Nevow-traversal (转)

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1Nevow Object Traversal
2======================
3
4*Object traversal* is the process Nevow uses to determine what object to use to
5render HTML for a particular URL. When an HTTP request comes in to the web
6server, the object publisher splits the URL into segments, and repeatedly calls
7methods which consume path segments and return objects which represent that
8path, until all segments have been consumed. At the core, the Nevow traversal
9API is very simple. However, it provides some higher level functionality layered
10on top of this to satisfy common use cases.
11
12* `Object Traversal Basics`_
13* `locateChild in depth`_
14* `childFactory method`_
15* `child_* methods and attributes`_
16* `Dots in child names`_
17* `children dictionary`_
18* `The default trailing slash handler`_
19* `ICurrentSegments and IRemainingSegments`_
20
21Object Traversal Basics
22-----------------------
23
24The *root resource* is the top-level object in the URL space; it conceptually
25represents the URI "/". The Nevow *object traversal* and *object publishing*
26machinery uses only two methods to locate an object suitable for publishing and
27to generate the HTML from it; these methods are described in the interface
28``nevow.inevow.IResource``::
29
30
31  class IResource(compy.Interface):
32      def locateChild(self, ctx, segments):
33          """Locate another object which can be adapted to IResource
34          Return a tuple of resource, path segments
35          """
36
37      def renderHTTP(self, ctx):
38          """Render a request
39          """
40
41``renderHTTP`` can be as simple as a method which simply returns a string of HTML.
42Let's examine what happens when object traversal occurs over a very simple root
43resource::
44
45  from zope.interface import implements
46
47  class SimpleRoot(object):
48      implements(inevow.IResource)
49
50      def locateChild(self, ctx, segments):
51          return self, ()
52
53      def renderHTTP(self, ctx):
54          return "Hello, world!"
55
56This resource, when passed as the root resource to ``appserver.NevowSite`` or
57``wsgi.createWSGIApplication``, will immediately return itself, consuming all path
58segments. This means that for every URI a user visits on a web server which is
59serving this root resource, the text "Hello, world!" will be rendered. Let's
60examine the value of ``segments`` for various values of URI:
61
62/foo/bar
63  ('foo', 'bar')
64
65/
66  ('', )
67
68/foo/bar/baz.html
69  ('foo', 'bar', 'baz.html')
70
71/foo/bar/directory/
72  ('foo', 'bar', 'directory', '')
73
74So we see that Nevow does nothing more than split the URI on the string '/' and
75pass these path segments to our application for consumption. Armed with these
76two methods alone, we already have enough information to write applications
77which service any form of URL imaginable in any way we wish. However, there are
78some common URL handling patterns which Nevow provides higher level support for.
79
80``locateChild`` in depth
81------------------------
82
83One common URL handling pattern involves parents which only know about their
84direct children. For example, a ``Directory`` object may only know about the
85contents of a single directory, but if it contains other directories, it does
86not know about the contents of them. Let's examine a simple ``Directory`` object
87which can provide directory listings and serves up objects for child directories
88and files::
89
90  from zope.interface import implements           
91
92  class Directory(object):
93      implements(inevow.IResource)
94
95      def __init__(self, directory):
96          self.directory = directory
97
98      def renderHTTP(self, ctx):
99          html = ['<ul>']
100          for child in os.listdir(self.directory):
101              fullpath = os.path.join(self.directory, child)
102              if os.path.isdir(fullpath):
103                  child += '/'
104              html.extend(['<li><a href="', child, '">', child, '</a></li>'])
105          html.append('</ul>')
106          return ''.join(html)
107
108      def locateChild(self, ctx, segments):
109          name = segments[0]
110          fullpath = os.path.join(self.directory, name)
111          if not os.path.exists(fullpath):
112              return None, () # 404
113
114          if os.path.isdir(fullpath):
115              return Directory(fullpath), segments[1:]
116          if os.path.isfile(fullpath):
117              return static.File(fullpath), segments[1:]
118
119Because this implementation of ``locateChild`` only consumed one segment and
120returned the rest of them (``segments[1:]``), the object traversal process will
121continue by calling ``locateChild`` on the returned resource and passing the
122partially-consumed segments. In this way, a directory structure of any depth can
123be traversed, and directory listings or file contents can be rendered for any
124existing directories and files.
125
126So, let us examine what happens when the URI "/foo/bar/baz.html" is traversed,
127where "foo" and "bar" are directories, and "baz.html" is a file.
128
129Directory('/').locateChild(ctx, ('foo', 'bar', 'baz.html'))
130    Returns Directory('/foo'), ('bar', 'baz.html')
131
132Directory('/foo').locateChild(ctx, ('bar', 'baz.html'))
133    Returns Directory('/foo/bar'), ('baz.html, )
134
135Directory('/foo/bar').locateChild(ctx, ('baz.html'))
136    Returns File('/foo/bar/baz.html'), ()
137
138No more segments to be consumed; ``File('/foo/bar/baz.html').renderHTTP(ctx)`` is
139called, and the result is sent to the browser.
140                       
141``childFactory`` method
142-----------------------
143
144Consuming one URI segment at a time by checking to see if a requested resource
145exists and returning a new object is a very common pattern. Nevow's default
146implementation of ``IResource``, ``nevow.rend.Page``, contains an implementation of
147``locateChild`` which provides more convenient hooks for implementing object
148traversal. One of these hooks is ``childFactory``. Let us imagine for the sake of
149example that we wished to render a tree of dictionaries. Our data structure
150might look something like this::
151
152    tree = dict(
153        one=dict(
154            foo=None,
155            bar=None),
156        two=dict(
157            baz=dict(
158                quux=None)))
159
160Given this data structure, the valid URIs would be:
161
162* /
163* /one
164* /one/foo
165* /one/bar
166* /two
167* /two/baz
168* /two/baz/quux
169
170Let us construct a ``rend.Page`` subclass which uses the default ``locateChild``
171implementation and overrides the ``childFactory`` hook instead::
172
173  class DictTree(rend.Page):
174      def __init__(self, dataDict):
175          self.dataDict = dataDict
176
177      def renderHTTP(self, ctx):
178          if self.dataDict is None:
179              return "Leaf"
180          html = ['<ul>']
181          for key in self.dataDict.keys():
182              html.extend(['<li><a href="', key, '">', key, '</a></li>'])
183          html.append('</ul>')
184          return ''.join(html)
185
186      def childFactory(self, ctx, name):
187          if name not in self.dataDict:
188              return rend.NotFound # 404
189          return DictTree(self.dataDict[name])
190
191As you can see, the ``childFactory`` implementation is considerably shorter than the
192equivalent ``locateChild`` implementation would have been.
193
194``child_*`` methods and attributes
195----------------------------------
196
197Often we may wish to have some hardcoded URLs which are not dynamically
198generated based on some data structure. For example, we might have an
199application which uses an external CSS stylesheet, an external JavaScript file,
200and a folder full of images. The ``rend.Page`` ``locateChild`` implementation provides a
201convenient way for us to express these relationships by using ``child``-prefixed
202methods::
203
204  class Linker(rend.Page):
205      def renderHTTP(self, ctx):
206          return """<html>
207    <head>
208      <link href="css" rel="stylesheet" />
209      <script type="text/javascript" src="scripts" />
210    <body>
211      <img src="images/logo.png" />
212    </body>
213  </html>"""
214
215      def child_css(self, ctx):
216          return static.File('/Users/dp/styles.css')
217
218      def child_scripts(self, ctx):
219          return static.File('/Users/dp/scripts.js')
220
221      def child_images(self, ctx):
222          return static.File('/Users/dp/images/')
223
224One thing you may have noticed is that all of the examples so far have returned
225new object instances whenever they were implementing a traversal API. However,
226there is no reason these instances cannot be shared. One could for example
227return a global resource instance, an instance which was previously inserted in
228a dict, or lazily create and cache dynamic resource instances on the fly. The
229``rend.Page`` ``locateChild`` implementation also provides a convenient way to express
230that one global resource instance should always be used for a particular url,
231the ``child``-prefixed attribute::
232
233  class FasterLinker(Linker):
234      child_css = static.File('/Users/dp/styles.css')
235      child_scripts = static.File('/Users/dp/scripts.js')
236      child_images = static.File('/Users/dp/images/')
237
238Dots in child names
239-------------------
240
241When a URL contains dots, which is quite common in normal URLs, it is simple
242enough to handle these URL segments in ``locateChild`` or ``childFactory`` -- one of the
243passed segments will simply be a string containing a dot. However, it is not
244immediately obvious how one would express a URL segment with a dot in it when
245using ``child``-prefixed methods. The solution is really quite simple::
246
247  class DotChildren(rend.Page):
248      return '<html><head><script type="text/javascript" src="scripts.js" /></head></html>'
249
250  setattr(DotChildren, 'child_scripts.js', static.File('/Users/dp/scripts.js'))
251
252The same technique could be used to install a child method with a dot in the
253name.
254
255children dictionary
256-------------------
257
258The final hook supported by the default implementation of locateChild is the
259``rend.Page.children`` dictionary::
260
261  class Main(rend.Page):
262      children = {
263          'people': People(),
264          'jobs': Jobs(),
265          'events': Events()}
266
267      def renderHTTP(self, ctx):
268          return """/
269<html>
270    <head>
271        <title>Our Site</title>
272    </head>
273    <body>
274        <p>bla bla bla</p>
275    </body>
276</html>"""
277
278
279Hooks are checked in the following order:
280
281  1. ``self.dictionary``
282  2. ``self.child_*``
283  3. ``self.childFactory``
284
285The default trailing slash handler
286----------------------------------
287
288When a URI which is being handled ends in a slash, such as when the '/' URI is
289being rendered or when a directory-like URI is being rendered, the string ''
290appears in the path segments which will be traversed. Again, handling this case
291is trivial inside either ``locateChild`` or ``childFactory``, but it may not be
292immediately obvious what ``child``-prefixed method or attribute will be looked up.
293The method or attribute name which will be used is simply ``child`` with a single
294trailing underscore.
295
296The ``rend.Page`` class provides an implementation of this method which can work in
297two different ways. If the attribute ``addSlash`` is True, the default trailing
298slash handler will return ``self``. In the case when ``addSlash`` is True, the default
299``rend.Page.renderHTTP`` implementation will simply perform a redirect which adds
300the missing slash to the URL.
301
302The default trailing slash handler also returns self if ``addSlash`` is false, but
303emits a warning as it does so. This warning may become an exception at some
304point in the future.
305
306``ICurrentSegments`` and ``IRemainingSegments``
307-----------------------------------------------
308
309During the object traversal process, it may be useful to discover which segments
310have already been handled and which segments are remaining to be handled. This
311information may be obtained from the ``context`` object which is passed to all the
312traversal APIs. The interfaces ``nevow.inevow.ICurrentSegments`` and
313``nevow.inevow.IRemainingSegments`` are used to retrieve this information. To
314retrieve a tuple of segments which have previously been consumed during object
315traversal, use this syntax::
316
317  segs = ICurrentSegments(ctx)
318
319The same is true of ``IRemainingSegments``. ``IRemainingSegments`` is the same value
320which is passed as ``segments`` to ``locateChild``, but may also be useful in the
321implementations of ``childFactory`` or a ``child``-prefixed method, where this
322information would not otherwise be available.
323 
324Conclusion
325==========
326
327Nevow makes it easy to handle complex URL hierarchies. The most basic object
328traversal interface, ``nevow.inevow.IResource.locateChild``, provides powerful and
329flexible control over the entire object traversal process. Nevow's canonical
330``IResource`` implementation, ``rend.Page``, also includes the convenience hooks
331``childFactory`` along with ``child``-prefixed method and attribute semantics to
332simplify common use cases.
 
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三相充电桩维也纳PFC+三电平LLC谐振变换器三电平PSIM仿真设计(Simulink仿真实现)

内容概要:本文档聚焦于电力电子与电力系统领域的仿真设计,重点围绕三相充电桩中维也纳PFC(Vienna Power Factor Correction)整流器与三电平LLC谐振变换器的联合系统展开,提供基于PSIM和Simulink平台的完整仿真设计方案。内容涵盖9kW三相三开关维也纳PFC整流器的Mathcad计算书、双闭环控制策略、中点电压均衡控制、SVPWM调制技术及电流过零畸变消除方法等关键技术环节,并配套详细的仿真模型与设计报告。此外,文档整合了丰富的电力电子拓扑资源,包括图腾柱PFC、交错并联PFC、双有源桥DAB、CLLC谐振变换器、双向Buck-Boost等典型电路结构,覆盖Matlab/Simulink、Plecs、PSIM等多种仿真环境,形成从理论计算、建模、控制算法设计到性能优化的一体化技术体系。; 适合人群:面向具备电力电子、电气工程、自动化等相关专业背景,熟悉Matlab/Simulink/PSIM等仿真工具,从事新能源汽车充电技术、高效率AC-DC/DC-DC变换器设计、电力系统能量管理等方向的研究生、科研人员及工程技术人员。; 使用场景及目标:①支持三相高功率因数校正与高效DC-DC变换系统的科研仿真与教学实践;②用于PI控制、前馈控制、SVPWM、软开关技术、中点电位平衡、双闭环动态响应等核心控制算法的研究与验证;③服务于毕业设计、科研课题、学术论文复现及实际工程项目开发,提升系统级建模与优化能力。; 阅读建议:建议结合Mathcad计算书与仿真模型同步学习,优先掌握维也纳PFC与LLC的基本工作原理与参数设计流程,再深入理解双闭环控制系统架构与关键控制策略,推荐先运行Simulink模型观察动态波形响应,并参考附带文献深化理论认知与工程实现能力。

国央企创新负责人如何借助平台实现技术供需的智能匹配与高效对接?.docx

科易网基于AI模型+行业大数据,在技术转移、成果转化、技术经纪、知识产权、产业创新、科技招商等垂直领域的多样化应用场景,推出科技创新领域的AI+工具与数智化解决方案,推动科技创新与产业创新智能化发展。

政府科技管理者在推动科技成果转移转化时,如何高效识别具有高转化价值的科研成果.docx

科易网基于AI模型+行业大数据,在技术转移、成果转化、技术经纪、知识产权、产业创新、科技招商等垂直领域的多样化应用场景,推出科技创新领域的AI+工具与数智化解决方案,推动科技创新与产业创新智能化发展。

国央企创新负责人在推动内部技术转化时,如何高效识别优质专利资源?.docx

科易网基于AI模型+行业大数据,在技术转移、成果转化、技术经纪、知识产权、产业创新、科技招商等垂直领域的多样化应用场景,推出科技创新领域的AI+工具与数智化解决方案,推动科技创新与产业创新智能化发展。

三电平Buck直流变换器双闭环、单闭环、开环仿真【附参考文献】(Simulink仿真实现)

内容概要:本文详细介绍了基于Simulink平台实现的三电平Buck直流变换器的开环、单闭环及双闭环控制系统的建模、仿真与性能分析全过程,涵盖了系统原理、控制策略设计、仿真模型构建及结果验证,并提供了参考文献以支持理论依据。重点对三种控制方式(开环、单闭环、双闭环)在动态响应速度、稳态精度、抗负载扰动能力等方面的性能进行了对比分析,深入揭示了多电平变换器在不同控制结构下的运行特性与优化潜力,有助于理解先进控制策略在电力电子变换器中的应用价值。; 适合人群:电力电子、自动化、电气工程及其相关专业的高校本科生、研究生,以及从事新能源电源系统、直流变换器设计与控制研究的工程技术人员。; 使用场景及目标:①掌握三电平Buck变换器的基本工作原理与数学建模方法;②学习并实践开环、单闭环与双闭环控制策略的设计流程与参数整定技巧;③通过仿真对比不同控制结构的性能差异,为科研项目、毕业设计或工业产品开发提供技术参考与实现基础; 阅读建议:建议读者结合Simulink仿真模型同步操作,动手搭建各控制结构,深入理解控制器设计逻辑与系统动态行为的关系,同时查阅文中所列参考文献以深化对控制理论与电力电子技术融合的理解。

产业园区在推动科技成果转化时,如何精准匹配企业与技术供给方?.docx

科易网基于AI模型+行业大数据,在技术转移、成果转化、技术经纪、知识产权、产业创新、科技招商等垂直领域的多样化应用场景,推出科技创新领域的AI+工具与数智化解决方案,推动科技创新与产业创新智能化发展。

三相电压型PWM整流器PI双闭环控制Matlab仿真

内容概要:本文围绕三相电压型PWM整流器的PI双闭环控制展开,详细介绍基于Matlab/Simulink平台的控制系统建模与仿真方法,重点实现电压外环与电流内环的双闭环PI控制器设计,以提升系统的动态响应性能、稳态精度及抗干扰能力。文档不仅涵盖PWM整流器的核心控制策略,还系统整合了多种典型电力电子变换器的仿真案例,如维也纳(Vienna)整流器、LLC谐振变换器、Buck/Boost电路、图腾柱PFC等,涉及中点电压均衡、电流过零畸变抑制、SVPWM调制、功率因数校正、电网不平衡下的功率平衡控制等关键技术。配套提供的Mathcad计算书、仿真模型与参考文献,构建了一套完整的理论分析、参数设计与仿真验证一体化的学习与研究体系; 适合人群:电气工程、自动化、电力电子与新能源等相关专业的高校本科生、研究生,以及从事电力变换系统、新能源并网、电能质量治理等领域研发工作的工程技术人员; 使用场景及目标:①作为高校课程设计、毕业设计或科研项目的重要参考资料,深入理解PWM整流器双闭环控制原理与实现方法;②掌握PI控制器设计、dq坐标系变换、锁相环(PLL)、SVPWM调制等核心技术在实际系统中的综合应用;③为工业级高效电能转换系统(如充电桩、储能变流器、光伏逆变器)的研发提供理论支撑与仿真原型基础; 阅读建议:建议结合Simulink仿真模型与Mathcad计算书同步学习,注重控制算法的手动推导与控制器参数整定过程,深入理解各模块之间的耦合关系,并参考文中多种拓扑结构与先进控制策略,拓展对现代电力电子系统设计的认知深度与创新能力。

849d2910791d3ac603e873835a8296fc_7513595024160782007_m.zip

849d2910791d3ac603e873835a8296fc_7513595024160782007_m.zip

高校技术转移办公室人员如何提升技术成果的市场对接效率?.docx

科易网基于AI模型+行业大数据,在技术转移、成果转化、技术经纪、知识产权、产业创新、科技招商等垂直领域的多样化应用场景,推出科技创新领域的AI+工具与数智化解决方案,推动科技创新与产业创新智能化发展。

hid_test_20261109_120326.log

hid_test_20261109_120326.log

电磁波成像技术全解析:从γ射线到无线电波的应用实践

本文全面解析电磁波成像技术,从γ射线到无线电波的应用实践。详细介绍了不同波长电磁波的特性与实用场景,包括医疗影像、工业检测、安防监控等领域。特别探讨了X射线、红外热成像、毫米波雷达等前沿技术的实战应用,为读者提供技术选型指南和操作技巧。

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