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    • 12. 发明申请
    • Method for unifying light and gravity field using a linear field of gravity
    • 使用线性重力统一光和重力场的方法
    • US20060191266A1
    • 2006-08-31
    • US11059719
    • 2005-02-17
    • Yoshitaka Goto
    • Yoshitaka Goto
    • F03G7/00
    • F03H99/00
    • An expanded Schrödinger wave equation is discovered that enables one to derive the relativity theory in a direct fashion. Also a method of producing graviton is developed, and gravity is provided as motive power that replaces electromagnetic force. De Broglie's material wave is generated on the basis of the kinetic momentum of an object moving through space. In this connection, one may regard an object at rest as being in motion in a direction of time axis, and may call a new wave motion generated by that motion a “reference wave motion.” Further, by assuming the wavelength of this reference wave motion to be a frame of reference for time and space, one may derive the relativity theory, and then one can find an equation of gravity field obtained from that theory to be a linear equation. Either a gravity wave that satisfies this equation or a graviton obtained by quantizing that gravity wave results from the combining of four different electromagnetic waves.
    • 发现扩展的薛定er波方程可以直接推导出相对论。 另外还开发了一种生产引力的方法,并且重力作为取代电磁力的动力被提供。 德布罗意的材料波是通过空间移动的物体的动量动量产生的。 在这方面,可以将静止对象视为在时间轴方向上运动,并且可以将由该运动产生的新的波动称为“参考波运动”。 此外,通过将该参考波运动的波长假设为时间和空间的参考帧,可以推导相对论,然后可以从该理论中找到从该理论获得的重力场方程为线性方程。 满足该方程式的重力波或通过对四种不同电磁波的组合产生的重力波量化而获得的重力。
    • 15. 发明授权
    • Charge-particle energy analyzer
    • 电荷粒子能量分析仪
    • US4219730A
    • 1980-08-26
    • US936928
    • 1978-08-25
    • Isao IshikawaYoshitaka GotoMichiyasu Itoh
    • Isao IshikawaYoshitaka GotoMichiyasu Itoh
    • G01N23/227G01N23/225G01Q30/02G01Q90/00G01T1/36G21K1/087H01J37/256H01J49/44H01J49/48H01J39/00
    • H01J37/256G01N23/225G21K1/087H01J49/482
    • A charged-particle energy analyzer having means for irradiating a sample with a primary electron beam, deflecting electrode means which focus charged particle flux emitted from the sample onto a center axis of the primary electron beam or onto an identical circumference with its center on the axis, a slit disposed at the focus point of the charged particles, an energy analyzer whose object point lies at the focus point, a detector for detecting the charged particles analyzed by the energy analyzer, and charged particle flux deflecting means provided between the sample and the detector, for shielding by one part of the charged particle flux focused in a true circular form, to thereby make it possible not only to set a wide accepted solid angle for signals but also to get an information as to the concave or convex surface condition of the sample at the measured portion.
    • 一种带电粒子能量分析仪,其具有用于用一次电子束照射样品的装置,将从样品发射的带电粒子通量聚焦到一次电子束的中心轴上的偏转电极装置或与其一致的圆周上的中心在轴上的偏转电极装置 设置在带电粒子的聚焦点的狭缝,物点在焦点处的能量分析器,用于检测由能量分析器分析的带电粒子的检测器,以及设置在样品和样品之间的带电粒子通量偏转装置 检测器,用于通过以真圆形形式聚焦的一部分带电粒子通量进行屏蔽,从而不仅能够为信号设置广泛接受的立体角,而且可以获得关于凹面或凸面状况的信息 在测量部分的样品。
    • 17. 发明授权
    • Method of manufacturing glass optical elements
    • 制造玻璃光学元件的方法
    • US06766661B2
    • 2004-07-27
    • US09943501
    • 2001-08-31
    • Hiroyuki SawadaYoshitaka Goto
    • Hiroyuki SawadaYoshitaka Goto
    • C03B1100
    • C03B11/125
    • Provided is a method for manufacturing a glass optical element comprising steps of: molding a glass material softened with a molding device which comprises an upper mold having a molding surface and a lower mold having a molding surface so that optically functional surfaces are formed on the glass material by applying a molding pressure, cooling the glass material so that the glass material obtains a predetermined viscosity, and removing the cooled glass material from the molding device, wherein a temperature of the glass material is maintained, in the cooling step, within a range of (Tg+30) to (Tg−50) degree centigrade at least for a predetermined time, and a secondary pressure is applied to the glass material at least during the predetermined time, so that the strain in the glass material is reduced, where Tg represents glass transition temperature of the glass.
    • 本发明提供一种玻璃光学元件的制造方法,其特征在于,包括以下步骤:将由成型装置软化的玻璃材料成型,所述成型装置包括具有成型面的上模具和具有成形面的下模,使得在所述玻璃上形成光学功能性表面 通过施加成型压力冷却玻璃材料,使得玻璃材料获得预定的粘度,并且在冷却步骤中将玻璃材料的温度保持在成型装置内的冷却玻璃材料的范围内 (Tg + 30)至(Tg-50)摄氏度至少预定时间,并且至少在预定时间内向玻璃材料施加二次压力,使得玻璃材料中的应变减小,其中 Tg表示玻璃的玻璃化转变温度。