WO2022000848A1 - 非对称相位补偿差分传输线 - Google Patents
非对称相位补偿差分传输线 Download PDFInfo
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- WO2022000848A1 WO2022000848A1 PCT/CN2020/120959 CN2020120959W WO2022000848A1 WO 2022000848 A1 WO2022000848 A1 WO 2022000848A1 CN 2020120959 W CN2020120959 W CN 2020120959W WO 2022000848 A1 WO2022000848 A1 WO 2022000848A1
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- Prior art keywords
- transmission line
- section
- segment
- line
- ground wall
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- H—ELECTRICITY
- H01—ELECTRIC ELEMENTS
- H01P—WAVEGUIDES; RESONATORS, LINES, OR OTHER DEVICES OF THE WAVEGUIDE TYPE
- H01P3/00—Waveguides; Transmission lines of the waveguide type
- H01P3/02—Waveguides; Transmission lines of the waveguide type with two longitudinal conductors
- H01P3/08—Microstrips; Strip lines
Definitions
- the invention relates to the technical field of communication, in particular to an asymmetrical phase compensation differential transmission line.
- Differential transmission lines are widely used in microwave, millimeter-wave and terahertz circuit designs, and include two ground wall lines spaced apart and parallel to each other, and a differential signal line pair spaced between the two ground wall lines.
- the differential transmission line is highly immune to external electromagnetic interference.
- An external interference signal affects each end of the differential signal line pair to almost the same extent, and the output signal value of the differential signal is determined by the voltage difference between the two signal lines of the differential signal line pair. Ignore any same interference present on the differential signal pair.
- the signal line there is no need to set a virtual ground, because the intermediate point of the differential transmission signal is a natural virtual point, so that the processing and propagation of bipolar signals have a high degree of fidelity.
- the two signal lines that constitute the differential transmission line have the same amplitude and opposite phases. Therefore, during circuit layout, the signal lines of the differential transmission line must be two signal lines of equal length, equal width, close proximity and on the same level.
- a pair of signal lines with balanced amplitude and phase are at the input end of the differential transmission line, through the right-angle turn structure, if the width of the signal lines is the same (that is, the characteristic impedance is the same), the amplitude and phase of the two signal lines will be generated when reaching the output end. If there is a large deviation, it will have a great impact on the performance of the entire array system. If the right-angle transition structure is not used, the scope of its design and application is severely limited.
- the technical problem to be solved by the present invention is to provide an asymmetric phase compensation differential transmission line with good performance and wide application range.
- the present invention provides an asymmetric phase compensation differential transmission line
- the asymmetric phase compensation differential transmission line includes:
- the first ground wall line includes a first section and a second section vertically extending from a rear end of the first section;
- a second ground wall line, the second ground wall line includes a third section parallel to the first section and spaced apart, and a third section extending vertically from the rear end of the third section and parallel to and spaced from the second section
- the fourth section of the ; the first ground wall line and the second ground wall line are used to shield adjacent signal coupling interference;
- a differential transmission line pair is arranged between the first ground wall line and the second ground wall line at intervals, and includes a first transmission line and a second transmission line arranged at an interval from each other;
- the first transmission line includes a fifth segment parallel to and spaced from the first segment and a sixth segment extending perpendicularly from the tail end of the fifth segment and parallel to and spaced from the second segment;
- the second transmission line includes a a seventh segment parallel to and spaced from the fifth segment and an eighth segment extending perpendicularly from the trailing end of the seventh segment and parallel to and spaced from the sixth segment;
- the head end of the first end, the head end of the third end, the head end of the fifth section and the head end of the seventh section are flush with each other and form a signal input end together;
- the tail end, the tail end of the fourth segment, the tail end of the sixth segment and the tail end of the eighth segment are flush with each other and form a signal output end together;
- the width of the first transmission line is greater than the width of the second transmission line.
- the ratio of the width of the first transmission line to the width of the second transmission line is 1.1-1.2.
- the ratio of the width of the first transmission line to the width of the second transmission line is 1.2.
- the interval between the first ground wall line and the first transmission line is equal to the interval between the second ground wall line and the second transmission line.
- the difference between the length of the first transmission line and the length of the second transmission line is equal to twice the sum of the interval between the first transmission line and the second transmission line and the width of the first transmission line.
- the first transmission line includes a fifth segment and a sixth segment vertically extending from the tail end of the fifth segment, forming a vertical corner structure, and making the fifth segment
- the section is parallel to the first section of the first ground wall line
- the sixth section is parallel to the second section of the first ground wall line
- the second transmission line includes a seventh section and a vertical extension from the tail end of the seventh section
- the eighth segment forms a vertical corner
- the seventh segment is parallel to the fifth segment
- the eighth segment is parallel to the sixth segment; by design, the width of the first transmission line is larger than the width of the second transmission line, so that the signal is compensated in asymmetrical phase
- the signal input end of the differential transmission line has the same amplitude and phase as the signal output end, that is, the signal input end and the signal output end have the same amplitude and the same phase or the smallest phase deviation, thereby greatly improving the performance of the asymmetric phase compensation differential transmission line.
- due to the design has the same amplitude and phase as the signal output end
- FIG. 1 is a schematic structural diagram of an asymmetric phase compensation differential transmission line of the present invention
- FIG. 2 is a schematic diagram of the circuit structure of the asymmetric phase compensation differential transmission line of the present invention applied to an eight-way combined power amplifier;
- Fig. 3 is the gain simulation curve diagram to the circuit structure of Fig. 2;
- FIG. 4 is a simulation graph of the efficiency of DC-to-RF signal conversion of the circuit structure of FIG. 2 .
- the present invention provides an asymmetric phase-compensated differential transmission line 100 .
- the asymmetric phase-compensated differential transmission line 100 includes: a first ground wall line 1 , a second ground wall line 2 and a differential transmission line pair 3 .
- the first ground wall line 1 and the second ground wall line 2 are arranged in parallel and spaced apart from each other to shield adjacent signal coupling interference.
- the first ground wall line 1 includes a first section 11 and a second section 12 vertically extending from the rear end of the first section 11 , that is, a vertical corner structure is formed.
- the second ground wall line 2 includes a third section 21 and a fourth section 22 extending vertically from the rear end of the third section 21 , that is, forming a vertical corner structure.
- the third segment 21 is arranged parallel to and spaced from the first segment 11
- the fourth segment 22 is arranged parallel to and spaced from the second segment 12 .
- the head end of the first section 11 is flush with the head end of the third section 21
- the tail end 12 of the second section is flush with the tail end of the fourth section 22 .
- the differential transmission line pair 3 is disposed between the first ground wall line 1 and the second ground wall line 2 at intervals, and is parallel to the first ground wall line 1 or the second ground wall line 2 .
- the differential transmission line pair 3 includes a first transmission line 31 and a second transmission line 32 that are spaced apart from each other.
- the first transmission line 31 includes a fifth segment 311 that is parallel to the first segment 11 and spaced apart, and a tail end of the fifth segment 311 that extends vertically and is parallel to and spaced from the second segment 12
- the sixth segment 312 forms a vertical corner structure.
- the second transmission line 32 includes a seventh segment 321 parallel to and spaced from the fifth segment 311 and an eighth segment extending perpendicularly from the tail end of the seventh segment 321 and parallel to and spaced from the sixth segment 312 322, that is, a vertical corner structure is formed.
- the head end of the first end 11, the head end of the third end 21, the head end of the fifth section 311 and the head end of the seventh section 321 are flush with each other and together form the signal input port Port1;
- the tail end of the second section 12, the tail end of the fourth section 22, the tail end of the sixth section 312 and the tail end of the eighth section 322 are flush with each other and form a signal output port Port2 together;
- the above designs of the first ground wall line 1, the second ground wall line 2, the first transmission line 31 and the second transmission line 32 make the asymmetric phase compensation differential transmission line 100 form a vertical corner structure as a whole.
- the symmetry of the system structure and the optimization of the layout area can be effectively improved, so that the design freedom is greater and the application range is wider.
- the length of the first transmission line 31 is greater than the length of the second transmission line 32. If the line width of the first transmission line 31 and the second transmission line 32 are the same, that is, the characteristic impedance is the same, then a pair of signal input When the differential signal whose amplitude and phase are balanced at the terminal Port1 reaches the signal output terminal Port2 after passing through the right-angle transition structure, the phase of the differential signal will have a large deviation, which will greatly affect the performance.
- the characteristic impedances of the first transmission line 31 and the second transmission line 32 are set to be unequal, and through compensation, the amplitude and phase of the differential signal when the signal input port Port1 is transmitted to the signal output port Port2 are made equal. Consistent, that is, the signal input port Port1 and the signal output port Port2 have the same amplitude and the same phase or the phase reaches the minimum deviation. According to the design concept, the design parameters can be obtained through simulation.
- the width w2 of the first transmission line 31 is designed to be larger than the width w4 of the second transmission line 32, so that the characteristic impedance of the first transmission line 31 is reduced, to a certain extent, to compensate for the problem caused by right-angle turns.
- the width ratio design of the first transmission line 31 and the second transmission line 32 is related to the difference in length between the two caused by turning. More preferably, the ratio of the width w2 of the first transmission line 31 to the width w4 of the second transmission line 32 is 1.1- 1.3. Because in the actual design, in order to ensure that the layout size is not too large, and at the same time to meet the requirements of the process design rules, the line width will not be too wide or too thin, and the interval will not be too large, which is more suitable for practical use. Therefore, this embodiment Among them, the ratio of the width w2 of the first transmission line 31 to the width w4 of the second transmission line 32 is preferably 1.2.
- the asymmetric phase compensation differential transmission line 100 of the present invention is used in an eight-channel combined power amplifier PA.
- the eight-channel combined power amplifier PA works in the E-band (60-90 GHz).
- the small signal gain of the eight-channel synthetic power amplifier PA has been greatly improved in the entire E-band, for example, at 74 At GHz, due to the use of the asymmetric phase compensation differential transmission line 100 of the present invention, the small signal gain of the eight-channel synthesis power amplifier PA is 18.6 when the symmetrical transmission line in the related art is used.
- the dB is improved to 19.36 dB in this embodiment.
- the DC-to-RF signal conversion efficiency (PAE) of the eight-channel synthetic power amplifier PA has been greatly improved in the entire range of input power variation.
- the PAE of the eight-channel combined power amplifier PA is increased from 18.9% when using the symmetrical transmission line in the related art to 20.6% in this embodiment.
- the first transmission line includes a fifth segment and a sixth segment vertically extending from the tail end of the fifth segment, forming a vertical corner structure, and making the fifth segment
- the section is parallel to the first section of the first ground wall line
- the sixth section is parallel to the second section of the first ground wall line
- the second transmission line includes a seventh section and a vertical extension from the tail end of the seventh section
- the eighth segment forms a vertical corner
- the seventh segment is parallel to the fifth segment
- the eighth segment is parallel to the sixth segment; by design, the width of the first transmission line is larger than the width of the second transmission line, so that the signal is compensated in asymmetrical phase
- the signal input end of the differential transmission line has the same amplitude and phase as the signal output end, that is, the signal input end and the signal output end have the same amplitude and the same phase or the smallest phase deviation, thereby greatly improving the performance of the asymmetric phase compensation differential transmission line.
- due to the design has the same amplitude and phase as the signal output end
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Abstract
本发明提供一种非对称相位补偿差分传输线，差分传输线对间隔设置于第一地墙线与第二地墙线之间，其包括第一传输线和第二传输线；第一传输线包括与第一段平行且间隔设置的第五段和由第五段直延伸并与第二段平行且间隔的第六段；第二传输线包括与第五段平行且间隔的第七段和由第七段直延伸并与第六段平行且间隔的第八段；第一端、第三端、第五段及第七段的首端相互平齐；第二段、第四段、第六段及第八段的尾端相互平齐；第一传输线的宽度大于第二传输线的宽度。与相关技术相比，本发明非对称相位补偿差分传输线性能好、设计自由度高、适用范围广。
Description
本发明涉及一种通讯技术领域，尤其涉及一种非对称相位补偿差分传输线。
随着移动通讯技术的发展，手机、PAD、笔记本电脑等逐渐成为生活中不可或缺的电子产品，并且该类电子产品都更新为增加天线系统使其具有通讯功能的电子通讯产品。
差分传输线被广泛应用于微波、毫米波和太赫兹电路设计，其包括相互间隔且平行设置的两地墙线以及间隔设置于两地墙线之间的差分信号线对。差分传输线对外部电磁干扰高度免疫，一个外部干扰信号几乎相同程度的影响差分信号线对的每一端，而差分信号的输出信号值由差分信号线对的两路信号线的电压差异决定，这样将忽视在差分信号对上出现的任何同样干扰。另外，对于信号线，不需要设置虚地，因为差分传输信号中间点是一个天然的虚地点，使得处理和传播双极信号有一个高真度。理想的构成差分传输线的两根信号线振幅相同，相位相反，因此 ，电路布版时，差分传输线的信号线线必须为等长、等宽、紧密靠近且同一层面的两根信号线。
然而，微波、毫米波和太赫兹信号相对于低频通信而言，其频率较高，空间传输路径损耗较大，为了满足未来超高速通信应用传输距离的需求，多输入多输出阵列系统（Multi-input
Multi-output）被广泛的应用于5G通信系统中，此时，在实际阵列系统设计时，出于对整个系统结构对称和版图面积优化的考虑，不可避免的出现直角转弯结构，该直角转弯结构会使得差分信号线对中的两根信号线出现长度偏差，该长度偏差在频率较高的时候还上课能超过2度的电长度。因此，一对幅度和相位平衡的信号线在差分传输线的输入端，经过直角转弯结构，若信号线的宽度相同（即特征阻抗相同），则达到输出端时使得两信号线的幅度和相位发生了较大的偏差，对整个阵列系统性能影响较大。若不使用直角转变结构，则严重局限了其设计运用范围。
因此，有必要提供一种新的非对称相位补偿差分传输线解决上述问题。
本发明需要解决的技术问题是提供一种性能好、运用范围广的非对称相位补偿差分传输线。
为解决上述技术问题，本发明提供了一种非对称相位补偿差分传输线，所述非对称相位补偿差分传输线包括：
第一地墙线，所述第一地墙线包括第一段和由所述第一段的尾端垂直延伸的第二段；
第二地墙线，所述第二地墙线包括与所述第一段平行且间隔设置的第三段和由所述第三段的尾端垂直延伸并与所述第二段平行且间隔的第四段；所述第一地墙线与所述第二地墙线用于屏蔽邻近信号耦合干扰；以及，
差分传输线对，所述差分传输线对间隔设置于所述第一地墙线与所述第二地墙线之间，其包括相互间隔设置的第一传输线和第二传输线；所述第一传输线包括与所述第一段平行且间隔设置的第五段和由所述第五段的尾端垂直延伸并与所述第二段平行且间隔的第六段；所述第二传输线包括与所述第五段平行且间隔的第七段和由所述第七段的尾端垂直延伸并与所述第六段平行且间隔的第八段；
所述第一端的首端、所述第三端的首端、所述第五段的首端以及所述第七段的首端相互平齐并共同形成信号输入端；所述第二段的尾端、所述第四段的尾端、所述第六段的尾端以及所述第八段的尾端相互平齐并共同形成信号输出端；
所述第一传输线的宽度大于所述第二传输线的宽度。
优选的，所述第一传输线的宽度与所述第二传输线的宽度比值为1.1-1.2。
优选的，其特征在于，述第一传输线的宽度与所述第二传输线的宽度比值为1.2。
优选的，所述第一地墙线至所述第一传输线的间隔等于第二地墙线至所述第二传输线的间隔。
优选的，所述第一传输线的长度与所述第二传输线的长度差，等于所述第一传输线至所述第二传输线之间的间隔与所述第一传输线的宽度之和的两倍。
与相关技术相比，本发明的非对称相位补偿差分传输线中，所述第一传输线包括第五段和由第五段的尾端垂直延伸的第六段，形成垂直转角结构，并使得第五段与第一地墙线的第一段平行，第六段与第一地墙线的第二段平行；所述第二传输线包括第七段和由所述第七段的尾端垂直延伸的第八段，形成垂直转角，并使得第七段与五段平行，第八段与第六段平行；通过设计使第一传输线的宽度大于第二传输线的宽度，以使得信号在非对称相位补偿差分传输线的信号输入端与所述信号输出端的幅度及相位一致，即将信号输入端与信号输出端的幅度相同且相位相同或相位偏差最小，从而极大程度提高了非对称相位补偿差分传输线的性能，且因垂直转角的设计使得非对称相位补偿差分传输线设计自由度更高，运用范围更广。
为了更清楚地说明本实用新型实施例中的技术方案，下面将对实施例描述中所需要使用的附图作简单地介绍，显而易见地，下面描述中的附图仅仅是本实用新型的一些实施例，对于本领域普通技术人员来讲，在不付出创造性劳动的前提下，还可以根据这些附图获得其它的附图，其中：
图1为本发明非对称相位补偿差分传输线的结构示意图；
图2为本发明非对称相位补偿差分传输线运用于八路合成功率放大器中的电路结构示意图；
图3为对图2电路结构的增益仿真曲线图；
图4为对图2电路结构的直流转化至射频信号的效率的仿真曲线图。
下面将结合本实用新型实施例中的附图，对本实用新型实施例中的技术方案进行清楚、完整地描述，显然，所描述的实施例仅是本实用新型的一部分实施例，而不是全部的实施例。基于本实用新型中的实施例，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它实施例，都属于本实用新型保护的范围。
请参图1所示，本发明提供了一种非对称相位补偿差分传输线100，所述非对称相位补偿差分传输线100包括：第一地墙线1、第二地墙线2以及差分传输线对3。
第一地墙线1与第二地墙线2相互平行且间隔设置，用于屏蔽邻近信号耦合干扰。
所述第一地墙线1包括第一段11和由所述第一段11的尾端垂直延伸的第二段12，即形成垂直转角结构。
所述第二地墙线2包括第三段21和由所述第三段21的尾端垂直延伸的第四段22，即形成垂直转角结构。
其中，第三段21与第一段11平行且间隔设置，第四段22与第二段12平行且间隔设置。所述第一段11的首端与所述第三段21的首端平齐，所述第二段的尾端12与所述第四段22的尾端平齐。
所述差分传输线对3间隔设置于所述第一地墙线1与所述第二地墙线2之间，并与第一地墙线1或所述第二地墙线2平行。
所述差分传输线对3包括相互间隔设置的第一传输线31和第二传输线32。
具体的，所述第一传输线31包括与所述第一段11平行且间隔设置的第五段311和由所述第五段311的尾端垂直延伸并与所述第二段12平行且间隔的第六段312，即形成垂直转角结构。
所述第二传输线32包括与所述第五段311平行且间隔的第七段321和由所述第七段321的尾端垂直延伸并与所述第六段312平行且间隔的第八段322，即形成垂直转角结构。
所述第一端11的首端、所述第三端21的首端、所述第五段311的首端以及所述第七段321的首端相互平齐并共同形成信号输入端Port1；所述第二段12的尾端、所述第四段22的尾端、所述第六段312的尾端以及所述第八段322的尾端相互平齐并共同形成信号输出端Port2；
上述结构设计中，第一地墙线1、第二地墙线2、第一传输线31及第二传输线32的上述设计使得所述非对称相位补偿差分传输线100整体形成垂直转角结构，在运用于实际系统设计时，可有效改善系统结构的对称和版图面积优化，从而使得设计自由度更大，运用范围更广泛。
因上述垂直转角结构的设计，造成了第一传输线31的长度大于第二传输线32的长度，若第一传输线31和第二传输线32的线宽度相同，即特征阻抗相同，则一对在信号输入端Port1时幅度和相位平衡的差分信号经过直角转变结构后达到信号输出端Port2时，该差分信号的相位会发生较大的偏差，从而使得性能受影响较大。因此，本发明中，将第一传输线31和第二传输线32的特征阻抗设为不相等，通过补偿以使得差分信号在所述信号输入端Port1传至所述信号输出端Port2时的幅度及相位一致，即在所述信号输入端Port1与所述信号输出端Port2的幅度相同且相位相同或相位达到偏差最小，根据该设计理念，通过仿真则可以得到该设计参数的。
具体的，本实施方式中，通过设计使所述第一传输线31的宽度w2大于所述第二传输线32的宽度w4，使第一传输线31特征阻抗减小，一定程度上补偿因直角转弯时所述信号输入端Port1传至所述信号输出端Port2带来的第一传输线31和第二输传线32的相差，以使得差分信号在所述信号输入端Port1传至所述信号输出端Port2时的及相位一致，从而有效的提高非对称相位补偿差分传输线100的传输性能。
第一传输线31和第二传输线32的宽度比例设计与转弯引起的二者长度差相关，更优的，所述第一传输线31的宽度w2与所述第二传输线32的宽度w4比值为1.1-1.3。因实际设计时，为保证版图尺寸不要太大，同时又要满足工艺设计规则要求，线宽不会太宽也不会太细，间隔也不会太大，更适合实用，因此 ，本实施方式中，优选所述第一传输线31的宽度w2与所述第二传输线32的宽度w4比值为1.2。
而第一传输线31、第二传输线32的宽度比例主要由转弯引起的二者的长度差引起，为实现补充使差分信号在所述信号输入端Port1传至所述信号输出端Port2时的及相位一致，本实施方式中，所述第一地墙线1至所述第一传输线31的间隔w1等于第二地墙线2至所述第二传输线32的间隔w5，即w1=w5; 所述第一传输线31的长度与所述第二传输线32的长度差，等于所述第一传输线31至所述第二传输线32之间的间隔w3与所述第一传输线31的宽度w2之和的两倍，即所述第一传输线31的长度与所述第二传输线32的长度差=2*(w2+w3)。
上述w1、w2、w3、w4、w5的设置可更方便更快捷的实现设计以满足使得差分信号在所述信号输入端Port1传至所述信号输出端Port2时的幅度及相位一致，从而有效实现提高非对称相位补偿差分传输线100的传输性能。
请结合图2-4所示，本发明非对称相位补偿差分传输线100运用于八路合成功率放大器PA中，如图2所示，该八路合成功率放大器PA工作于E波段（60-90 GHz）。
由图3可见，该八路合成功率放大器PA的小信号增益在整个E波段均得到了较大幅度的提升，例如，在74
GHz处，由于运用了本发明非对称相位补偿差分传输线100，该八路合成功率放大器PA的小信号增益由运用相关技术中的对称传输线时增益为18.6
dB提升到本实施方式的19.36 dB。
由图4可见，该八路合成功率放大器PA的直流转化到射频信号的效率（PAE）在整个输入功率变化的范围内，均得到了大幅的提升，例如，当输入功率为5 dBm时，由于运用了本发明非对称相位补偿差分传输线100，八路合成功率放大器PA的PAE由运用相关技术中的对称传输线时的18.9%提升到本实施方式的20.6%。
与相关技术相比，本发明的非对称相位补偿差分传输线中，所述第一传输线包括第五段和由第五段的尾端垂直延伸的第六段，形成垂直转角结构，并使得第五段与第一地墙线的第一段平行，第六段与第一地墙线的第二段平行；所述第二传输线包括第七段和由所述第七段的尾端垂直延伸的第八段，形成垂直转角，并使得第七段与五段平行，第八段与第六段平行；通过设计使第一传输线的宽度大于第二传输线的宽度，以使得信号在非对称相位补偿差分传输线的信号输入端与所述信号输出端的幅度及相位一致，即将信号输入端与信号输出端的幅度相同且相位相同或相位偏差最小，从而极大程度提高了非对称相位补偿差分传输线的性能，且因垂直转角的设计使得非对称相位补偿差分传输线设计自由度更高，运用范围更广。
以上所述仅为本发明的实施例，并非因此限制本发明的专利范围，凡是利用本发明说明书及附图内容所作的等效结构或等效流程变换，或直接或间接运用在其它相关的技术领域，均同理包括在本发明的专利保护范围内。
Claims (5)
- 一种非对称相位补偿差分传输线，其特征在于，所述非对称相位补偿差分传输线包括：第一地墙线，所述第一地墙线包括第一段和由所述第一段的尾端垂直延伸的第二段；第二地墙线，所述第二地墙线包括与所述第一段平行且间隔设置的第三段和由所述第三段的尾端垂直延伸并与所述第二段平行且间隔的第四段；所述第一地墙线与所述第二地墙线用于屏蔽邻近信号耦合干扰；以及，差分传输线对，所述差分传输线对间隔设置于所述第一地墙线与所述第二地墙线之间，其包括相互间隔设置的第一传输线和第二传输线；所述第一传输线包括与所述第一段平行且间隔设置的第五段和由所述第五段的尾端垂直延伸并与所述第二段平行且间隔的第六段；所述第二传输线包括与所述第五段平行且间隔的第七段和由所述第七段的尾端垂直延伸并与所述第六段平行且间隔的第八段；所述第一端的首端、所述第三端的首端、所述第五段的首端以及所述第七段的首端相互平齐并共同形成信号输入端；所述第二段的尾端、所述第四段的尾端、所述第六段的尾端以及所述第八段的尾端相互平齐并共同形成信号输出端；所述第一传输线的宽度大于所述第二传输线的宽度。
- 根据权利要求1所述的非对称相位补偿差分传输线，其特征在于，所述第一传输线的宽度与所述第二传输线的宽度比值为1.1-1.3。
- 根据权利要求2所述的非对称相位补偿差分传输线，其特征在于，述第一传输线的宽度与所述第二传输线的宽度比值为1.2。
- 根据权利要求1所述的非对称相位补偿差分传输线，其特征在于，所述第一地墙线至所述第一传输线的间隔等于第二地墙线至所述第二传输线的间隔。
- 根据权利要求1所述的非对称相位补偿差分传输线，其特征在于，所述第一传输线的长度与所述第二传输线的长度差，等于所述第一传输线至所述第二传输线之间的间隔与所述第一传输线的宽度之和的两倍。
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| CN108604723A (zh) * | 2016-02-01 | 2018-09-28 | 安费诺富加宜（亚洲）私人有限公司 | 高速数据通信系统 |
| US20190123410A1 (en) * | 2017-10-20 | 2019-04-25 | Integrated Device Technology, Inc. | 90 degree differential signal layout transition |
| KR20200056214A (ko) * | 2018-11-14 | 2020-05-22 | 고려대학교 산학협력단 | 구부러진 선로의 노이즈를 감소시킬 수 있는 비대칭 결합 선로 및 그 형성 방법 |
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| CN104852110A (zh) * | 2014-02-14 | 2015-08-19 | 中华大学 | 低串扰高频传输的差分对微带线 |
| CN108604723A (zh) * | 2016-02-01 | 2018-09-28 | 安费诺富加宜（亚洲）私人有限公司 | 高速数据通信系统 |
| CN106295126A (zh) * | 2016-07-27 | 2017-01-04 | 中国航空无线电电子研究所 | 一种计算微带耦合差分传输线远端噪声的方法 |
| US20190123410A1 (en) * | 2017-10-20 | 2019-04-25 | Integrated Device Technology, Inc. | 90 degree differential signal layout transition |
| KR20200056214A (ko) * | 2018-11-14 | 2020-05-22 | 고려대학교 산학협력단 | 구부러진 선로의 노이즈를 감소시킬 수 있는 비대칭 결합 선로 및 그 형성 방법 |
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