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    • 1. 发明申请
    • LIGHT EMITING MODULE, A LAMP, A LUMINAIRE AND A DISPLAY DEVICE
    • 灯光模块,灯,灯泡和显示装置
    • US20150009649A1
    • 2015-01-08
    • US14232916
    • 2012-03-23
    • Hendrik Johannes Boudewijn JagtOlexandr Velentynovych VdovinCoen Adrianus VerschurenDurandus Kornelius DijkenChristian KleijnenMarcellinus Petrus Carolus Michael Krijn
    • Hendrik Johannes Boudewijn JagtOlexandr Velentynovych VdovinCoen Adrianus VerschurenDurandus Kornelius DijkenChristian KleijnenMarcellinus Petrus Carolus Michael Krijn
    • F21K99/00
    • F21K9/62F21K9/64F21Y2113/13F21Y2115/10H01L33/507H01L33/60H01L2924/0002H01L2933/0091H01L2924/00
    • A light emitting module (150) emits light through a light exit window (104) and comprises a base (110), a solid state light emitter (154, 158) and a partially diffusive reflective layer (102). The base (110) has a light reflective surface (112) which faces towards the light exit window (104). The light reflective surface (112) has a base reflection coefficient Rbase which is defined by a ratio between the amount of light that is reflected by the light reflective surface and the amount of light that impinges on the light reflective surface. The solid state light emitter (154, 158) emits light of a first color range (114), comprises a top surface (152, 158) and has a solid state light emitter reflection coefficient R_SSL which is defined by a ratio between the amount of light that is reflected by the solid state emitter (154,156) and the amount of light that impinges on the top surface (152, 158) of the solid state light emitter (1154, 156). A largest linear size dssL of the top surface (106) of the at least one solid state light emitter is defined as the longest distance from a point on the top surface (152, 158) of the at least one solid state light emitter to another point on the top surface (152, 158) of the at least one solid state light emitter along a straight line. The light exit window (104) comprises at least a part of the partially diffusive reflective layer (102). A solid state light emitter area ratio ρSSL is defined as the ratio between the area of the top surface of the at least one solid state light emitter and the area of the light reflective surface of the base. A gap with a distance h is present between the top surface (152, 158) of the at least one solid state light emitter
    • 发光模块(150)通过光出射窗(104)发射光,并且包括基底(110),固态光发射器(154,158)和部分漫反射层(102)。 基部(110)具有面向光出射窗(104)的光反射表面(112)。 光反射表面(112)具有由反射光反射表面反射的光量与入射到光反射表面上的光量之间的比值所限定的基底反射系数Rbase。 固态光发射器(154,158)发射第一颜色范围(114)的光,包括顶表面(152,158),并且具有固态光发射器反射系数R_SSL,其由 由固态发射器(154,156)反射的光和照射在固态光发射器(1154,156)的顶表面(152,158)上的光量。 至少一个固态光发射器的顶表面(106)的最大线性尺寸dssL被定义为从至少一个固态光发射器的顶表面(152,158)上的点到另一固态光发射器的最长距离 沿着直线指向至少一个固态发光器的顶表面(152,158)。 光出射窗(104)包括部分漫反射层(102)的至少一部分。 固态光发射器面积比&SSL被定义为至少一个固态光发射器的顶表面的面积与基底的光反射表面的面积之比。 在至少一个固态光发射器的顶表面(152,158)之间存在距离为h的间隙
    • 4. 发明申请
    • ILLUMINATION SYSTEM COMPRISING BEAM SHAPING ELEMENT
    • 包含光束形状元件的照明系统
    • US20120037943A1
    • 2012-02-16
    • US13265282
    • 2010-04-21
    • Coen Adrianus VerschurenFerry Zijp
    • Coen Adrianus VerschurenFerry Zijp
    • H01L51/52
    • H01L51/5268B82Y20/00B82Y30/00F21Y2105/00F21Y2115/15G02F1/133603G02F1/133606G02F2001/133607G02F2203/023H01L51/5275H01L2251/5361H01L2251/5369
    • The invention relates to an illumination system (10) comprising a light emitting device (20) and a beam shaping element (30) for generating an angular distribution (φ) of the light emitted from the illumination system. The beam shaping element is configured for recycling at least a part of the light emitted from a light emitting surface (26) of the light emitting device via reflection back towards the light emitting surface. The illumination system further comprises a diffuser (40, 42) arranged substantially parallel to the light emitting surface for diffusing at least part of the recycled light. The diffuser is constituted of a translucent diffuser (40) and/or a diffusely reflective electrode layer (42) of the light emitting device. Limiting the angular distribution by recycling light, using the beam shaping element for recycling light via reflection, reduces glare when the illumination system is used in general lighting applications. The diffuser avoids that the recycled light is confined between the beam shaping element and the light emitting surface of the light emitting element. The recycling is preferably done via total internal reflection at the beam shaping element. The presence of the diffuser improves the efficiency of the illumination system.
    • 本发明涉及一种包括发光器件(20)和用于产生从照明系统发射的光的角度分布(&phgr))的光束整形元件(30)的照明系统(10)。 光束成形元件被配置为将从发光器件的发光表面(26)发射的光的至少一部分经由反射回到发光表面。 照明系统还包括基本上平行于发光表面布置的扩散器(40,42),用于扩散至少部分再循环光。 扩散器由发光器件的透光漫射器(40)和/或漫反射电极层(42)构成。 通过使用光束成形元件通过反射回收光来回收光来限制角度分布,当照明系统用于一般照明应用时,减少了眩光。 扩散器避免了再生光被束缚在光束成形元件和发光元件的发光表面之间。 回收优选通过在光束整形元件处的全内反射进行。 扩散器的存在提高了照明系统的效率。
    • 5. 发明申请
    • MICROELECTRONIC SENSOR DEVICE FOR OPTICAL EXAMINATIONS IN A SAMPLE MEDIUM
    • 用于在样品介质中进行光学检查的微电子传感器装置
    • US20110188030A1
    • 2011-08-04
    • US12671735
    • 2008-07-17
    • Coen Adrianus VerschurenMenno Willem Jose PrinsAlbert Hendrik Jan Immink
    • Coen Adrianus VerschurenMenno Willem Jose PrinsAlbert Hendrik Jan Immink
    • G01N21/41
    • G01N21/552G01N21/41G01N2021/4153G01N2021/434G01N2021/437
    • The invention relates to a microelectronic sensor device with a light source (21) for emitting an input light beam (L1) into a transparent carrier (11) such that it is totally internally reflected at a contact surface (12) as an output light beam (L2), which is detected by a light detector (31). Frustration of the total internal reflection at the contact surface (12) can then for example be used to determine the amount of target particles (1) present at this surface. The sensor device further comprises a refractive index measurement unit (100, 200, 300) for measuring the refractive index (nB) of the sample medium, and an evaluation unit (50) for evaluating the measurement of the light detector (31) taking the measured refractive index (nB) into account and/or for changing the conditions of total internal reflection of the input light beam (L1). The refractive index measurement unit may particularly be designed to infer the refractive index (nB) from the deflection of a test-light beam (L3) that is transmitted through the sample medium, or from a reflection of a test-light beam (L1) at an interface (12) to the sample medium. In the latter case, it is possible to determine the critical angle of total internal reflection and/or to measure the reflectivity of the interface.
    • 本发明涉及一种具有用于将输入光束(L1)发射到透明载体(11)中的光源(21)的微电子传感器装置,使得其在接触表面(12)处作为输出光束被全内反射 (L2),其由光检测器(31)检测。 接触表面(12)处的全内反射的挫折可以例如用于确定存在于该表面的目标颗粒(1)的量。 传感器装置还包括用于测量样品介质的折射率(nB)的折射率测量单元(100,200,300),以及用于评估光检测器(31)的测量的评估单元(50) 测量的折射率(nB)和/或用于改变输入光束(L1)的全内反射的条件。 折射率测量单元可以特别地被设计为从透射通过样品介质的测试光束(L3)的偏转或从测试光束(L1)的反射推断折射率(nB) 在样品介质的界面(12)处。 在后一种情况下,可以确定全内反射的临界角和/或测量界面的反射率。
    • 6. 发明申请
    • OPTICAL DISC READING APPARATUS AND METHOD THEREFORE
    • 光盘读取装置及其方法
    • US20090257332A1
    • 2009-10-15
    • US12300648
    • 2007-05-07
    • Coen Adrianus Verschuren
    • Coen Adrianus Verschuren
    • G11B20/18
    • G11B20/10009G11B7/0908G11B7/1387G11B20/10296
    • An optical disc reading apparatus, such as a Near Filed optical disc reading apparatus, comprises a disc reader (401) which generates a first signal by reading an optical disc (403). A bit detector (407) detects data values in response to the first signal and data reference signals which are indicative of expected signals for different data sequences. An air gap processor (415) generates a reading head position error signal indicative of a distance between the surface of the optical disc and a reading leans. A reference processor (409) modifies the data reference signals in response to the reading head position error signal. The invention allows improved bit detection and in particular allows fast adaptation of e.g. a Partial Response Maximum Likelihood (PRML) bit detector to variations in an air gap for a reading lens.
    • 诸如近光盘读取装置的光盘读取装置包括通过读取光盘(403)产生第一信号的盘读取器(401)。 位检测器(407)响应于指示不同数据序列的期望信号的第一信号和数据参考信号来检测数据值。 气隙处理器(415)产生指示光盘表面和读取倾斜之间的距离的读取头位置误差信号。 参考处理器(409)响应于读取头位置误差信号修改数据参考信号。 本发明允许改进的位检测,并且特别地允许例如, 部分响应最大似然(PRML)位检测器用于读取透镜的气隙中的变化。
    • 7. 发明申请
    • OPTICAL SCANNING DEVICE
    • 光学扫描装置
    • US20090109825A1
    • 2009-04-30
    • US12300180
    • 2007-05-04
    • Ferry ZijpCoen Adrianus Verschuren
    • Ferry ZijpCoen Adrianus Verschuren
    • G11B7/00
    • G11B7/0956G11B7/122G11B7/1387
    • An optical scanning device (3) for scanning a record carrier (2) comprises an objective unit (20) and a diffraction element (14). The objective unit (20) is adapted to transmit an auxiliary radiation beam (21) towards the record carrier (2) in a defocused mode in addition to a main radiation beam (6) that is used for read-out and/or writing operations. The diffraction element (14) defines a measuring region (16) with respect to a spot (44) of the main radiation beam (6) so as to avoid an influence of the auxiliary radiation beam (21) on the main radiation beam (6) reflected. Hence, the performance of read-out and/or writing operations is increased.
    • 用于扫描记录载体(2)的光学扫描装置(3)包括目标单元(20)和衍射元件(14)。 除了用于读出和/或写入操作的主辐射束(6)之外,目标单元(20)适于以散焦模式朝向记录载体(2)传输辅助辐射束(21) 。 衍射元件(14)相对于主辐射束(6)的斑点(44)限定测量区域(16),以避免辅助辐射束(21)对主辐射束(6)的影响 )反映。 因此,读取和/或写入操作的性能增加。
    • 8. 发明申请
    • Method of Checking the Cleanness Status of a Refractive Element and Optical Scanning Apparatus of Th Enear Field Type
    • 检查折射元件的清洁度状态和Th型耳型光学扫描仪的方法
    • US20080225669A1
    • 2008-09-18
    • US12066538
    • 2006-09-08
    • Coen Adrianus Verschuren
    • Coen Adrianus Verschuren
    • G11B7/00
    • G02B27/0006
    • A method of checking the cleanness status of an optical exit face of a refractive element of an optical scanning apparatus of the near field type, the method comprising step of generating a near field control signal proportional to ratio between the intensity of an optical radiation beam that is internally reflected from the optical exit face of the refractive element and the intensity of a corresponding incident optical radiation beam; measuring the near field control signal when the optical exit face of the refractive element is further away from an optical disc than a near field distance; comparing the measured near field control signal with a predetermined threshold value; deciding the refractive element is clean if the measured near field control signal is above the predetermined threshold value.
    • 一种检查近场型光学扫描装置的折射元件的光学出射面的清洁状态的方法,该方法包括以下步骤:产生与光束的强度成比例的近场控制信号,该近场控制信号 从折射元件的光学出射面内部反射和相应的入射光束的强度; 当所述折射元件的光学出射面离所述光盘远离近场距离时,测量所述近场控制信号; 将所测量的近场控制信号与预定阈值进行比较; 如果所测量的近场控制信号高于预定阈值,则确定折射元件是干净的。
    • 10. 发明授权
    • Stray field equalization for improved domain expansion reading
    • 用于改善域扩展读数的杂波场均衡
    • US07385883B2
    • 2008-06-10
    • US10517105
    • 2003-05-21
    • Coen Adrianus Verschuren
    • Coen Adrianus Verschuren
    • G11B11/00
    • G11B20/10333G11B11/10508G11B11/10513G11B11/10515G11B11/10528G11B20/1426
    • In a magneto-optical recording technique by which an improved domain expansion reading is achieved, a mark region is recorded as a sub-mark portion and an adjacent sub-space portion, wherein the sum of predetermined first and second lengths of the sub-mark and sub-space portions, respectively, is changed in dependence on the pattern of marks and spaces. The write strategy enables writing a long run length with sub-mark and/or sub-space lengths selected independent of the channel bit length, such that a long run length can be written with few well-chosen domains with a stray field larger than the minimum field for MAMMOS readout. In this way, differences in readout conditions for all combinations of short and long run lengths can be eliminated, resulting in substantially improved power margins for random data.
    • 在实现改进的域扩展读取的磁光记录技术中,标记区域被记录为子标记部分和相邻子空间部分,其中子标记的预定第一和第二长度之和 和子空间部分分别根据标记和空格的图案而改变。 写入策略使得能够写入具有被选择的子标记和/或子空间长度的长行程长度,独立于通道位长度,使得长行程长度可以写入少数选择良好的域,其中杂散场大于 MAMMOS读数的最小字段。 以这种方式,可以消除短和长行长度的所有组合的读出条件的差异,导致用于随机数据的功率余量大大提高。