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    • 1. 发明专利
    • Adsorption/desorption device and number-of-revolution control method of rotor
    • 转子/吸收装置和转子数转换控制方法
    • JP2012017890A
    • 2012-01-26
    • JP2010154548
    • 2010-07-07
    • Shinko Kogyo Co LtdYamatake Corp新晃工業株式会社株式会社山武
    • YAMAGUCHI MASAHIRONABESHIMA YASUSHIYOSHIDA KAZUTERUMATSUBA MASAHIKODAZAI RYUTATAKAKURA YOSHITAKAUSHIODA NAOFUMI
    • F24F3/147F24F11/02
    • PROBLEM TO BE SOLVED: To reduce variation in an adsorption/desorption state of a desiccant rotor by obtaining an adsorption/desorption state of water in the desiccant rotor and automatically adjusting the rotations of the desiccant rotor.SOLUTION: There is provided a water exchange state monitoring device 300A. The water exchange state monitoring device 300A includes: a humidity difference detecting part 15; a humidity difference setting value storage part 16; and a rotor rotation control calculating part 17. The humidity difference detecting part 15 detects humidity difference Δh of air of a processing side before and after passing through the desiccant rotor 3. The rotor rotation control calculating part 17 controls the rotations of the desiccant rotor 3 so that humidity difference Δh from the humidity difference detecting part 15 falls between humidity difference setting values Δhsp1 and Δhsp2 stored in the humidity difference setting value storage part 16. In the same way for a reproducing side, humidity difference Δh of air of a reproducing side before and after passing through the desiccant rotor 3 is detected, and the rotations of the desiccant rotor 3 can be controlled based on this detected humidity difference Δh.
    • 要解决的问题:通过获得干燥剂转子中的水的吸附/解吸状态并自动调整干燥剂转子的旋转来减少干燥剂转子的吸附/解吸状态的变化。 提供了一种水交换状态监视装置300A。 水交换状态监视装置300A包括:湿度差检测部15; 湿度差设定值存储部16; 和转子旋转控制计算部17.湿度差检测部15检测在通过干燥剂转子3之前和之后的处理侧的空气的湿度差Δh。转子旋转控制计算部17控制干燥剂转子3的旋转 使得与湿度差检测部15的湿度差Δh落在存储在湿度差设定值存储部16中的湿度差设定值Δhsp1和Δhsp2之间。再现侧以相同的方式,再现侧的空气的湿度差Δh 在通过干燥剂转子3之前和之后检测到干燥剂转子3的旋转,并且可以基于该检测到的湿度差Δh来控制干燥剂转子3的旋转。 版权所有(C)2012,JPO&INPIT
    • 2. 发明专利
    • Desiccant air conditioner supplying dry air of ultra low dew-point temperature
    • 供冷空调超低温低温干燥空气
    • JP2012159272A
    • 2012-08-23
    • JP2011021221
    • 2011-02-02
    • Azbil CorpShinko Kogyo Co Ltdアズビル株式会社新晃工業株式会社
    • NABESHIMA YASUSHITAKADA KEISUKEYOSHIDA KAZUTERUMATSUBA MASAHIKODAZAI RYUTATAKAKURA YOSHITAKA
    • F24F3/14
    • Y02B30/52
    • PROBLEM TO BE SOLVED: To provide a desiccant air conditioner using a regenerator of a heat source of 80°C or less, and supplying dry air of an ultra low dew-point temperature indoors.SOLUTION: Processing zones of first to third desiccant rotors having first to third coolers are communicated in series, the outside air is sucked from a first cooler side, and processed in the processing zones of the second desiccant rotor and the third desiccant rotor to supply the supply air of ultra low dew-point to an indoor side, a large amount of return air in the indoor side is returned to a downstream side of the processing zone of the first desiccant rotor at an upstream side of the processing zone of the second desiccant rotor, regenerating zones of the third to first desiccant rotors having the third to first coolers are communicated in series, an evaporator and a condenser of a heat pump circuit are combined in any of coolers and regenerators, each regenerator is heated at 80°C or less, a part of the supply air is supplied to the regenerating zones of the third regenerator and the third desiccant rotor, and the regenerated air is made to successively pass through the regenerating zones of the second desiccant rotor and the first desiccant rotor and discharged to the outside.
    • 要解决的问题:提供使用80℃以下的热源的再生器的干燥剂空调机,并在室内供给超低露点温度的干燥空气。 解决方案:具有第一至第三冷却器的第一至第三干燥剂转子的加工区域串联连通,外部空气从第一冷却器侧吸入,并在第二干燥剂转子和第三干燥剂转子的处理区域中进行处理 为了向室内供给超低露点的供给空气,室内侧的大量返回空气返回到处理区域的上游侧的第一干燥剂转子的处理区域的下游侧 第二干燥剂转子,具有第三至第一冷却器的第三至第一干燥剂转子的再生区域串联连接,蒸发器和热泵回路的冷凝器组合在任何冷却器和再生器中,每个再生器被加热至80℃ ℃以下,将供给空气的一部分供给到第三再生器和第三干燥剂转子的再生区域,再生空气依次通过再生器 产生第二干燥剂转子和第一干燥剂转子的区域并排放到外部。 版权所有(C)2012,JPO&INPIT
    • 3. 发明专利
    • Supply water temperature control device and method therefor
    • 供水温度控制装置及其方法
    • JP2010236786A
    • 2010-10-21
    • JP2009085004
    • 2009-03-31
    • Yamatake Corp株式会社山武
    • DAZAI RYUTAKUGAYA TAKAYOSHI
    • F24F11/02
    • F24D19/1048F24D19/1039F24F11/70F24F2110/12F25D17/02G05D23/1919
    • PROBLEM TO BE SOLVED: To determine an optimum water supply temperature at any time for a long period by coping with changes in characteristics of a heat source apparatus and a circulation pump, and change of external environment. SOLUTION: In the heat source apparatus control device (supply water temperature control device) 15, a use energy amount PW1 of the heat source apparatus 1, a use energy amount PW2 of a hot/cold water pump 2, a hot/cold water supply temperature TS from the heat source apparatus 1, and an actual value of an outside air temperature (tout) are periodically collected and accumulated as relevant parameters relating to a present load situation during an operation of the heat source apparatus 1. The actual values of the collected related parameters are plotted in a multidimensional space by each collection of the related parameters, a response surface model is created by technology of RSM-S, and a present optimum water supply temperature TSsp is determined on the basis of the created response surface model. COPYRIGHT: (C)2011,JPO&INPIT
    • 要解决的问题:通过应对热源装置和循环泵的特性变化以及外部环境的变化来确定长时间的任何时间的最佳供水温度。 解决方案:在热源装置控制装置(供水温度控制装置)15中,热源装置1的使用能量PW1,热水/冷水泵2的使用能量PW2,热/ 作为与热负荷装置1的运转时的当前负荷情况有关的参数,周期性地收集和累积来自热源装置1的冷水供给温度TS和外部空气温度(tout)的实际值。实际 通过相关参数的每个集合将所收集的相关参数的值绘制在多维空间中,通过RSM-S的技术创建响应表面模型,并且基于所创建的响应确定当前最佳供水温度TSsp 表面模型。 版权所有(C)2011,JPO&INPIT
    • 4. 发明专利
    • Air conditioning control device and air conditioning control method
    • 空调控制装置和空调控制方法
    • JP2009270770A
    • 2009-11-19
    • JP2008122064
    • 2008-05-08
    • Yamatake Corp株式会社山武
    • DAZAI RYUTA
    • F24F11/04
    • PROBLEM TO BE SOLVED: To save energy when a load is small in an air conditioned space. SOLUTION: In an air conditioning control device 3, indoor temperature tpv in the air conditioned space 2 is compared with temperature tSpv of air supply to the air conditioned space 2. When tpv≈tSpv is confirmed, an opening θR of a return air damper 10 is set to be 0% (full closing), and an opening θA of an outside air damper 8 and an opening θV of a ventilation damper 9 are set to be 100% (full opening). Rotational frequency control command INV1 to an inverter 1-5 and rotational frequency control command INV2 to an inverter 13 are changed to lower rotational frequency of an air supply fan 1-4 and a return air fan 11, so as to reduce the amount of air supply to the air conditioned space 2 and the amount of ventilation from the air conditioned space 2. COPYRIGHT: (C)2010,JPO&INPIT
    • 要解决的问题:为了在空调空间中负载小的时候节约能源。 < P>解决方案:在空调控制装置3中,将空调空间2中的室内温度tpv与向空调空间2供给空气的温度tSpv进行比较。当确定tpv≈tSpv时,返回的开度θR 空气阻尼器10被设定为0%(全关闭),外部空气风门8的开度θA和通风用减震器9的开度θV被设定为100%(全开)。 变频器1-5的转速频率控制指令INV1和逆变器13的转速控制指令INV2变化为供气风扇1-4和回风风扇11的转速降低,以减少空气量 供应到空调空间2和空调空间2的通风量。版权所有(C)2010,JPO&INPIT
    • 6. 发明专利
    • Outside air cooling system
    • 外部空气冷却系统
    • JP2011043291A
    • 2011-03-03
    • JP2009191811
    • 2009-08-21
    • Yamatake Corp株式会社山武
    • DAZAI RYUTA
    • F24F11/76F24F3/044F24F7/08
    • PROBLEM TO BE SOLVED: To achieve a small configuration and avoid increase in humidification cost and filter cost due to intake of the outside air. SOLUTION: An outside air cooler 3 using a sensible heat exchanger 3-3 is provided. The outside air cooler 3 includes a first passage 3A and a second passage 3B. An air supply fan 3-1 is provided in the first passage 3A and an outside air fan 3-2 is provided in the second passage 3B. The air supply fan 3-1 returns all amount of return air RA from a data center 1 to the data center 1 as supply air SA, and the outside air fan 3-2 returns all amount of outside air OA taken in from the outside world to the outside world as exhaust air EXA. The sensible heat exchanger 3-3 exchanges sensible heat between the return air RA before returned to the data center 1 as the supply air SA and the return air RA before returned to the outside world as the exhaust air EXA. Thus, without introducing the outside air OA to the data center 1, outside air cooling in the data center 1 is performed. Part of the return air RA may be discharged to the outside world and only small amount of part of the outside air OA may be mixed with the supply air SA side. COPYRIGHT: (C)2011,JPO&INPIT
    • 要解决的问题:为了实现小的结构,并且避免由于吸入外部空气而增加加湿成本和过滤器成本。 解决方案:提供使用显热换热器3-3的外部空气冷却器3。 外部空气冷却器3包括第一通道3A和第二通道3B。 在第一通道3A中设置供气风扇3-1,在第二通道3B中设置有外部空气风扇3-2。 送风风扇3-1将作为供给空气SA的数据中心1的所有回程空气RA返回到数据中心1,并且外部风扇3-2返回从外界吸入的所有外部空气OA 作为排气EXA的外部世界。 显热换热器3-3在返回到作为供给空气SA的数据中心1和作为排气EXA返回到外界的返回空气RA之前的返回空气RA之间交换显热。 因此,在不将外部空气OA引入数据中心1的情况下,进行数据中心1的外部空气冷却。 返回空气RA的一部分可以排放到外界,并且只有少量的外部空气OA的一部分可以与供给空气SA侧混合。 版权所有(C)2011,JPO&INPIT
    • 7. 发明专利
    • Control device and control method
    • 控制装置和控制方法
    • JP2010079378A
    • 2010-04-08
    • JP2008244063
    • 2008-09-24
    • Yamatake Corp株式会社山武
    • TANAKA MASAHITOSAEGUSA TAKAHARUDAZAI RYUTA
    • G05B11/36G05B7/02
    • PROBLEM TO BE SOLVED: To improve the limit of control while maintaining the total sum of manipulated variables to a value which is equal or more than the lower limit value of the total sum of the manipulated variables. SOLUTION: A control device includes: PID arithmetic parts 22-1 and 22-2 for calculating manipulated variables MV1 and MV2 on the basis of a deviation between controlled variables PV1 and PV2 and set values SP1 and SP2 of each control loop; manipulated variable total sum calculation parts 31-1 and 31-2 for calculating the total sum MV_all of the manipulated variables MV1 and MV2; and lower limit value distribution parts 32-1 and 32-2 for, when the settling status of control of a preliminarily specified zone among a plurality of zones Z1 and Z2 is detected, distributing preliminarily specified manipulated variable total sum lower limit values OL_all to each zone according to the rate of the manipulated variables MV1 and MV2 of the respective zones Z1 and Z2 in settling to the manipulated variable total sum MV_all in settling, and for setting the distributed values to the manipulated variable lower limit values OL1 and OL2 of each zone. COPYRIGHT: (C)2010,JPO&INPIT
    • 要解决的问题:为了提高控制极限,同时将操作变量的总和保持在等于或大于操作变量的总和的下限值的值。 控制装置包括:基于控制变量PV1和PV2之间的偏差以及每个控制回路的设定值SP1和SP2来计算操作变量MV1和MV2的PID运算部件22-1和22-2; 用于计算操作变量MV1和MV2的总和MV_all的操纵变量总和计算部31-1和31-2; 以及下限值分配部32-1和32-2,当检测到多个区域Z1和Z2中的预先指定的区域的控制的建立状态时,将预定的操作量总和下限值OL_all分配给每个区域 根据各个区域Z1和Z2的操作变量MV1和MV2在建立中的操作量总和MV_all中的速率的区域,并且将分布值设置为每个区域的操纵变量下限值OL1和OL2 。 版权所有(C)2010,JPO&INPIT
    • 8. 发明专利
    • Heat source control device and heat source control method
    • 热源控制装置和热源控制方法
    • JP2009063231A
    • 2009-03-26
    • JP2007231288
    • 2007-09-06
    • Yamatake Corp株式会社山武
    • DAZAI RYUTAHARA TOMOKO
    • F24F11/02F25D19/04
    • PROBLEM TO BE SOLVED: To save energy by preventing wasteful operation of heat sources. SOLUTION: Valve openings θ1 to θm of flow rate adjustment valves 6-1 to 6-m for adjusting the inflow of a heat medium to air conditioners 5-1 to 5-m installed in living spaces 100-1 to 100-m are checked, and heat sources 1 are increased when the maximum valve opening θmax among the valve openings θ1 to θm is 100% or more. When the maximum valve opening θmax is 0% or less, the heat sources 1 are decreased. As only the necessary heat sources are operated according to a load state of every living space, the wasteful operation of the heat sources can be prevented. COPYRIGHT: (C)2009,JPO&INPIT
    • 要解决的问题:通过防止热源的浪费操作来节省能源。 流量调节阀6-1〜6-m的阀开口θ1〜θm用于调节热介质向安装在生活空间100-1〜100的空调5-1〜5-m中的流入, m,并且当阀孔θ1〜θm中的最大阀开度θmax为100%以上时,热源1增加。 当最大阀门开度θmax为0%以下时,热源1减少。 由于只有必要的热源根据每个生活空间的负载状态来操作,所以可以防止热源的浪费。 版权所有(C)2009,JPO&INPIT
    • 9. 发明专利
    • Flow measurement device in duct
    • JP2004198271A
    • 2004-07-15
    • JP2002367622
    • 2002-12-19
    • Yamatake Corp株式会社山武
    • SAEGUSA TAKAHARUDAZAI RYUTA
    • G01F1/34F24F11/02
    • PROBLEM TO BE SOLVED: To provide a flow measurement device in a duct composed by improving work for adjustment and maintenance, and an issue of accuracy assurance.
      SOLUTION: One end 3-3a of a tube 3-3 is positioned in front (on the upstream side) of a louver 1. One end 3-4a of a tube 3-4 is positioned behind (on the downstream side of) the louver 1. An airflow measurement device 3 is equipped with a differential pressure measurement part 3-1 and an actual airflow measurement part 3-2. In the measurement part 3-1, the difference between pressure obtained through the tube 3-3 and pressure through the tube 3-4 is measured as differential pressure ΔPG before and behind the louver 1; and in the actual airflow measurement part 3-2, actual airflow WG of outside air introduction is obtained from the measured differential pressure PG. Since the pressure resistance of the louver 1 is constant, the relationship between the differential pressure ΔPG before and behind the louver 1 and the flow rate WG of the outside air passing the louver 1 is exclusive, so that the actual flow rate WG of the outside air introduction can be obtained from the relationship.
      COPYRIGHT: (C)2004,JPO&NCIPI
    • 10. 发明专利
    • Method and apparatus for switching air conditioning control mode
    • 用于切换空调控制模式的方法和装置
    • JP2011247488A
    • 2011-12-08
    • JP2010121308
    • 2010-05-27
    • Yamatake Corp株式会社山武
    • UEDA YUDAZAI RYUTA
    • F24F11/02
    • PROBLEM TO BE SOLVED: To provide a method and apparatus for switching an air conditioning control mode, capable of always striking a balance between energy saving and amenity according to building characteristics, the work or preference of residents or an external environment such as seasons.SOLUTION: An instantaneous value PV of a degree of discomfort of a habitation space is obtained from the measured value of a PMV (Predicted Mean Vote). When the present mode of the air conditioning control is an energy saving control, a time when the instantaneous value PV of the degree of discomfort becomes a threshold α1 or more is set to be a timing for switching to a comfort control. When the present mode of the air conditioning control is the comfort control, a time when the instantaneous value PV of the degree of discomfort becomes the threshold α2 or lower (α1>α2) is set to be a timing for switching to energy saving control. As another system, the timing for switching to comfort control or to energy saving control may be determined based on the integrated value of the instantaneous value PV of the degree of discomfort or the degree of variation in the instantaneous value PV of the degree of discomfort.
    • 要解决的问题:提供一种用于切换空调控制模式的方法和装置,其能够根据建筑特征,居民的工作或偏好或外部环境(例如, 季节。 解决方案:从PMV(预测平均投票)的测量值获得居住空间的不适程度的瞬时值PV。 当空调控制的当前模式是节能控制时,将不舒服度的瞬时值PV变为阈值α1以上的时间被设定为切换到舒适度控制的定时。 当空调控制的当前模式是舒适控制时,将不舒服度的瞬时值PV变为阈值α2或更低(α1>α2)的时间被设置为切换到节能控制的定时。 作为另一种系统,可以基于不适程度的瞬时值PV的累积值或不舒适程度的瞬时值PV的变化程度来确定切换到舒适控制或节能控制的定时。 版权所有(C)2012,JPO&INPIT