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    • 1. 发明专利
    • Storage type hot water supply system
    • 储存式热水供应系统
    • JP2009097821A
    • 2009-05-07
    • JP2007271138
    • 2007-10-18
    • Mitsubishi Electric Corp三菱電機株式会社
    • MURAKAMI TAIJONOMOTO SOHIRAOKA SOKAJIYAMA KOJI
    • F24H1/18F24H1/00F24H9/00
    • PROBLEM TO BE SOLVED: To provide a storage type hot water supply system of high COP, capable of overcoming a lack of high-temperature water in a hot water storage tank by quickly taking out intermediate-temperature water to an exterior and utilizing the same as water for hot water supply, regardless of the height of the intermediate-temperature water in the hot water storage tank. SOLUTION: This storage type hot water supply system includes a hot water storage tank 2 for storing hot and cold water, a heating means 3 connected with the hot water storage tank 2 through piping, and heating the hot and cold water fed from the hot water storage tank 2, a water intake tube 38 provided in the hot water storage tank 2 while extended in an upper and lower direction, and a hot water tap 4 to which the hot and cold water taken out to the exterior of the hot water storage tank 2 is guided, and the water intake tube 38 is provided with a water-intake port 12 for taking the hot and cold water from the hot water storage tank 2 to the inside, and a position in the upper and lower direction of the water intake port 12 is continuously changed. COPYRIGHT: (C)2009,JPO&INPIT
    • 要解决的问题:提供一种高COP的储存式热水供应系统,其能够通过将中间温度的水快速地取出到外部并利用热水储存罐中的高温水的缺乏来克服高温水的缺乏 与用于热水供水的水相同,不管热水储罐中的中温水的高度如何。 解决方案:该储存式热水供应系统包括用于储存冷热水的热水储存箱2,通过管道与热水储存罐2连接的加热装置3,并且加热从 热水储存箱2,同时在上下方向延伸设置在热水储存箱2中的进水管38和热水龙头4,热水和冷水从该热水出口到外部的热量 储水箱2被引导,进水管38设置有用于将冷热水从热水储存箱2吸入内部的进水口12,并且在上部和下部方向上的位置 进水口12连续地变化。 版权所有(C)2009,JPO&INPIT
    • 3. 发明专利
    • Storage type hot water supply system
    • 储存式热水供应系统
    • JP2009097820A
    • 2009-05-07
    • JP2007271137
    • 2007-10-18
    • Mitsubishi Electric Corp三菱電機株式会社
    • MURAKAMI TAIJOHIRAOKA SOKAJIYAMA KOJI
    • F24H1/18F24D17/00F24H1/00
    • PROBLEM TO BE SOLVED: To overcome a lack of high-temperature water in a hot water storage tank by using intermediate-temperature water generated in the hot water storage tank as water for hot water supply, by taking out the intermediate-temperature water to an exterior without storing the same in the hot water storage tank even when the temperature of the intermediate temperature water is lower than a required hot water supply temperature. SOLUTION: This storage type hot water supply system includes the hot water storage tank 2 for storing hot and cold water, a heat pump unit 3 for heating the hot and cold water fed from the hot water storage tank 2, a water intake tube body 38 provided in the hot water storage tank 2 while extended in an upper and lower direction, for guiding the hot and cold water to the exterior, and a hot water tap 4 to which the hot and cold water taken out to the exterior of the hot water storage tank 2 is guided, and the water intake tube body 38 is provided with at least an upper water-intake hole 40 formed near a top of the hot water storage tank 2 and an intermediate water-intake hole 43 formed lower than the upper water-intake hole 40. COPYRIGHT: (C)2009,JPO&INPIT
    • 要解决的问题:为了通过使用在热水储存箱中产生的中温水作为热水供水来克服热水储罐中的高温水的缺乏,通过取出中间温度 即使中间温度水的温度低于所需的热水供应温度,水也不会储存在热水储存罐中而不存储在外部。 解决方案:这种存储式热水供应系统包括用于存储冷热水的热水储存箱2,用于加热从热水储存箱2供给的冷热水的热泵单元3,进水口 设置在热水储存箱2中的管体38,同时沿上下方向延伸,用于将冷热水引导到外部;以及热水龙头4,热水龙头4将热水和冷水从外部取出 吸水管2被引导,吸水管主体38至少设置有形成在储水箱2顶部附近的上部吸水孔40和形成为低于 上部进水孔40.版权所有(C)2009,JPO&INPIT
    • 4. 发明专利
    • Storage type hot water supply system
    • 储存式热水供应系统
    • JP2009097819A
    • 2009-05-07
    • JP2007271136
    • 2007-10-18
    • Mitsubishi Electric Corp三菱電機株式会社
    • MURAKAMI TAIJOHIRAOKA SOKAJIYAMA KOJI
    • F24H1/18F24H1/00
    • PROBLEM TO BE SOLVED: To provide a storage type hot water supply device capable of overcoming a lack of high-temperature water in a hot water storage tank and securing COP by suppressing the lowering of a temperature of the high-temperature water and a temperature rise of low-temperature water when intermediate-temperature water flows into the hot water storage tank. SOLUTION: This storage type hot water supply system includes the hot water storage tank 2 for storing hot and cold water, a heating means 3 connected with the hot water storage tank 2 through piping for heating the hot and cold water fed from the hot water storage tank 2, a tube body 38 provided in the hot water storage tank 2 while extended in an upper and lower direction to allow the hot and cold water heated by the heating means 3 to flow therein and to flow out into the hot water storage tank 2 from a communicating portion, and a hot water temperature sensor 34 mounted on the hot water storage tank 2 for detecting a temperature of the hot and cold water in the hot water storage tank 2, and a position in the upper and lower direction of the communicating portion of the tube body 38 is adjusted on the basis of the detection temperature by the hot water temperature sensor 34. COPYRIGHT: (C)2009,JPO&INPIT
    • 要解决的问题:提供一种能够克服热水储存罐中缺少高温水并且通过抑制高温水的温度降低来确保COP的存储型热水供应装置,以及 当中温水流入热水储罐时,低温水的温度升高。 解决方案:该储存式热水供应系统包括用于存储冷热水的热水储存箱2,加热装置3,其通过用于加热从热水储存罐2供给的冷热水的管道连接 热水储存箱2,设置在热水储存箱2中的管体38,同时沿上下方向延伸,以允许由加热装置3加热的冷热水流入其中并流出到热水中 存储罐2,以及安装在蓄热水箱2上的热水温度传感器34,用于检测蓄热水箱2内的冷热水的温度,上下方向的位置 基于热水温度传感器34的检测温度来调节管体38的连通部分。(C)2009年,JPO&INPIT
    • 5. 发明专利
    • REFRIGERATOR
    • JPH01167557A
    • 1989-07-03
    • JP32476687
    • 1987-12-21
    • MITSUBISHI ELECTRIC CORP
    • KAJIYAMA KOJI
    • F04B41/06F25B5/00
    • PURPOSE:To plan energy saving operation by forming the refrigerator so that the selection of a plurality of compressors different in volume allows detection of the opening of a throttle device and with this opening detecting signals compared with operating data of the previously input compressors, efficiency is given priority. CONSTITUTION:A detecting part 26 detects the openings of throttle devices 12, 13 and a detecting signal is output. This opening detecting signal is input in a control part 20 for operating and controlling a first and a second compressors 1, 2. A refrigerant circulating quantity is calculated therein. Since the selection of the compressors 1, 2 for cooling load from the refrigerant circulating quantity in some operating condition is performed, previously input respective operating data of the compressors 1, 2 are compared therewith. The most efficient compressor for the cooling load at its time is operated by an output signal generated in the control part 20. In other words the operation of the compressors 1, 2 corresponding to fluctuation of the cooling load is selected by operation efficiency priority.
    • 7. 发明专利
    • FREEZER DEVICE
    • JPH03102143A
    • 1991-04-26
    • JP23890289
    • 1989-09-14
    • MITSUBISHI ELECTRIC CORP
    • KAJIYAMA KOJI
    • F25B1/00G05B13/02H02P25/04H02P27/06
    • PURPOSE:To make a fast reacting to a predetermined set pressure and further improve dynamic characteristic such as a reduction of a consumption power and a follow-up characteristic in respect to a variation of a cooling load by a method wherein a fuzzy estimation is carried out in response to a difference between a sensed pressure of refrigerant at a low pressure side and a set pressure and a coefficient of differentiation of the sensed pressure. CONSTITUTION:A pressure comparator 10 stores a comparator for comparing a pressure sensing signal from a low pressure sensing part 7 with a reference value set in response to a set pressure and generates a signal corresponding to a difference between the reference value and the pressure sensing signal. Similarly, a differential coefficient calculation part 11 receives a pressure sensing signal from a pressure sensing part 7, calculates a differential coefficient of a refrigerant pressure and generates a signal corresponding to a result of calculation. A fuzzy control part 12 may perform a fuzzy estimation and output a positive value in response to a signal from each of the pressure comparing part 10 and the differentiating coefficient calculation part 11. A frequency control part 13 may control an inverter 5 in response to a positive value from the fuzzy control part 11 and control its output frequency. With such an arrangement, it is possible to reach a set pressure immediately, to reduce a consumption power and thus to provide a freezer device having a better dynamic characteristic against a load variation.
    • 10. 发明专利
    • REFRIGERATOR
    • JPH0452464A
    • 1992-02-20
    • JP16322390
    • 1990-06-20
    • MITSUBISHI ELECTRIC CORP
    • KAJIYAMA KOJI
    • F04B49/06F25B1/00G05B13/02
    • PURPOSE:To enable a predetermined set pressure to be rapidly reached and contrive a lower power consumption and a better follow-up to variation in cooling load, by performing a fuzzy inference according to the difference between a detected refrigerant pressure and a preset pressure and to the differential coefficient of the detected pressure, and varying a membership function according to a system. CONSTITUTION:When a pressure detecting part 7 detects a refrigerant pressure and outputs a pressure detection signal. A pressure comparing part 10 compares the signal with a reference value set correspondingly to a predetermined set pressure, and generates a signal corresponding to the difference between the two. A differential coefficient calculating part 11, on receiving the signal from the detecting part 7, calculates the differential coefficient of the refrigerant pressure, and generates a signal corresponding to the calculated coefficient. A fuzzy controlling part 12 performs a fuzzy inference based on the signals from the comparing part 10 and the calculating part 11, and outputs a set value. According to the set value, a frequency controlling part 13 controls a time for varying the output frequency of an inverter 5 so that the predetermined set pressure is reached in a shorter time. A function correcting part 14 corrects the shape of a membership function in the fuzzy controlling part 12 so as to improve dynamic characteristics in response to variations in load, thereby optimizing the dynamic characteristics of a refrigerant system.