CN109379243B - Method for establishing topology display model of silicon cube high-performance computer - Google Patents
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Abstract
本发明提供一种硅立方高性能计算机的拓扑展示模型的建立方法,所述硅立方高性能计算机是由多个硅元按照3D Torus的拓扑方式连接构成,每个所述硅元是由12个交换芯片按照3D Torus的拓扑方式连接构成,每个所述交换芯片连接着多个计算节点,所述方法包括:基于WebGL建立硅立方拓扑页面,所述硅立方拓扑页面用于展示所述硅立方高性能计算机的各硅元之间的拓扑关系;在每个硅元内,基于WebGL建立硅元内部拓扑页面,所述硅元内部拓扑页面用于展示硅元内部的各交换芯片之间的拓扑关系。本发明能够建立一个6D的拓扑展示模型,满足展示需求。
The invention provides a method for establishing a topology display model of a silicon cube high-performance computer. The silicon cube high-performance computer is composed of a plurality of silicon elements connected according to the topology of 3D Torus, and each of the silicon elements is composed of 12 silicon elements. The switching chips are connected in a 3D Torus topology, and each of the switching chips is connected to a plurality of computing nodes. The method includes: establishing a silicon cube topology page based on WebGL, where the silicon cube topology page is used to display the silicon cube Topological relationship between the silicon elements of the high-performance computer; in each silicon element, the internal topology page of the silicon element is established based on WebGL, and the internal topology page of the silicon element is used to display the topology between the switching chips inside the silicon element relation. The present invention can establish a 6D topology display model to meet the display requirements.
Description
技术领域technical field
本发明涉及服务器技术领域,尤其涉及一种硅立方高性能计算机的拓扑展示模型的建立方法。The invention relates to the technical field of servers, in particular to a method for establishing a topology display model of a silicon cube high-performance computer.
背景技术Background technique
随着高性能领域各种数据中心的网络规模不断扩大,预计将会出现亿级计算的需求,对应的网络拓扑也将更加复杂。为了应对亿级计算中复杂的网络拓扑,出现了新的高维度的网络拓扑——6D Torus以及采用6D Torus拓扑构成的硅立方高性能计算机。为了对采用6D Torus拓扑的硅立方高性能计算机进行监控,需要实现相应的页面来对硅立方的拓扑结构进行多层次、多维度的展示和监控。As the network scale of various data centers in the high-performance field continues to expand, it is expected that there will be hundreds of millions of computing needs, and the corresponding network topology will become more complex. In order to cope with the complex network topology in billion-scale computing, a new high-dimensional network topology, 6D Torus, and a silicon cube high-performance computer using 6D Torus topology have emerged. In order to monitor the silicon cube high-performance computer using the 6D Torus topology, it is necessary to implement corresponding pages to display and monitor the topological structure of the silicon cube in multiple levels and dimensions.
现有的WebGL技术可以展示三维结构,也可以通过旋转或者拖拽从多个视角观察三维结构,但是由于硅立方高性能计算机需要展示的是六个维度,显然,现有的WebGL技术无法满足硅立方的展示需求。The existing WebGL technology can display three-dimensional structures, and can also observe three-dimensional structures from multiple perspectives by rotating or dragging. However, since the silicon cube high-performance computer needs to display six dimensions, it is obvious that the existing WebGL technology cannot meet the requirements of silicon cubes. cubic display needs.
发明内容SUMMARY OF THE INVENTION
为解决上述问题,本发明提供一种硅立方高性能计算机的拓扑展示模型的建立方法,能够建立一个6D的拓扑展示模型,满足展示需求。In order to solve the above problems, the present invention provides a method for establishing a topology display model of a silicon cube high-performance computer, which can establish a 6D topology display model to meet the display requirements.
本发明提供一种硅立方高性能计算机的拓扑展示模型的建立方法,所述硅立方高性能计算机是由多个硅元按照3D Torus的拓扑方式连接构成,每个所述硅元是由12个交换芯片按照3D Torus的拓扑方式连接构成,每个所述交换芯片连接着多个计算节点,所述方法包括:The invention provides a method for establishing a topology display model of a silicon cube high-performance computer. The silicon cube high-performance computer is composed of a plurality of silicon elements connected according to the topology of 3D Torus, and each of the silicon elements is composed of 12 silicon elements. The switching chips are connected according to the topology of 3D Torus, and each of the switching chips is connected to a plurality of computing nodes. The method includes:
基于WebGL建立硅立方拓扑页面,所述硅立方拓扑页面用于展示所述硅立方高性能计算机的各硅元之间的拓扑关系;Create a silicon cube topology page based on WebGL, the silicon cube topology page is used to display the topological relationship between the silicon elements of the silicon cube high-performance computer;
在每个硅元内,基于WebGL建立硅元内部拓扑页面,所述硅元内部拓扑页面用于展示硅元内部的各交换芯片之间的拓扑关系。In each silicon element, an internal topology page of the silicon element is established based on WebGL, and the internal topology page of the silicon element is used to display the topology relationship between each switching chip inside the silicon element.
可选地,所述硅立方高性能计算机的各硅元之间的拓扑关系包括:各硅元之间的连接方式、各硅元自身的信息以及各硅元之间每条边的信息,其中,各硅元之间的连接方式为标准的立方体形状的3D Torus连接方式。Optionally, the topological relationship between the silicon elements of the silicon cube high-performance computer includes: the connection mode between the silicon elements, the information of each silicon element itself, and the information of each edge between the silicon elements, wherein , the connection between the silicon elements is the standard cube-shaped 3D Torus connection.
可选地,所述硅立方高性能计算机的各硅元自身的信息包括:每个硅元的序号、坐标和每个硅元的当前工作状态。Optionally, the information of each silicon element of the silicon cube high-performance computer includes: the serial number and coordinates of each silicon element and the current working state of each silicon element.
可选地,每个硅元的序号和坐标的映射规则为:在所述硅立方拓扑页面,设定x方向为从左至右,y方向为从前至后,z方向为从下至上,则序号0对应坐标(0,0,0),其余序号对应坐标按照x,y,z的优先级进行递增。Optionally, the mapping rule for the serial number and coordinates of each silicon element is: on the silicon cube topology page, set the x direction to be from left to right, the y direction to be from front to back, and the z direction to be from bottom to top, then The serial number 0 corresponds to the coordinate (0, 0, 0), and the coordinates corresponding to the other serial numbers are incremented according to the priority of x, y, and z.
可选地,所述硅立方高性能计算机的各硅元之间每条边的信息包括:每条边两端的硅元序号、每条边上具有的链路数以及每条链路的端口信息。Optionally, the information of each edge between the silicon elements of the silicon cube high-performance computer includes: the serial numbers of the silicon elements at both ends of each edge, the number of links on each edge, and the port information of each link. .
可选地,所述硅元内部的各交换芯片之间的拓扑关系包括:各交换芯片之间的连接方式、各交换芯片自身的信息以及各交换芯片之间每条连线的信息,其中,所述硅元内部的各交换芯片之间的连接方式为:12个交换芯片分为上、中、下三层,中间层的每个顶点与上层的一个顶点以及下层的一个顶点是成环路连接的。Optionally, the topological relationship between the switching chips inside the silicon element includes: the connection mode between the switching chips, the information of the switching chips themselves, and the information of each connection between the switching chips, wherein, The connection between the switching chips inside the silicon element is as follows: 12 switching chips are divided into upper, middle and lower layers, and each vertex of the middle layer forms a loop with a vertex of the upper layer and a vertex of the lower layer. connected.
可选地,所述硅元内部的各交换芯片自身的信息包括:每个交换芯片的序号、坐标和每个交换芯片的当前工作状态。Optionally, the information of each switch chip inside the silicon element includes: the serial number and coordinates of each switch chip and the current working state of each switch chip.
可选地,每个交换芯片的序号和坐标的映射规则为:在所述硅元内部拓扑页面,设定a方向为从左至右,b方向为从前至后,c方向为从下至上,则序号0对应坐标(0,0,0),其余序号对应坐标按照a,b,c的优先级进行递增。Optionally, the mapping rule of the serial number and coordinates of each switch chip is: on the internal topology page of the silicon element, set the a direction to be from left to right, the b direction to be from front to back, and the c direction to be from bottom to top, Then the serial number 0 corresponds to the coordinate (0, 0, 0), and the coordinates corresponding to the other serial numbers are incremented according to the priority of a, b, and c.
可选地,所述硅元内部的各交换芯片之间每条连线的信息包括:每条连线所对应链路的链路信息。Optionally, the information of each connection between the switching chips inside the silicon element includes: link information of the link corresponding to each connection.
本发明提供的硅立方高性能计算机的拓扑展示模型的建立方法,能够建立一个6D的拓扑展示模型,主要分为两个页面——硅立方拓扑页面和硅元内部拓扑页面,既能够展示硅立方自身的拓扑结构,还能够从硅立方拓扑页面选中某个硅元,进一步展示硅元内部拓扑结构,以及拓扑结构上节点的基本信息和告警状况,充分满足展示需求。The method for establishing a topology display model of a silicon cube high-performance computer provided by the present invention can establish a 6D topology display model, which is mainly divided into two pages - a silicon cube topology page and a silicon element internal topology page, which can not only display the silicon cube Its own topology can also select a silicon element from the silicon cube topology page to further display the internal topology of the silicon element, as well as the basic information and alarm status of nodes on the topology, fully meeting the display needs.
附图说明Description of drawings
图1为本发明的硅立方高性能计算机的拓扑展示模型的建立方法的一个实施例的流程示意图;1 is a schematic flowchart of an embodiment of a method for establishing a topology display model of a silicon cube high-performance computer according to the present invention;
图2为本发明实施例建立的4X4X4的硅立方拓扑页面示意图;2 is a schematic diagram of a 4X4X4 silicon cube topology page established in an embodiment of the present invention;
图3为本发明实施例建立的硅元内部拓扑页面示意图。FIG. 3 is a schematic diagram of an internal topology page of a silicon element established in an embodiment of the present invention.
具体实施方式Detailed ways
为使本发明实施例的目的、技术方案和优点更加清楚,下面将结合本发明实施例中的附图,对本发明实施例中的技术方案进行清楚、完整地描述,显然,所描述的实施例仅仅是本发明一部分实施例,而不是全部的实施例。基于本发明中的实施例,本领域普通技术人员在没有做出创造性劳动前提下所获得的所有其他实施例,都属于本发明保护的范围。In order to make the purposes, technical solutions and advantages of the embodiments of the present invention clearer, the technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments It is only a part of the embodiments of the present invention, but not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.
本发明实施例提供一种硅立方高性能计算机的拓扑展示模型的建立方法,一个硅立方高性能计算机是由多个硅元按照3D Torus的拓扑方式连接构成,每个硅元是由12个交换芯片按照3D Torus的拓扑方式连接构成,每个交换芯片连接着多个计算节点,如图1所示,所述方法包括:The embodiment of the present invention provides a method for establishing a topology display model of a silicon cube high-performance computer. A silicon cube high-performance computer is composed of a plurality of silicon elements connected according to the topology of 3D Torus, and each silicon element is composed of 12 switches. The chips are connected according to the topology of 3D Torus, and each switching chip is connected to multiple computing nodes, as shown in Figure 1, the method includes:
S11、基于WebGL建立硅立方拓扑页面,硅立方拓扑页面用于展示硅立方高性能计算机的各硅元之间的拓扑关系;S11. Build a silicon cube topology page based on WebGL, and the silicon cube topology page is used to display the topological relationship between the silicon elements of the silicon cube high-performance computer;
S12、在每个硅元内,基于WebGL建立硅元内部拓扑页面,硅元内部拓扑页面用于展示硅元内部的各交换芯片之间的拓扑关系。S12. In each silicon element, an internal topology page of the silicon element is established based on WebGL, and the internal topology page of the silicon element is used to display the topology relationship between each switching chip inside the silicon element.
可选地,硅立方高性能计算机的各硅元之间的拓扑关系包括:各硅元之间的连接方式、各硅元自身的信息以及各硅元之间每条边的信息;硅元内部的各交换芯片之间的拓扑关系包括:各交换芯片之间的连接方式、各交换芯片自身的信息以及各交换芯片之间每条连线的信息。Optionally, the topological relationship between the silicon elements of the silicon cube high-performance computer includes: the connection mode between the silicon elements, the information of each silicon element itself, and the information of each edge between the silicon elements; The topology relationship between the switching chips includes: the connection mode between the switching chips, the information of the switching chips themselves, and the information of each connection between the switching chips.
具体地,硅立方拓扑页面主要为各硅元之间的拓扑关系展示,能够展示各硅元之间的连接方式、各硅元自身的信息以及各硅元之间每条边的信息。其中,各硅元之间的拓扑,采用标准的立方体形状的3DTorus结构。如图2所示,是一个标准的4X4X4的硅立方的3DTorus结构。为了清楚,示出了坐标参考方向和坐标原点。需要说明的是,硅立方是可以无限扩展的。各硅元自身的信息包括每个硅元的序号、坐标和每个硅元的当前工作状态。当前工作状态表示硅元是否出现异常,如果出现异常,显示告警信息。Specifically, the silicon cube topology page mainly displays the topological relationship between the silicon elements, and can display the connection mode between the silicon elements, the information of each silicon element itself, and the information of each edge between the silicon elements. Among them, the topology between each silicon element adopts a standard cube-shaped 3DTorus structure. As shown in Figure 2, it is a standard 4X4X4 silicon cube 3DTorus structure. For clarity, the coordinate reference direction and the coordinate origin are shown. It should be noted that the silicon cube can be expanded infinitely. The information of each silicon element includes the serial number, coordinates of each silicon element and the current working state of each silicon element. The current working status indicates whether the silicon element is abnormal. If there is an abnormality, an alarm message will be displayed.
在硅立方拓扑页面,设定x为宽度,方向从左向右;y为深度,方向从前向后;z为高度,方向从下向上。以立方体的某一个顶点作为原点,其(x,y,z)坐标为(0,0,0),这样就确定了硅立方中每个硅元的坐标位置。On the Silicon Cube topology page, set x as the width, and the direction is from left to right; y is the depth, and the direction is from front to back; z is the height, and the direction is from bottom to top. Taking a vertex of the cube as the origin, its (x, y, z) coordinates are (0, 0, 0), so that the coordinate position of each silicon element in the silicon cube is determined.
硅元序号与坐标的映射规则:序号0对应坐标原点(0,0,0),然后按照x,y,z的优先级进行递增,直到所有的序号都对应上坐标。以一个2x2x3的立方体为例,硅元序号与硅元坐标的映射关系如下表1所示:The mapping rule between silicon element serial numbers and coordinates: serial number 0 corresponds to the coordinate origin (0, 0, 0), and then increments according to the priority of x, y, and z until all serial numbers correspond to the upper coordinates. Taking a 2x2x3 cube as an example, the mapping relationship between the silicon element number and the silicon element coordinates is shown in Table 1 below:
表1Table 1
各硅元之间每条边的信息包括:①这条边两端的硅元序号;②这条边上有几条链路,每条链路是从哪个交换芯片的哪个端口连接到哪个交换芯片的哪个端口(由物理连线获取)。The information of each edge between the silicon elements includes: ① the serial numbers of the silicon elements at both ends of the edge; ② there are several links on this edge, and each link is connected to which switch chip from which port of which switch chip which port (obtained by physical connection).
硅元内部拓扑页面主要为硅元内部各交换芯片之间的拓扑关系展示,能够展示各交换芯片之间的连接方式、各交换芯片自身的信息以及各交换芯片之间每条连线的信息。其中,各交换芯片之间的拓扑,采用特殊形状的3D Torus结构。如图3所示,是一个硅元的3DTorus结构。为了清楚,示出了坐标参考方向和坐标原点。将硅元的12个交换芯片分为上、中、下三层,要求中间一层的每个顶点是与上层的一个顶点以及下层的一个顶点是成环路连接的。各交换芯片自身的信息包括:每个交换芯片的序号、坐标和每个交换芯片的当前工作状态。当前工作状态表示交换芯片是否出现异常,如果出现异常,显示告警信息。The internal topology page of the silicon element mainly displays the topology relationship between the switching chips inside the silicon element, which can display the connection method between the switching chips, the information of each switching chip itself, and the information of each connection between the switching chips. Among them, the topology between each switching chip adopts a 3D Torus structure with a special shape. As shown in Figure 3, it is a 3DTorus structure of silicon element. For clarity, the coordinate reference direction and the coordinate origin are shown. The 12 switching chips of the silicon element are divided into upper, middle and lower layers, and each vertex of the middle layer is required to be connected with a vertex of the upper layer and a vertex of the lower layer in a loop. The information of each switching chip itself includes: the serial number and coordinates of each switching chip, and the current working state of each switching chip. The current working status indicates whether the switch chip is abnormal. If there is an abnormality, an alarm message is displayed.
在硅元内部拓扑页面,设定a为宽度,方向从左向右;b为深度,方向从前向后;c为高度,方向从下向上。以下层的某一个顶点作为原点,其(a,b,c)坐标为(0,0,0),这样就确定了硅元中每个交换芯片的坐标位置。On the internal topology page of the silicon element, set a as the width, and the direction is from left to right; b is the depth, and the direction is from front to back; c is the height, and the direction is from bottom to top. A certain vertex of the lower layer is used as the origin, and its (a, b, c) coordinates are (0, 0, 0), so that the coordinate position of each exchange chip in the silicon element is determined.
交换芯片序号与坐标的映射规则:序号0对应坐标原点(0,0,0),然后按照a,b,c的优先级进行递增,直到所有的序号都对应上坐标。一个硅元内部的各交换芯片序号与交换芯片坐标的映射关系如下表2所示:Exchange the mapping rules of chip serial numbers and coordinates: serial number 0 corresponds to the coordinate origin (0,0,0), and then increments according to the priorities of a, b, and c until all serial numbers correspond to the upper coordinates. The mapping relationship between the serial number of each switch chip inside a silicon element and the coordinates of the switch chip is shown in Table 2 below:
表2Table 2
硅元内部的各交换芯片之间每条连线的信息包括:每条连线所对应链路的链路信息,即该条链路是从哪个交换芯片的哪个端口连接到哪个交换芯片的哪个端口(由物理连线获取)。The information of each connection between the switching chips inside the silicon element includes: the link information of the link corresponding to each connection, that is, the link is connected from which port of which switching chip to which port of which switching chip. Port (obtained by physical connection).
根据交换芯片的序号将交换芯片放置在一个硅元的3D拓扑的相应坐标上,然后根据交换芯片与交换芯片之间的链路信息,在相应的两个交换芯片之间添加连线,即可得到硅元内部的各交换芯片之间拓扑关系的展示。Place the switch chip on the corresponding coordinates of the 3D topology of a silicon element according to the serial number of the switch chip, and then add a connection between the corresponding two switch chips according to the link information between the switch chip and the switch chip. The topological relationship between the switching chips inside the silicon element is displayed.
本发明实施例提供的硅立方高性能计算机的拓扑展示模型的建立方法,能够建立一个6D的拓扑展示模型,主要分为两个页面——硅立方拓扑页面和硅元内部拓扑页面,既能够展示硅立方自身的拓扑结构,还能够从硅立方拓扑页面选中某个硅元,进一步展示硅元内部拓扑结构,以及拓扑结构上节点的基本信息和告警状况,充分满足展示需求。The method for establishing a topology display model of a silicon cube high-performance computer provided by the embodiment of the present invention can establish a 6D topology display model, which is mainly divided into two pages - a silicon cube topology page and a silicon element internal topology page, which can display both The topology of the silicon cube itself can also be selected from the silicon cube topology page to further display the internal topology of the silicon element, as well as the basic information and alarm status of nodes on the topology, fully meeting the display requirements.
本领域普通技术人员可以理解实现上述实施例方法中的全部或部分流程,是可以通过计算机程序来指令相关的硬件来完成,所述的程序可存储于一计算机可读取存储介质中,该程序在执行时,可包括如上述各方法的实施例的流程。其中,所述的存储介质可为磁碟、光盘、只读存储记忆体(Read-Only Memory,ROM)或随机存储记忆体(Random AccessMemory,RAM)等。Those of ordinary skill in the art can understand that all or part of the processes in the methods of the above embodiments can be implemented by instructing relevant hardware through a computer program, and the program can be stored in a computer-readable storage medium. During execution, the processes of the embodiments of the above-mentioned methods may be included. The storage medium may be a magnetic disk, an optical disk, a read-only memory (Read-Only Memory, ROM), or a random access memory (Random Access Memory, RAM) or the like.
以上所述,仅为本发明的具体实施方式,但本发明的保护范围并不局限于此,任何熟悉本技术领域的技术人员在本发明揭露的技术范围内,可轻易想到的变化或替换,都应涵盖在本发明的保护范围之内。因此,本发明的保护范围应该以权利要求的保护范围为准。The above are only specific embodiments of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art who is familiar with the technical scope disclosed by the present invention can easily think of changes or substitutions. All should be included within the protection scope of the present invention. Therefore, the protection scope of the present invention should be subject to the protection scope of the claims.
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