】 近成年來，在氣候不斷變遷，且夏季的氣溫逐年攀升 下，空調系統已成為曰常生活必需品。尤其是，人們生活 T物質條件提高，空調系統成長的速度更是驚人。然而， 10 Ik之產生的問題，即是空調系統耗能，其佔建築總耗能的 比例也正逐年攀升。因此，如何提升空調系統的節能效果， 而k低耗能，應當是目前最重要的課題。 扣圖1為夏季某曰的逐時溫度變化圖，圖中RA表示室内 ^氣溫度，OA表示室外空氣溫度。由圖中可發現，約在清 15晨〜一點五十分左右以後，0A的溫度值都比P、A的溫度值還 更低或幾乎相等。然而，習知的空調系統往往只有一昧的 ^求如何以更低的室内溫度，使得室内人員感到涼爽，但 口P心略了相對於0A的溫度值變化，調整室内人員的最佳舒 適溫度，而常使人員有冷賴的感覺。故，習知的空調系 20 =在對於控制使室内人員獲得最佳舒適溫度方面，並非十 分理想。故習知#空調節能技術仍有諸多缺失，而有予以 改進之必要。 【發明内容】 1300835 本發明之目的係在提供一 以在不影響空調室内人 C理即-控制系統， 的節能策略調整適當的舒適溫度情況下’以不同 佳舒適溫度又可減;既可獲得室内人員的最 的最終目標。 …統耗電量，進而達到空調節能 本發明在提供—種空調管理節能 一網際網路傳輪至少 ~疋透過 佳適溫。本糸統包括有至少一被控制達： 10 15 2〇 ;至少-被控制端包括有至少二空調裝置、及控: 衣置其中，後台控制裝置呈有—丨 、， ^ 句括有一批制狀要 八 a6k、早兀。丽述控制端 :衣置、及—控制條件資料庫 件資料庫儲存有至少一筆控制條件，而至 = 是對應於至少-被控制端而設定。 κ 卞件 β，據^ &制端之控制裝置是自控制條件資料庫取 得至〉、-筆㈣條件’並透過網際職傳送至至少 制端之後台控制裝置，並儲存在後台控制裝置之記情ί .元’促使後台控制裳置依據記憶單元之至少一筆”: 對至少二空調裝置進行控制。因此，本發明係在提供:種 _理節能控制系統’俾能以優越的節能策略，達 調室内之最佳適溫。 工 如上所述，本案之空調管理節能控制系統中，後台控 制裝置更包括有-輸人單元，俾能使儲存在記憶單元中之 |少-筆控制條件經由輸入單元輸入修正資料進行修正。 如上所述，本案之空調管理節能控制系統中，至少一 6 1300835 筆控制條件較佳地係對應於至少一被控制端之空調負荷的 大小而設定。 如上所述，本案之空調管理節能控制系統中，空調負 荷較佳地係包括人員負荷及外氣負荷，或等效之空調^荷'。 如上所述，本案之空調管理節能控制系統中，至少— 筆控制條件較佳地係對應於至少—被控制端之空調負荷的 大小所分別發生的時段而設定至少二組溫度控制條件。 如上所述，本案之空調管理節能控制系統中，每一,且 10 15 20 溫度控制條件較佳地係包括至少三個溫度控制區間，笪、曰 依空調負荷計算而得。 ，、疋 如上所述，本案之空調管理節能控制系統中，後 制裝置根據記憶單元之至少一签k Α ί v 工 ^ 筆控制條件，以控制至少一 空調裝置進行至少-包括選自停機、冷房運轉、= 轉之群組所組成之運轉方式。 、几運 如上所述’本案之空調管理節 置較佳地係為分離式冷氣機 I以工料 或等效之空調裝置。 了為中央式風機盤管系統 如上所述，本案之空調營〃 制裝置較佳地係為電腦，或等效之統中，後台控 如上所述’本幸之^^ 士々々 置較佳地_腦，，控制聚 【實施方式】 明本發明之實施方 以下係藉由特定的具體實施例說 7 l3〇〇835 之内:=:„域具通常知識者可由本說明書所揭示 地了解本發明之其他優點與功效。 系统圖1，圖2係為本發明空調管理節能控制系統之 1 /1^ 制侔件10^、2’兩者之間是以一網際網路100傳輸一筆控 、、，以進行節能控制並達到最佳適溫。 置13被二制端1包括有二空調裝置u，12、及-後台控制裝 且具有1輸I吏單台=裝置13内具有一記憶單元（圖未示）， 10 15 式2 後台控制裝置13是一部電腦，而記憶單元 疋一硬碟，而輸入單元14是一鍵盤。 ，：端2包括有—控制裝置21 '及一控制條件資料庫 ，/、中，控制條件資料庫22内儲存有一筆控制條件ι〇ι， =控㈣件101是對應於被控制端1之空調負荷而設定的。 例中控制裝置21是一部電腦，而控制條件101是 自被控制端1之空調負荷的大小，亦即人員負荷及外氣 負何的大小而設定二組溫度控制條件。其中，每一组田产 控制條件包括三個溫度控制區間，其是依空調負荷計= 得。例如’被控制端以調室内之最佳適溫是26t:，而空調 負荷之最大值係發生在中午十二點至下午一點，同時亦是 進入到二肩至内人數最多的尖峰時段，則控制條件101設定 此^组，度控制條件，其中，一組溫度控制條件是參酌在 人員負何及外氣負荷之空調負荷最大值的尖峰時段，另一 組溫度控制條件是參酌在人員負荷及外氣負荷之空調負荷 20 1300835 最大值以外的離峰時段；其备一 空調負荷計算出：個、、θ戶抑，一、、且溫度控制條件可依 ’ π —個/皿度控制區 的⑽以下、2代至28。〇之間、及28。=^在:峰:段下 制區間之一組溫度控制 個-度控 下、紙至机之間、及机以^離峰㈣下的耽以 笔 么 # 上之二個溫度控制區間之 二=控制條件。另外，還可以針對其他的尖峰時段， ==:周負荷而增加其他的溫度控制條件。例如早 人數最夕的d、漆占士 ^晚上五點至七點亦是進入到空調室内 ^ =時段’則控制條件101亦可參酌前述的兩個 U ·貝負何及外氣負荷，再設定另二組溫度控制條件。 本貫施例中，控制端2之控制裝置21是從控制條件資料 庫22取传控制條件1〇1 ’並透過網際網路_傳送至被控制 端1之後台控制裝置13，並儲存在後台控制裝置13之記料 兀，使後台控制裝置13根據記憶單元之控制條件UH，對被 控制端1之二空調裝置u，12進行節能控制。另外，使用者亦 可以針對當時被控制端丨的空調負荷大小，由後台控制裝置 13之輸入單元14輸入修正資料，以對記憶單元之控制條件 101進仃修正，或者，將修正資料傳回至控制端2之控制條 件貧料庫22儲存，以提供下次控制裝置21同時取得控制條 件101及修正資料，並在傳送控制條件1〇1之前作分析，以 使得被控制端1獲得較適當的節能控制。 最後’以圖3及圖4分別說明在尖峰時段及離峰時段 下，空調裝置11，12的運轉情形。其中，圖3係在尖峰時段下 之三個溫度控制區間，其分別為A ( 24〇c以下）、B ( 24它 1300835 至抓之間）、及c(28°c以上）；另外，圖4係在離峰時 段下。之三個溫度控制區間，其分別為a( 26。〇以下）、Μ 9 C之間）c ( 29 C以上）。在本實施例中，當控制端 2之控制裝置21透過網際網路⑽傳送控制條件⑻至被控 制知1之後台控制裝置丨3，並儲存在後台控制裝置13 單元後，後台控«置13將根據記憶單元之控制條件^ 依當時的時段，先判斷是尖峰時段或離峰時段。 15 如果後台控制裝置13判斷是在尖♦時段下，則依據控 制ir'件101中之-組溫度控制條件之三個溫度控制區間，控 制二空調裝置1U2進行冷房運轉或送風運轉。例如：在^ ，制端i空調室内之室溫為2代以下，後台控制裝㈣判斷 2大峰時段時，則控制二空調裝置u，_時進行送風運 ’另外’在被控制端1空調室内之室溫為24。。〜28。。期間， 後台控«置_斷是线時段時，龍制 =轉，而空調裝置12進行送風運轉;又，在被控： 二工调至内之室溫為抓以上，後台控制裝 峰時段時，則控制二空調裝置u,12同時進行冷房運轉。大 制條台控制裝置13判斷是在離峰時段下，則依據控 間二 之另一組溫度控制條件之三個溫度控制區 二I广空調裝置11,12進行冷房運轉或送風運轉。例如： 判空調室内之室溫為26。。以下，後台控制裝置13 =ΓΓ，則控制二空調裝置u,12同時進行送風 =另外，在被控制端!空調室内之室溫為阶〜机期 曰 控制裝置13判斷是離學時段時，則控制空調裝置 20 1300835 π進行冷房運轉，而空調裝置12進行送風運轉；又，在 控制端工空調室内之室溫為29。〇以上，後台控制裝置13/斷 是離峰時段時，則控制二空鮮置u，12同時進行冷房運轉。 再請參考圖2,以說明本發明另—較佳實施例。本另一 5較佳實施例與前述較佳實施例之系統結構大致相同，惟不 同係在本另一較佳實施例之系統之二空調裝置1U2中分別 包括有一溫度監測裝置11U21、及—電流監測裝置 m，m，其係、可㈣監測空調室内之溫度值及空調裝置之 電錄，並定時由後台控制裝置13回傳至控制端2之控制條 1〇件貧料庫22儲存，以提供曰後檢修時可由溫度值及電流值 作判斷分析，以使得被控制端i獲得較適當的節能控制。 上述實施例僅係為了方便說明而舉例而已。本發明所 主張之權利範圍自應以申請專利範圍所述為準，而非僅限 於上述實施例。 151300835 IX. Description of the Invention: [Technical Field] The present invention relates to a technical field of air conditioning control, and more particularly to an air conditioning management energy saving control system suitable for air conditioning energy saving. 5 [Prior Art] In recent years, the air conditioning system has become a daily necessities as the climate continues to change and the temperature in summer rises year by year. In particular, people's living conditions improve the material conditions, and the speed of air-conditioning systems is even more amazing. However, the problem with 10 Ik is that the air conditioning system consumes energy, and its proportion of total building energy consumption is also rising year by year. Therefore, how to improve the energy-saving effect of the air-conditioning system, and k low energy consumption should be the most important issue at present. Figure 1 shows the hourly temperature change of a raft in summer. In the figure, RA indicates the indoor air temperature and OA indicates the outdoor air temperature. It can be seen from the figure that the temperature value of 0A is lower or almost equal to the temperature values of P and A after about 15 am to 1.5 pm. However, the conventional air conditioning system often only has a glimpse of how to lower the indoor temperature, so that the indoor personnel feel cool, but the mouth P heart slightly changes with respect to the temperature value of 0A, adjusting the optimal comfort temperature of the indoor personnel. And often makes people feel cold. Therefore, the conventional air conditioning system 20 = is not ideal for controlling the indoors to obtain the optimum comfort temperature. Therefore, there are still many shortcomings in air conditioning and energy saving technology, and there is a need to improve it. SUMMARY OF THE INVENTION 1300835 The object of the present invention is to provide a comfort temperature that can be adjusted at a different comfort temperature without affecting the energy saving strategy of the air conditioner indoors. The ultimate goal of the indoor staff. The system consumes electricity, and then achieves air conditioning energy saving. The present invention provides an air conditioning management energy saving. An internet transmission is at least ~ 疋 through a good temperature. The system includes at least one controlled to: 10 15 2 〇; at least - the controlled end includes at least two air conditioning devices, and controls: the clothing is placed therein, the background control device has a 丨, , ^ sentence includes a batch system The shape is eight a6k, early. The Lisa control terminal: the clothing, and the control condition database library stores at least one control condition, and the = is corresponding to at least the controlled terminal. κ β , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , Memorize ί. Yuan 'promotes the background control to be placed according to at least one of the memory units": Controls at least two air conditioning units. Therefore, the present invention provides: a kind of energy saving control system that can be superior energy saving strategy, In the air conditioning management energy-saving control system of the present invention, the background control device further includes an input-input unit, and the 少-pen control condition stored in the memory unit can be The input unit inputs the correction data for correction. As described above, in the air conditioning management energy-saving control system of the present invention, at least one of the 1300,835 control conditions is preferably set corresponding to the size of the air-conditioning load of the at least one controlled end. In the air conditioning management energy-saving control system of the present case, the air-conditioning load preferably includes a personnel load and an external air load, or an equivalent air-conditioning load. In the air conditioning management energy-saving control system of the present invention, at least the pen control condition preferably sets at least two sets of temperature control conditions corresponding to at least the time period during which the air-conditioning load of the controlled end respectively occurs. As described above, the present case In the air conditioning management energy-saving control system, each of the 10 15 20 temperature control conditions preferably includes at least three temperature control intervals, which are calculated according to the air conditioning load. , 疋 As described above, the air conditioning management of the present case In the energy-saving control system, the post-production device controls at least one air-conditioning device according to at least one sign of the memory unit to control at least one air-conditioning device, including a group selected from the group consisting of shutdown, cold room operation, and conversion. The operation mode. As mentioned above, the air conditioning management section of the present case is preferably a separate air conditioner I with a material or an equivalent air conditioner. The central fan coil system is as described above, and the air conditioner of the present case The camping device is preferably a computer, or an equivalent system, and the background control is as described above. 'This is fortunately ^^ 士 々々 较佳 _ _ brain, control poly Embodiment embodiment of the present invention is described by the following specific embodiments based particular l3〇〇835 of 7: =: "field having ordinary knowledge disclosed in this specification may be understood other advantages and effects of the present invention. System 1 and FIG. 2 show that the 1/1^ component 10^, 2' of the air conditioning management energy-saving control system of the present invention transmits a control between the Internet 100 and the energy-saving control. Achieve the best temperature. Set 13 is equipped with two air conditioners u, 12, and - background control equipment and has 1 input I = single unit = device 13 has a memory unit (not shown), 10 15 type 2 background control device 13 is a computer, and the memory unit is a hard disk, and the input unit 14 is a keyboard. , the end 2 includes a control device 21 'and a control condition database, /, the control condition database 22 stores a control condition ι〇ι, = control (four) 101 corresponds to the controlled end 1 Air conditioning load is set. In the example, the control device 21 is a computer, and the control condition 101 sets two sets of temperature control conditions from the magnitude of the air conditioning load of the controlled terminal 1, that is, the size of the personnel load and the external air. Among them, each group of field control conditions includes three temperature control intervals, which are based on the air conditioning load. For example, 'the optimal temperature for the controlled terminal to adjust the room is 26t:, and the maximum value of the air conditioning load occurs from 12 noon to 1 pm, and it is also the peak period when the number of people entering the shoulders is the highest. The control condition 101 sets the group control condition, wherein one set of temperature control conditions is a peak period of the maximum air conditioning load of the personnel and the external air load, and the other set of temperature control conditions is the personnel load and The air-conditioning load of the external air load is 20 1300835, and the peak time period other than the maximum value; the air conditioning load is calculated as: one, θ, and one, and the temperature control condition can be determined according to the 'π--/the control zone (10) Below, 2nd to 28th. Between 〇, and 28. =^在:峰: One of the temperature control sections of the section below the section-degree control, the paper to the machine, and the machine to the peak of the peak (four) = control condition. In addition, other temperature control conditions can be added for other spike periods, ==: weekly load. For example, the number of people in the early days is the most recent d, the painter's ^ ^ 5 pm to 7 pm is also entering the air-conditioned room ^ = time period', then the control condition 101 can also take into account the above two U · Bei negative and external gas load, and then Set the other two sets of temperature control conditions. In the present embodiment, the control device 21 of the control terminal 2 retrieves the control condition 1〇1' from the control condition database 22 and transmits it to the controlled terminal 1 via the Internet _ after the station control device 13 and stores it in the background. The recording device 13 controls the background control device 13 to perform energy saving control on the air conditioners u, 12 of the controlled terminal 1 in accordance with the control condition UH of the memory unit. In addition, the user can also input the correction data by the input unit 14 of the background control device 13 for the size of the air conditioner load at the time of being controlled, to correct the control condition 101 of the memory unit, or to transmit the correction data to the The control condition of the control terminal 2 is stored in the storage unit 22 to provide the next control device 21 to simultaneously obtain the control condition 101 and the correction data, and analyzes before the transmission control condition 1〇1, so that the controlled terminal 1 obtains a more appropriate one. Energy saving control. Finally, the operation of the air conditioners 11, 12 in the peak period and the off-peak period will be described with reference to Figs. 3 and 4, respectively. Among them, Figure 3 is the three temperature control intervals under the peak period, which are A (24〇c or less), B (24 between 1300835 and scratch), and c (above 28°c); The 4 series is under the peak period. The three temperature control intervals are a (26. 〇 below) and Μ 9 C) c (29 C or more). In this embodiment, when the control device 21 of the control terminal 2 transmits the control condition (8) through the Internet (10) to the control device 3 after being controlled, and stores it in the background control device 13 unit, the background control «set 13 According to the control condition of the memory unit, it is judged to be the peak period or the peak period according to the current time period. 15 If the background control device 13 determines that it is in the ♦ time period, the two air conditioners 1U2 are controlled to perform the cold room operation or the air supply operation in accordance with the three temperature control intervals of the group temperature control conditions in the control ir' 101. For example: in ^, the room temperature of the i-air room is 2 generations or less, and the background control device (4) judges the 2 peak periods, then controls the air conditioner u, _ when the air is sent, 'other' in the air-conditioned room of the controlled terminal 1 The room temperature is 24. . ~28. . During the period, when the background control «set_break is the line time, the dragon system = turn, and the air conditioner 12 performs the air supply operation; in addition, during the control: the room temperature of the second work is adjusted to catch the above, and the background control peak period Then, the two air conditioners u, 12 are controlled to perform the cold room operation at the same time. The large bar control device 13 judges that, in the off-peak period, the three I-air air conditioners 11, 12 are operated in accordance with another set of temperature control conditions of the control room 2, and the cold room operation or the air supply operation is performed. For example: The room temperature in the air-conditioned room is 26. . Hereinafter, when the background control device 13=ΓΓ, the two air conditioners u and 12 are controlled to simultaneously perform the air supply. In addition, when the room temperature of the air-conditioned room is controlled by the control terminal, the air-conditioning room is determined to be the school time period. The air conditioner 20 1300835 is controlled to perform the cold room operation, and the air conditioner 12 performs the air supply operation; and the room temperature in the control terminal air conditioner room is 29. 〇 Above, when the background control device 13/off is in the off-peak period, the two-spot fresh-supplied u, 12 is simultaneously operated in the cold room. Please refer to FIG. 2 again to illustrate another preferred embodiment of the present invention. The other five preferred embodiments are substantially the same as the system configuration of the foregoing preferred embodiment, except that in the second air conditioning device 1U2 of the system of the other preferred embodiment, a temperature monitoring device 11U21 and a current are respectively included. The monitoring device m, m, which can (4) monitor the temperature value of the air conditioning room and the electric recording of the air conditioning device, and periodically transfer it back to the control bar 1 of the control terminal 2 by the background control device 13 to store the The temperature value and current value can be judged and analyzed during the post-survey inspection, so that the controlled end i obtains more appropriate energy-saving control. The above embodiments are merely examples for convenience of explanation. The scope of the claims is intended to be limited only by the scope of the claims. 15
【圖式簡單說明】 圖1係夏季某日的逐時溫度變化圖。 圖2係本發明空調管理節能控制系統之系統架構圖。 較佳實施例之尖峰時間之系統運轉示意圖 0 毛明較佳貫施例之離峰時間之系統運轉示意圖 20 1300835 【主要元件符號說明】 被控制端 1 控制端 2 網際網路 100 控制條件 101 空調裝置 11，12 後台控制裝置 13 區間 輸入單元 14 A，B，C，a，b，c 控制裝置 21 控制條件資料庫 22 溫度監測裝置 11U.21 電流監測裝置 112，122 空調管理節能控制系統10[Simple description of the diagram] Figure 1 is a graph of hourly temperature changes on a certain day in summer. 2 is a system architecture diagram of an air conditioning management energy saving control system of the present invention. Schematic diagram of the system operation of the peak time of the preferred embodiment 0 Schematic diagram of the system operation of the peak time of the preferred embodiment 20 1300835 [Description of the main components] Controlled end 1 Control terminal 2 Internet 100 Control condition 101 Air conditioning Device 11, 12 background control device 13 interval input unit 14 A, B, C, a, b, c control device 21 control condition database 22 temperature monitoring device 11U.21 current monitoring device 112, 122 air conditioning management energy saving control system 10
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