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    • 1. 发明申请
    • A SAFE SHUTDOWN DEVICE AND A METHOD OF CONTROLLABLY SHUTTING DOWN A SYSTEM
    • 安全关闭装置和控制系统的控制方法
    • WO2005108947A1
    • 2005-11-17
    • PCT/IB2005/001728
    • 2005-05-06
    • IMV CORPORATION
    • GOODFELLOW, JohnIIOKA, HiroshiPRODANOVIC, MilanYAMAMOTO, Koshi
    • G01M7/02
    • G01M7/022
    • There is described a safe shutdown device and method, for example, for use with a vibration test system for testing automotive or aeronautical equipment by subjecting the equipment to shock and/or vibration testing. As the system and equipment are expensive it is important they are not damaged during testing. In the event of a fault occurring uncontrolled energy dissipation can give rise to excessive forces being generated that exceed the specification of the equipment under test or the vibration test system itself. The invention achieves a safe shutdown of the test system by switching energy in a controlled manner and rate to an energy sink, thereby bringing about a rapid and safe arrest of the vibrating system and any associated dynamic parts. This is achieved by sensing a non-standard state in the system and controllably switching and diverting energy to a variable load so as to eliminate the risk of damaging the system or test equipment.
    • 描述了一种安全关闭装置和方法,例如,用于通过使设备进行冲击和/或振动测试来测试汽车或航空设备的振动测试系统。 由于系统和设备昂贵,因此在测试过程中不会损坏重要。 发生故障时,不受控制的能量耗散可能会产生超过被测设备规格或振动试验系统本身的过大力。 本发明通过以受控的方式切换能量并对能量吸收器进行速率来实现测试系统的安全关闭,从而实现振动系统和任何相关的动态部件的快速和安全的停止。 这是通过感测系统中的非标准状态并可控地切换和将能量转移到可变负载来实现的,以便消除损坏系统或测试设备的风险。
    • 3. 发明专利
    • 振動發生機
    • 振动发生机
    • TW201541066A
    • 2015-11-01
    • TW104112849
    • 2015-04-22
    • IMV股份有限公司IMV CORPORATION
    • 青木秀修AOKI, HIDENAO中村勝彥NAKAMURA, KATSUHIKO中西一志NAKANISHI, KAZUSHI
    • G01M7/02
    • G01M7/02
    • 使滑動載台的流體軸承構造被簡單化,藉此獲得低成本化的振動發生機。 振動發生機(1),是在設於滑動載台(5)的下部的基座托板的縱剖面視,包含具有:兩側面是各別與別的各基座托板構成部的側面彼此相鄰的第1基座托板構成部(10a)、及與該第1基座托板構成部(10a)的片側面及別的基座托板構成部的片側面彼此相鄰的第2基座托板構成部(10b)的領域。在第1基座托板構成部(10a)及第2基座托板構成部(10b)之間設有第1流路形成要素(20)。第1流路形成要素(20),是具有:朝第1基座托板構成部(10a)的下面及第2基座托板構成部(10b)的下面供給油的第1垂直流路(30)、及朝第1基座托板構成部(10a)的側面及與該側面相面對側的第2基座托板構成部(10b)的側面供給油的水平流路(31)。
    • 使滑动载台的流体轴承构造被简单化,借此获得低成本化的振动发生机。 振动发生机(1),是在设于滑动载台(5)的下部的基座托板的纵剖面视,包含具有:两侧面是各别与别的各基座托板构成部的侧面彼此相邻的第1基座托板构成部(10a)、及与该第1基座托板构成部(10a)的片侧面及别的基座托板构成部的片侧面彼此相邻的第2基座托板构成部(10b)的领域。在第1基座托板构成部(10a)及第2基座托板构成部(10b)之间设有第1流路形成要素(20)。第1流路形成要素(20),是具有:朝第1基座托板构成部(10a)的下面及第2基座托板构成部(10b)的下面供给油的第1垂直流路(30)、及朝第1基座托板构成部(10a)的侧面及与该侧面相面对侧的第2基座托板构成部(10b)的侧面供给油的水平流路(31)。
    • 4. 发明申请
    • DIAGNOSTIC DEVICE FOR DEGRADATION OF RECHARGEABLE LI-ION BATTERY
    • 用于降低可充电锂离子电池的诊断装置
    • US20130342212A1
    • 2013-12-26
    • US13836085
    • 2013-03-15
    • IMV CORPORATION
    • Takao KAWAHIRAYasuhiro UCHIYAMAJumpei KOJIMAToru KATSURAIKoji KAWATAToshiyuki KOBAYASHITatsuo NISHINA
    • G01R31/36
    • G01R31/362B60L11/1861G01R31/3627G01R31/3679H01M10/44H01M10/48
    • A diagnostic device which can measure quickly and has simple circuit is provided. A charge/discharge circuit 2 supplies charge current to a rechargeable battery 10 and discharges the rechargeable battery 10. The charge/discharge circuit 2 also breaks charge current or discharge current of the rechargeable battery 10 in charging or discharging. A voltage measurement part 6 measures terminal voltage of the rechargeable battery 10 after breaking the charge or discharge current. Diagnostic means 8 judges whether the rechargeable battery 10 is deteriorated or not based on the measured voltages. Voltage change of deteriorated rechargeable battery 10 after breaking the charge or discharge current is more rapid than that of healthy rechargeable battery 10. The diagnostic means 8 can judge whether the rechargeable battery 10 is deteriorated or not based on such voltage change.
    • 提供了可以快速测量并具有简单电路的诊断装置。 充电/放电电路2向充电电池10供给充电电流并对可再充电电池10进行放电。充放电电路2还在充电或放电时中断充电电流或充电电池10的放电电流。 电压测量部件6在断开充电或放电电流之后测量可再充电电池10的端子电压。 诊断装置8基于测量的电压判断可再充电电池10是否劣化。 破坏充电或放电电流后的劣化的充电电池10的电压变化比健康的可再充电电池10的电压变化更快。诊断装置8可以基于这种电压变化来判断可再充电电池10是否劣化。
    • 6. 发明申请
    • Vibration-testing system
    • 振动试验系统
    • US20060248955A1
    • 2006-11-09
    • US11398578
    • 2006-04-06
    • Takehiro FukushimaKeisuke ShimadaShigehisa Tsutsumi
    • Takehiro FukushimaKeisuke ShimadaShigehisa Tsutsumi
    • G01M7/06
    • G01M7/06
    • Horizontal vibration shakers 21a and 21b are disposed opposite to each other on both sides of a vibration table 4, and either of the horizontal vibration shakers, e.g. 21a is arranged vertically movable so as to produce a positional difference (offset) with respect to a horizontal vibration axis 63 of the other horizontal vibration shaker 21b. When it is supposed that an accelerated velocity appears upwards on the left side of the vibration table 4, while another accelerated velocity appears downwards on the right side of the vibration table 4 as a result of generation of a rotational mode M, one of the horizontal vibration shakers, e.g. 21a, is elevated to produce the positional difference (offset) with respect to the horizontal vibration axis 63 of the other opposed horizontal vibration shaker 21b. In addition, vibration forces of the horizontal vibration shakers 21a and 21b are controlled at the same time to produce a moment towards the reverse direction, whereby the rotational mode M is suppressed so as to balance the right and left moments.
    • 水平振动台21a和21b在振动台4的两侧彼此相对布置,并且任何一个水平振动振动器 21a可垂直地移动,以产生相对于另一个水平振动器21b的水平振动轴63的位置差(偏移)。 当假定在振动台4的左侧出现加速的速度时,由于产生旋转模式M,振动台4的右侧出现另一加速度的速度,水平 振动台,例如 升高以产生相对于另一个相对的水平振动器21b的水平振动轴63的位置差(偏移)。 此外,水平振动振动器21a和21b的振动力同时被控制以产生朝向相反方向的力矩,从而抑制旋转模式M以平衡左右力矩。
    • 8. 发明公开
    • VIBRATION CONTROL SYSTEM
    • US20240125669A1
    • 2024-04-18
    • US18521654
    • 2023-11-28
    • IMV CORPORATION
    • Kazuyoshi UENOYoshikado YAMAUCHIYuji NAKAURA
    • G01M7/02
    • G01M7/022G01M7/025
    • A vibration control device, while applying Gaussian vibration that matches a target vibration physical quantity PSD to a test piece, makes a corresponding vibration physical quantity non-Gaussian. Using a response vibration physical quantity PSD and a target vibration physical quantity PSD, a control vibration physical quantity PSD calculation generates a control vibration physical quantity PSD for generating a drive signal. A PSD conversion converts the control vibration physical quantity PSD into a control corresponding vibration physical quantity PSD of another dimension. Using the control corresponding vibration physical quantity PSD, a control corresponding vibration physical quantity waveform calculation calculates a control corresponding vibration physical quantity waveform that is non-Gaussian. At least based on the control characteristics and the control corresponding vibration physical quantity waveform, a drive waveform calculation generates a next drive waveform such that vibration that matches the control corresponding vibration physical quantity waveform is applied to a test piece.