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    • 1. 发明申请
    • METHOD FOR CONTROLLING ADSORPTION AIR CONDITIONING EQUIPMENT
    • 控制吸附式空调设备的方法
    • US20120102988A1
    • 2012-05-03
    • US12968644
    • 2010-12-15
    • Zong-Ji ChenZhan-Yi LinTing-Kuan LiYu-Ming SunChi-Bin Wu
    • Zong-Ji ChenZhan-Yi LinTing-Kuan LiYu-Ming SunChi-Bin Wu
    • F25B15/00
    • F25B49/046
    • The present invention discloses a method for controlling an adsorption air conditioning equipment. To execute consecutive programs, the adsorption air conditioning equipment performs the steps of: selecting one of a plurality of operation programs according to an execution sequence such that the selected operation program acts as an executable operation program; enabling at least two adsorption beds to operate in response to an executed operation program; switching to the next operation program in the execution sequence according to the operation time of the executed operation program such that the next operation program acts as the next executable operation program; controlling the switching of a plurality of valves according to the executed operation program; enabling the adsorption beds to operate in response to the executed operation program; and switching and executing the operation programs repeatedly until all the operation programs in the execution sequence are completely executed.
    • 本发明公开了一种吸附空调设备的控制方法。 为了执行连续的程序,吸附空气调节装置执行以下步骤:根据执行顺序选择多个操作程序中的一个,使得所选择的操作程序作为可执行操作程序; 使至少两个吸附床响应于执行的操作程序而操作; 根据执行的操作程序的操作时间切换到执行序列中的下一个操作程序,使得下一个操作程序充当下一个可执行操作程序; 根据执行的操作程序控制多个阀的切换; 使吸附床响应于执行的操作程序而操作; 并且重复地切换和执行操作程序,直到执行序列中的所有操作程序被完全执行。
    • 8. 发明申请
    • SPLIT SOLID ADSORPTION COOLING SYSTEM
    • 分体固体吸附冷却系统
    • US20120006049A1
    • 2012-01-12
    • US12961520
    • 2010-12-07
    • Yu-Ming SunTing-Kuan LiChao-Yu ChenChi-Bin Wu
    • Yu-Ming SunTing-Kuan LiChao-Yu ChenChi-Bin Wu
    • F25B17/08
    • F25B17/08F25B2315/007F25B2500/18F28D7/00Y02A30/278Y02B30/64
    • A split solid adsorption cooling system is disclosed. The split solid adsorption cooling system includes a first adsorption unit, a second adsorption unit, and a shell-and-tube heat exchanger. The first and the second adsorption units are connected to each other via a first pipeline and a second pipeline of the shell-and-tube heat exchanger. While adsorption and desorption take place alternately in the first and the second adsorption units, the temperature of the first and the second pipelines is lowered, thereby decreasing the temperature of water flowing in the shell-and-tube heat exchanger. In addition, the manufacturing costs of the split solid adsorption cooling system can be lowered because the shell-and-tube heat exchanger need not be operated in a vacuum environment. Furthermore, as the shell-and-tube heat exchanger is separate from the first and the second adsorption units, the overall system volume is reduced.
    • 公开了一种分体固体吸附冷却系统。 分体固体吸附冷却系统包括第一吸附单元,第二吸附单元和管壳式热交换器。 第一和第二吸附单元经由管壳式热交换器的第一管道和第二管道相互连接。 在第一吸附单元和第二吸附单元中交替地进行吸附和解吸附的同时,第一和第二管道的温度降低,从而降低管壳式热交换器中流动的水的温度。 此外,由于壳管式热交换器不需要在真空环境中操作,所以可以降低分体固体吸附冷却系统的制造成本。 此外,由于管壳式热交换器与第一吸附单元和第二吸附单元分离,所以整体系统体积减小。
    • 9. 发明申请
    • ADSORPTION TYPE REFRIGERATOR THAT AUTOMATICALLY DETERMINES SWITCHOVER POINT
    • 自动确定切换点的吸附式制冷器
    • US20120102990A1
    • 2012-05-03
    • US12965974
    • 2010-12-13
    • Chao-Yu ChenYu-Ming SunChi-Bin Wu
    • Chao-Yu ChenYu-Ming SunChi-Bin Wu
    • F25B49/00
    • F25B49/046F25B17/083Y02A30/277Y02A30/278Y02B30/62Y02B30/64
    • The present invention discloses an adsorption type refrigerator that automatically determines the switchover point. The adsorption type refrigerator includes a first vacuum chamber, a second vacuum chamber, a third vacuum chamber and a waterway structure. The waterway structure is connected to a first adsorption bed in the first vacuum chamber and a second adsorption bed in the second vacuum chamber. The waterway structure simultaneously conveys hot water into the first adsorption bed and cold water into the second adsorption bed, or simultaneously conveys cold water into the first adsorption bed and hot water into the second adsorption bed so as to allow the first and the second adsorption beds to conduct adsorption and desorption alternatively. This alternation creates pressure variation in the three vacuum chambers, which is then utilized to automatically determine the switchover point at which the refrigerator can provide and maintain a cold, stable environment.
    • 本发明公开了一种自动确定切换点的吸附型冰箱。 吸附型冰箱包括第一真空室,第二真空室,第三真空室和水路结构。 水路结构连接到第一真空室中的第一吸附床和第二真空室中的第二吸附床。 水道结构同时将热水输送到第一吸附床和冷水进入第二吸附床,或同时将冷水输送到第一吸附床和热水进入第二吸附床,以允许第一和第二吸附床 交替进行吸附和解吸。 这种交替在三个真空室中产生压力变化,然后用于自动确定冰箱可以提供并保持冷,稳定环境的切换点。
    • 10. 发明申请
    • GRID-CONNECTED POWER CONVERSION CIRCUITRY AND POWER CONVERSION METHOD THEREOF
    • 网格连接功率转换电路及其功率转换方法
    • US20120013190A1
    • 2012-01-19
    • US12878126
    • 2010-09-09
    • Jin-Ming ChangYu-Ming SunChi-Bin Wu
    • Jin-Ming ChangYu-Ming SunChi-Bin Wu
    • H02J4/00
    • H02J3/382Y10T307/696
    • A grid-connected power conversion circuitry and a power conversion method thereof are disclosed. A DC-DC converter converts a renewable energy into a stable and constant DC power. A DC-AC inverter inverts the DC power into an AC power. The duty cycle of the DC-DC converter is adjusted based on a feedback signal related to the DC power, thereby stabilizing the output of the DC-DC converter. The duty cycle of the DC-AC inverter is adjusted based on a feedback signal related to the AC power as well as the phase angle of grid power that is in turn detected by a phase angle processor. Consequently, the AC power can be synchronized with the grid power in frequency. Therefore, the grid system provides auxiliary power when the renewable energy is insufficient, and the AC power output by the DC-AC inverter is synchronized with the grid power in frequency.
    • 公开了并网电力转换电路及其功率转换方法。 DC-DC转换器将可再生能源转换成稳定且恒定的直流电力。 DC-AC逆变器将直流电转换为交流电源。 基于与直流电力相关的反馈信号来调整DC-DC转换器的占空比,从而稳定DC-DC转换器的输出。 基于与AC电力相关的反馈信号以及由相位角处理器进一步检测的电网功率的相位角来调整DC-AC逆变器的占空比。 因此,AC电源可以与电网功率频率同步。 因此,当可再生能源不足时,电网系统提供辅助电力,直流 - 交流逆变器输出的交流电力频率与电网功率同步。