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Practical Mathematical Optimization Basic Optimization Theory and Gradient-Base 实用数学优化：基本优化理论与基于梯度的算法 本书为数学、工程、计算机科学和其他应用科学的高年级本科生和研究生提供了广泛的数学优化课程工具。介绍了优化的基本原理，重点介绍了基于梯度的数值优化策略和算法，可用于求解光滑和有噪声的不连续优化问题。还注意到函数求值的困难和存在多个最小值，这往往不必要地抑制了基于梯度的方法的使用。这第二版介绍了仅梯度优化策略的进一步改进，以处理目标函数中的不连续。新的章节讨论了代理模型的构造，以及新的仅限梯度解决方案策略和使用Python的数值优化。一个特殊的Python模块以电子方式提供(通过springerlink)，它使文本中的新算法易于访问并直接适用。数值例子和练习包括鼓励高级到研究生水平的学生计划，执行，并反映数值调查。通过对概念材料的深入理解，学生、科学家和工程师将能够发展系统和科学的数字调研技能。 https://link.springer.com/book/10.1007/978-3-3

Paulo S.R. Diniz 著的第三版 自适应滤波算法与实现 英文版

非常好的UVM学习资料，作为入门来讲，结合SV语法可以为数字验证打下一个良好的基础，里面的内容比较详细 The Universal Verification Methodology (UVM) is a complete methodology that codifies the best practices for efficient and exhaustive verification. One of the key principles of UVM is to develop and leverage reusable verification components—also called UVM Verification Components (UVCs). The UVM is targeted to verify small designs and large-gate-count, IP-based system-on-chip (SoC) designs.

互联网工程和网络系统研究提高了我们对互联网底层技术流程的理解。 因此，互联网工程师通常通过从大量个人和组织的设备收集数据来分析互联网上的数据传输。 互联网工程和研究项目的设计反映了人类的决定，因此可能会创造新的道德体系。 技术与社会的这种相互作用创造了可以在许多方面影响个人生活的新实践。 这些行动可能会引发新的道德困境，或在互联网呈现的新的复杂信息环境中挑战现有的道德方法。 为了进一步讨论互联网研究和工程伦理，网络系统研究（“ESRN”）项目于 2015 年 3 月 13 日在牛津大学格林邓普顿学院举办了一个研讨会。涉及互联网研究的学科处理道德困境并证明其推理是正确的。 为此，来自两个不同研究群体的 25 名研究人员和从业人员参加了研讨会：(1) 计算机科学家、网络工程师和其他在工作中面临道德和法律困境的技术研究人员，以及 (2) 哲学家，对互联网工程和互联网带来的伦理困境感兴趣，但可能不了解该领域的细节、微妙之处和困境的实践伦理学家、法律哲学家和相关学科。 几位计算机科学家就他们的项目做了简短的介绍，然后由研讨会参与者进行了深入的讨论。 跨学科的讨论导致了一些有趣的跨学科推理对抗。 这是一篇观点论文，我们在其中介绍了几个所讨论的案例，以及不同群体所应用的推理。 研讨会期间提出的论点揭示了一些潜在的假设和价值观，从而导致了一些新兴主题，进而揭示了学科之间的特定概念差距。 本文绝不是对计算机伦理或互联网研究伦理的全面概述，而只是对研讨会期间出现的主题的探索。

Database Systems：A Practical Approach to Design, Implementation and Management;4th Edition 数据库系统：设计、实现与管理 第四版

his ninth edition of Digital Electronics: A Practical Approach with VHDLprovides the fundamentals of digital circuitry to students in engineering and technology curric- ula. The digital circuits are introduced using fixed-function 7400 ICs and evolve into FPGA (Field Programmable Gate Arrays) programmed with VHDL (VHSIC Hardware Description Language). (Note:Those schools not wishing to develop logic using VHDL and FPGAs can completely skip those sections of the textbook without affect- ing the continuity of the remainder of the text, which describes logic design and imple- mentationusing 7400-series ICs.) Coverage begins with the basic logic gates used to perform arithmetic operations and proceeds through sequential logic and memory circuits used to interface to mod- ern PCs. Professor Kleitz uses his vast experience of teaching electronics online and in class from his best-selling textbooks to know what it takes for an entry-level student to be brought up to speed in this emerging field. It was important to design this new text- book to present practical examples, be easy to read, and provide all of the information necessary for motivated students to teach themselves this new subject matter. This makes it ideal for learning in an online environment as well as from conventional in- class lectures. Digital electronic ICs (integrated circuits) and FPGAs are the “brains” behind common microprocessor-based systems such as those found in automobiles, personal computers, and automated factory control systems. The most exciting recent develop- ment in this field is that students now have the choice to design, simulate, and imple- ment their circuits using a programming language called VHDL instead of wiring individual gates and devices to achieve the required function. Each topic area in this text consistently follows a very specific sequence of steps, making the transition from problem definition, to practical example, to logic IC imple- mentation, to VHDL and FPGA implementation. To accomplish this, the text first in- troduces the theory of operation of the digital logic and then implements the design in integrated circuit form (see Figure P–1). Once the fixed-function IC logic is thoroughly explained, the next step is to implement the design as a graphic design file and then to implement it using the VHDL hardware descriptive language, all within the free version of the Altera Quartus®II development software. Several examples are used to bolster the student’s understanding of the subject before moving on to system-level design and troubleshooting applications of the logic. This step-by-step method has proven over the years to be the most effective method to build the fundamental understanding of digital electronics before proceeding to implement the logic design in VHDL. The Altera Quartus®II software is a free download that allows students to either graphically design their circuit by drawing the logic (using logic gates or 7400 macro- functions) or use VHDL to define their logic. The design can then be simulated on a PC before using the same software to download the logic to an FPGA on one of the commercially available FPGA programmer boards, such as the Altera DE2 illustrated in this text.