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    • 2. 发明申请
    • REDUCING AUTHENTICATION CONFIDENCE OVER TIME BASED ON USER HISTORY
    • 根据用户历史减少认证信心
    • US20140282893A1
    • 2014-09-18
    • US13840572
    • 2013-03-15
    • Micah ShellerConor CahillJason MartinBrandon Baker
    • Micah ShellerConor CahillJason MartinBrandon Baker
    • H04L29/06
    • H04L63/08G06F21/31G06F21/57G06F2221/2101G06F2221/2113G06F2221/2137G06F2221/2151
    • Technologies are provided in embodiments to manage an authentication confirmation score. Embodiments are configured to identify, in absolute session time, a beginning time and an ending time of an interval of an active user session on a client. Embodiments are also configured to determine a first value representing a first subset of a set of prior user sessions, where the prior user sessions of the first subset were active for at least as long as the beginning time. Embodiments can also determine a second value representing a second subset of the set of prior user sessions, where the prior user sessions of the second subset were active for at least as long as the ending time. Embodiments also determine, based on the first and second values, a decay rate for the authentication confidence score of the active user session. In some embodiments, the set is based on context attributes.
    • 在实施例中提供技术来管理认证确认分数。 实施例被配置为在绝对会话时间中识别客户端上的活动用户会话的间隔的开始时间和结束时间。 实施例还被配置为确定表示一组先前用户会话的第一子集的第一值,其中第一子集的先前用户会话活动至少等于开始时间。 实施例还可以确定表示先前用户会话集合的第二子集的第二值,其中第二子集的先前用户会话活动至少等于结束时间。 实施例还基于第一和第二值确定活动用户会话的认证置信度得分的衰减率。 在一些实施例中,该集合基于上下文属性。
    • 3. 发明申请
    • CONTINUOUS AUTHENTICATION CONFIDENCE MODULE
    • 连续认证信任模块
    • US20140366111A1
    • 2014-12-11
    • US13994016
    • 2013-03-15
    • Micah J. ShellerConor P. CahillJason MartinNed M. SmithBrandon Baker
    • Micah J. ShellerConor P. CahillJason MartinNed M. SmithBrandon Baker
    • H04L29/06
    • H04L63/08G06F21/31G06F21/316G06F2221/2101G06F2221/2103G06F2221/2139H04L63/0861H04L67/14H04L67/24
    • Generally, this disclosure describes a continuous authentication confidence module. A system may include user device including processor circuitry configured to determine presence data; a confidence factor including at least one of a sensor configured to capture sensor input and a system monitoring module configured to monitor activity of the user device; memory configured to store a confidence score and an operating system; and a continuous authentication confidence module configured to determine the confidence score in response to an initial authentication of a specific user, update the confidence score based, at least in part, an expectation of user presence and/or selected presence data, and notify the operating system that the authentication is no longer valid if the updated confidence score is within a tolerance of a session close threshold; the initial authentication configured to open a session, the confidence score configured to indicate a current strength of authentication during the session.
    • 通常,本公开描述了连续认证置信模块。 系统可以包括用户设备,包括被配置为确定存在数据的处理器电路; 包括被配置为捕获传感器输入的传感器中的至少一个的置信因子和被配置为监视用户设备的活动的系统监视模块中的至少一个; 存储器被配置为存储置信度分数和操作系统; 以及连续认证置信模块,被配置为响应于特定用户的初始认证来确定置信度得分,至少部分地基于用户存在和/或选择的存在数据的期望来更新置信度分数,并且通知操作 系统,如果更新的置信度分数在会话关闭阈值的容限内,认证不再有效; 所述初始认证被配置为打开会话,所述置信度分数被配置为指示所述会话期间的当前认证强度。
    • 4. 发明授权
    • Systems and methods for estimating a parameter for a 3D model
    • 用于估计3D模型参数的系统和方法
    • US08786595B2
    • 2014-07-22
    • US12482327
    • 2009-06-10
    • Brandon Baker
    • Brandon Baker
    • G06T15/00
    • G06T5/002G06T5/40G06T17/10G06T17/20G06T2200/04G06T2207/20182G06T2210/52
    • The present invention estimates parameters for 3D models. Parameters may include, without limitation, surface topology, edge geometry, luminous or reflective characteristics, visual properties, characterization of noise in the signal, or other. A metric is estimated by quantifying a relationship between a received signal and a reference signal. The metric is then utilized to determine a parameter for a 3D model. The metric may include a measurement such as the cross-correlation of the received signal and the reference signal, or standard deviation of the difference of the received signal and the reference signal, for example. The parameter obtained may then be used to create a reference signal for determination of another parameter.
    • 本发明估计3D模型的参数。 参数可以包括但不限于表面拓扑,边缘几何形状,发光或反射特性,视觉特性,信号中噪声的表征,或其他。 通过量化接收信号和参考信号之间的关系来估计度量。 然后利用度量来确定3D模型的参数。 例如,该度量可以包括诸如接收信号和参考信号的互相关的测量或接收信号和参考信号的差的标准偏差。 然后可以使用获得的参数来创建用于确定另一参数的参考信号。
    • 7. 发明申请
    • Systems and Methods for Estimating a Parameter for a 3D model
    • 用于估计3D模型参数的系统和方法
    • US20100315419A1
    • 2010-12-16
    • US12482327
    • 2009-06-10
    • Brandon Baker
    • Brandon Baker
    • G06T17/00
    • G06T5/002G06T5/40G06T17/10G06T17/20G06T2200/04G06T2207/20182G06T2210/52
    • The present invention estimates parameters for 3D models. Parameters may include, without limitation, surface topology, edge geometry, luminous or reflective characteristics, visual properties, characterization of noise in the signal, or other. A metric is estimated by quantifying a relationship between a received signal and a reference signal. The metric is then utilized to determine a parameter for a 3D model. The metric may include a measurement such as the cross-correlation of the received signal and the reference signal, or standard deviation of the difference of the received signal and the reference signal, for example. The parameter obtained may then be used to create a reference signal for determination of another parameter.
    • 本发明估计3D模型的参数。 参数可以包括但不限于表面拓扑,边缘几何形状,发光或反射特性,视觉特性,信号中噪声的表征,或其他。 通过量化接收信号和参考信号之间的关系来估计度量。 然后利用度量来确定3D模型的参数。 例如,该度量可以包括诸如接收信号和参考信号的互相关的测量或接收信号和参考信号的差的标准偏差。 然后可以使用获得的参数来创建用于确定另一参数的参考信号。
    • 8. 发明授权
    • Static and run-time anti-disassembly and anti-debugging
    • 静态和运行时的反拆卸和反调试
    • US07383583B2
    • 2008-06-03
    • US10795058
    • 2004-03-05
    • Michael David MarrBrandon Baker
    • Michael David MarrBrandon Baker
    • H04L9/00G06F9/44
    • G06F21/14
    • In order to prevent analysis by static and dynamic disassembly techniques, instruction level code obfuscation is performed to induce misalignment and mistaken analysis by disassemblers. Misalignment is induced by including a bypass which leads, during execution, to a legitimate location. During analysis, however, bogus data may be analyzed by the disassembler due to the bypass. Run-time modifications may also be included in code. Code is changed to an invalid state, and instructions inserted into the code which will return the code to a valid state during execution. During analysis, these invalid states may be analyzed by the disassembler as invalid instructions. Induced misalignments and run-time modifications can be chained together to produce sequences of code that will always produce invalid disassembly output from common disassemblers.
    • 为了防止通过静态和动态拆卸技术进行分析,执行指令级别代码混淆以通过拆卸器引起错位和错误分析。 通过包括在执行期间导致合法位置的旁路引起不对准。 然而,在分析期间,由于旁路可能由反汇编器分析假数据。 代码中也可能包含运行时修改。 代码更改为无效状态,插入到代码中的指令将在执行期间将代码返回到有效状态。 在分析过程中,这些无效状态可能被反汇编器分析为无效指令。 诱导的不对齐和运行时修改可以链接在一起,以产生始终从通用反汇编器产生无效的反汇编输出的代码序列。
    • 9. 发明申请
    • Static and run-time anti-disassembly and anti-debugging
    • 静态和运行时的反拆卸和反调试
    • US20050198526A1
    • 2005-09-08
    • US10795058
    • 2004-03-05
    • Michael MarrBrandon Baker
    • Michael MarrBrandon Baker
    • G06F15/00
    • G06F21/14
    • In order to prevent analysis by static and dynamic disassembly techniques, instruction level code obfuscation is performed to induce misalignment and mistaken analysis by disassemblers. Misalignment is induced by including a bypass which leads, during execution, to a legitimate location. During analysis, however, bogus data may be analyzed by the disassembler due to the bypass. Run-time modifications may also be included in code. Code is changed to an invalid state, and instructions inserted into the code which will return the code to a valid state during execution. During analysis, these invalid states may be analyzed by the disassembler as invalid instructions. Induced misalignments and run-time modifications can be chained together to produce sequences of code that will always produce invalid disassembly output from common disassemblers.
    • 为了防止通过静态和动态拆卸技术进行分析,执行指令级别代码混淆以通过拆卸器引起错位和错误分析。 通过包括在执行期间导致合法位置的旁路引起不对准。 然而,在分析期间,由于旁路可能由反汇编器分析假数据。 代码中也可能包含运行时修改。 代码更改为无效状态,插入到代码中的指令将在执行期间将代码返回到有效状态。 在分析过程中,这些无效状态可能被反汇编器分析为无效指令。 诱导的不对齐和运行时修改可以链接在一起,以产生始终从通用反汇编器产生无效的反汇编输出的代码序列。