会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 1. 发明授权
    • Heat exchanger assembly
    • 换热器总成
    • US08196646B2
    • 2012-06-12
    • US12334790
    • 2008-12-15
    • Lin-Jie HuangPrasad S. Kadle
    • Lin-Jie HuangPrasad S. Kadle
    • F28F1/22
    • F28D1/0435F28D1/05383F28F1/128F28F2215/02
    • A heat exchanger assembly including a first and second heat exchangers disposed in sandwiched relationship with one another. The tubes and air fins of the first and second heat exchangers are aligned with one another in a transverse air flow direction. A plurality of middle connecting portions are integral with and extend in the transverse air flow direction between the aligned first and second air fins of the two heat exchangers. Each of the middle connecting portions has a slot for impeding heat conduction between the first and second air fins, and each of the slots in the middle connecting portions is disposed closer to the first tubes than to the second tubes to maximize the effective length of the second air fin.
    • 一种热交换器组件,其包括彼此夹持的第一和第二热交换器。 第一和第二热交换器的管和空气翅片在横向空气流动方向上彼此对准。 多个中间连接部分在两个热交换器的对准的第一和第二空气翅片之间与横向空气流动方向成一体并且延伸。 每个中间连接部分具有用于阻止第一和第二空气翅片之间的热传导的狭槽,并且中间连接部分中的每个狭槽设置成比第二管更靠近第一管而使第二管的有效长度最大化 第二个空气翅片
    • 3. 发明申请
    • Compressor cycle control method for a vehicle air conditioning system
    • 一种车辆空调系统的压缩机循环控制方法
    • US20090260374A1
    • 2009-10-22
    • US12148160
    • 2008-04-17
    • Mingyu WangPrasad S. KadleMark J. Zima
    • Mingyu WangPrasad S. KadleMark J. Zima
    • F25B1/00F25B49/02
    • B60H1/3205B60H1/00835B60H2001/3261B60H2001/327
    • A control methodology for dynamically adjusting the switching limits of a cycled refrigerant compressor in an air conditioning system with the objective of achieving an optimal or specified tradeoff between compressor cycling frequency and discharge air temperature variation under all operating conditions. In a first embodiment, the compressor cycling limits are controlled to maintain a virtually constant discharge air temperature variation for all operating conditions. In a second embodiment, the compressor cycling limits are controlled so that the discharge air temperature variation changes in relation to the discharge air temperature to provide a virtually constant human comfort level for the occupants. And in a third embodiment, the compressor cycling limits are controlled so that the discharge air temperature variation changes in relation to the ambient or outside air temperature to provide a virtually constant human comfort level for the occupants.
    • 一种用于动态调节空调系统中的循环制冷剂压缩机的开关限制的控制方法,其目的是在所有操作条件下实现压缩机循环频率和排气温度变化之间的最佳或规定的权衡。 在第一实施例中,控制压缩机循环极限,以保持对于所有操作条件的实际恒定的排出空气温度变化。 在第二实施例中,控制压缩机循环极限,使得排出空气温度变化相对于排出空气温度变化,以为乘客提供几乎恒定的人类舒适度。 并且在第三实施例中,控制压缩机循环极限,使得排出空气温度变化相对于环境或外部空气温度变化,以为乘客提供几乎恒定的人类舒适度。
    • 4. 发明申请
    • Control method for a variable displacement refrigerant compressor in a high-efficiency AC system
    • 高效交流系统中可变排量制冷剂压缩机的控制方法
    • US20080289347A1
    • 2008-11-27
    • US11805469
    • 2007-05-22
    • Prasad S. KadleMark J. Zima
    • Prasad S. KadleMark J. Zima
    • F25B49/02
    • B60H1/3211B60H1/00735B60H1/00835B60H2001/3245B60H2001/3261B60H2001/3275
    • A high efficiency air conditioning system includes a pneumatically-controlled variable displacement compressor and a compressor clutch that is selectively cycled on and off to minimize series re-heating of conditioned air. Conditioned air is discharged after passing through an evaporator core, and a target value for the evaporator outlet air temperature is determined based on the desired air discharge temperature. The compressor clutch is cycled off when the evaporator outlet air temperature falls below the target value by at least a calibrated amount, and is thereafter cycled on again when the evaporator outlet air temperature rises above the target value. The target value is preferably biased to prevent compressor operation when the desired air discharge temperature exceeds outside air temperature by at least a calibrated amount and to prevent the relative humidity in the air-conditioned space from rising above a desired level.
    • 高效空调系统包括气动可变排量压缩机和选择性循环打开和关闭的压缩机离合器,以使调节空气的串联再加热最小化。 通过蒸发器芯后,排出的空气排出,蒸发器出口空气温度的目标值根据期望的排气温度来确定。 当蒸发器出口空气温度低于目标值至少校准量时,压缩机离合器循环,然后当蒸发器出口空气温度升高到目标值以上时再次循环。 优选地,目标值被偏压以在期望的空气排放温度超过外部空气温度至少校准量时防止压缩机操作,并且防止空调空间中的相对湿度升高到高于期望水平。
    • 7. 发明申请
    • AIR STREAM VELOCITY CONTROL FOR VENTILATION SYSTEM
    • 通风系统的空气流速控制
    • US20130344791A1
    • 2013-12-26
    • US13528968
    • 2012-06-21
    • MINGYU WANGPRASAD S. KADLEDEBASHIS GHOSH
    • MINGYU WANGPRASAD S. KADLEDEBASHIS GHOSH
    • B60H1/34
    • B60H1/00742B60H1/00828
    • A system and a method of controlling a ventilation or HVAC system that is configured to provide an air stream having a comfortable contact velocity to an occupant seated in a vehicle cabin. The system includes a sensor to determine the distance from a discharge nozzle to the vehicle occupant and a controller to control the exit velocity and/or an effective diameter of the nozzle. The sensor may use ultrasonic, infrared, LIDAR, or RADAR technology to determine distance. The system may determine the distance from the nozzle to the occupant based on a seat location determined by a seat location sensor. The seat location sensor may be common to an inflatable restraint (air bag) system.
    • 一种控制通风或HVAC系统的系统和方法,其被配置为向坐在车厢内的乘员提供具有舒适接触速度的气流。 该系统包括用于确定从排放喷嘴到车辆乘员的距离的传感器和用于控制喷嘴的出口速度和/或有效直径的控制器。 传感器可以使用超声波,红外线,激光雷达或雷达技术来确定距离。 系统可以基于由座椅位置传感器确定的座位位置来确定从喷嘴到乘员的距离。 座椅位置传感器可以是充气限制器(气囊)系统所共有的。
    • 8. 发明申请
    • FABRICATED TUBE FOR AN EVAPORATOR
    • 用于蒸发器的制造管
    • US20110284195A1
    • 2011-11-24
    • US13107045
    • 2011-05-13
    • SOURAV CHOWDHURYPRASAD S. KADLE
    • SOURAV CHOWDHURYPRASAD S. KADLE
    • F28F9/02F28F1/00
    • F28F1/022F28D1/0391F28D1/05383
    • An evaporator assembly having a first header, a second header, at least two banks of evaporator tubes extending therebetween and in hydraulic communication with the first and second headers. At least one of the evaporator tube may be folded from a unitary strip clad aluminum folded having a thickness (t). The evaporator tube includes a height (h) which is measured from the bottom exterior surface to the top exterior surface, and a corner radius (rc) defined by the transition radius from the flange segments to the channel walls. The bottom wall includes a width (2w), the corrugated portion includes alternating flange segments abutting the interior surface and channel walls connecting the alternating flange segments, at least one of the alternating adjacent flange segments includes a length (a) cooperating with adjacent the channel walls to define a channel having a width (b). The evaporator tube also includes a number of ports per millimeter width (PPMW) in a range of 0.40 to 1.0 as defined by the equation PPMW=2/(a+b+t); a Port Shape (PS) ratio of 0.05 to 0.6 as defined by the equation PS ratio=a/b; a non-dimensional gauge (NDG) ratio of 0.11 to 0.21 as defined by the equation NDG ratio=t/h; and a non-dimensional corner radius (NDCR) ratio of 0.10 to 0.5 as defined by the equation NDCR ratio=rc/2t.
    • 一种蒸发器组件,具有第一集管,第二集管,至少两组蒸发器管,在其间延伸并与第一和第二集管液压连通。 蒸发器管中的至少一个可以从厚度(t)折叠的整体条状包覆铝折叠。 蒸发器管包括从底部外表面到顶部外表面测量的高度(h)和由从凸缘段到通道壁的过渡半径限定的拐角半径(rc)。 底壁包括宽度(2w),波纹部分包括邻接内表面的交替的凸缘段和连接交替的凸缘段的通道壁,至少一个相邻的凸缘段包括与相邻通道协作的长度(a) 用于限定具有宽度(b)的通道的壁。 蒸发器管还包括如方程式PPMW = 2 /(a + b + t)所定义的,在0.40至1.0范围内的每毫米宽度的多个端口(PPMW); 端口形状(PS)比为0.05至0.6,由方程PS ratio = a / b定义; 由方程NDG比= t / h定义的无量纲(NDG)比为0.11至0.21; 以及由方程式NDCR比= rc / 2t定义的0.10至0.5的无量纲角半径(NDCR)比。