Imaging optical unit

[0001] The present application is a continuation of, and claims benefit under 35 USC 120 to, international application PCT/EP2022/065226, filed Jun. 3, 2022, which claims benefit under 35 USC 119 of German Application No 10 2021 205 774.8, filed Jun. 8, 2021. The entire disclosure of each these applications is incorporated by reference herein.

[0002] The patent application relates to an imaging optical unit comprising a plurality of mirrors for imaging the object field into an image field, the mirrors of the imaging optical unit being able to be measured via the testing optical unit. Further, the disclosure relates to an optical system comprising such an imaging optical unit, an illumination system comprising such an optical system, a projection exposure apparatus comprising such an illumination system, a method for producing a microstructured or nanostructured component, and a microstructured or nanostructured component produced by any such method.

[0003] Imaging optical units or projection optical units are known from DE 10 2019 219 209 A1, DE 10 2019 208 961 A1, WO 2009/010213 A1, US 2016/0085061 A1, DE 10 2012 202 675 A1, DE 10 2009 011 328 A1, U.S. Pat. No. 8,027,022 B2 and U.S. Pat. No. 6,577,443 B2. An illumination optical unit for a projection exposure apparatus is known from DE 10 2009 045 096 A1.

[0004] The present disclosure seeks to develop an imaging optical unit of the type mentioned in the introduction in such a way that the use thereof in a projection exposure apparatus is relatively manageable, for example for EUV projection lithography.

[0005] According to the disclosure, it was recognized that dimensional ratios of the imaging optical unit with a ratio that is as large as possible between the object/image offset and the meridional transverse dimension on the one hand and between the working distance and the meridional transverse dimension on the other hand lead to imaging optical units that ensure that a wafer holder does not collide with optical components of an illumination optical unit upstream of the imaging optical unit (condition of a relatively large object/image offset), ensure that enough installation space is available adjacent to the object plane for an object holder, which is optionally designed for replacing an object (relatively large working distance), and that a possible vacuum container, in which an entire optical unit of the projection exposure apparatus is housed, need not be made with undesirably large dimensions (relatively small meridional transverse dimension)

[0006] An object or a portion thereof with structures to be imaged can be arranged on the object field. A substrate which the object structures are imaged or a substrate portion can be arranged in the image field.

[0007] In an aspect, the disclosure provides an imaging optical unit

• • [0008] comprising a plurality of mirrors for imaging an object field in an object plane into an image field in an image plane,
  • [0009] having an image-side numerical aperture greater than 0.55,
  • [0010] having an object/image offset A between
    • [0011] a separation plane, in which a centre of the object field is located and which is perpendicular to a meridional plane of the imaging optical unit, and
    • [0012] a centre of the image field,
  • [0013] having a working distance B between
    • [0014] the object plane and
    • [0015] a reflection portion, closest to the object plane, of one of the mirrors,
  • [0016] having a meridional transverse dimension C between
    • [0017] the separation plane and
    • [0018] a reflection portion, furthest from the separation plane, of one of the mirrors,
  • [0019] wherein the following applies:
    • [0020] the ratio A/C is at least 0.5,
    • [0021] the ratio B/C is at least 0.05,
  • [0022] with the working distance B being at least 270 mm.

[0023] Such an imaging optical unit is a relatively manageable form on account of the given dimensional ratios

[0024] In some embodiments, one or more of the following can hold: A is at least 1500 mm; B is at least 275 mm; and C at most 4500 mm. Such absolute dimensions were found to be particularly advantageous.

[0025] In some embodiments, the imaging optical unit is an anamorphic imaging optical unit. Advantages of the disclosure can be particularly pronounced in such embodiments. A corresponding anamorphic optical unit is known from U.S. Pat. No. 9,366,968.

[0026] In some embodiments, the imaging optical unit has a wavefront aberration of no more than 20 mλ. Such an imaging optical unit can provide for high-quality structure imaging.

[0027] In some embodiments, the mirrors total at least eight. Such an imaging optical unit can facilitate good imaging correction over a given image field size.

[0028] In some embodiments, the imaging optical unit has at least four grazing incidence (GI) mirrors and/or at least three normal incidence (NI) mirrors. Such imaging optical units have proven their worth in practice. There can be more than four GI mirrors, these may total six or eight for example. There can be more than three NI mirrors, these may total four for example.

[0029] An optical system can include an imaging optical unit according to the disclosure and an illumination optical unit for illuminating the object field with illumination and imaging light. An illumination system can include such an optical system and an EUV light source for producing the illumination and imaging light. A projection exposure apparatus for projection lithography can include such an illumination system. A method for producing a structured component can include the following method steps: providing a reticle and a wafer; projecting a structure on the reticle onto a light-sensitive layer of the wafer with the aid of such a projection exposure apparatus; and producing a microstructure and/or nanostructure on the wafer. A structured component can be provided using such a process. Advantages of such an optical system, an illumination system, a projection exposure apparatus, a production method, and structured (microstructured or nanostructured) component correspond to those which have already been explained above with reference to the imaging optical unit according to the disclosure.

[0030] For example, a semiconductor component, for example a memory chip, can be produced.

[0036] Referring to FIG. 1, a microlithographic projection exposure apparatus 1 comprises a light source 2 for illumination light or imaging light 3. The light source 2 is an EUV light source, which produces light in a wavelength range of, for example, between 5 nm and 30 nm, for example between 5 nm and 15 nm. For example, the light source 2 can be a light source with a wavelength of 13.5 nm or a light source with a wavelength of 6.9 nm. Other EUV wavelengths are also possible. In general, the illumination light 3 guided in the projection exposure apparatus 1 could even have any desired wavelength, for example visible wavelengths or else other wavelengths which may find use in microlithography (e.g. DUV, deep ultraviolet) and for which suitable laser light sources and/or LED light sources are available (e.g. 365 nm, 248 nm, 193 nm, 157 nm, 129 nm, 109 nm). A beam path of the illumination light 3 is depicted very schematically in FIG. 1.

[0037] An illumination optical unit 6 is used to guide the illumination light 3 from the light source 2 to an object field 4 in an object plane 5. Using a projection optical unit or imaging optical unit 7, the object field 4 is imaged into an image field 8 in an image plane 9 with a given, possibly anamorphic reduction scale.

[0038] In order to facilitate the description of the projection exposure apparatus 1 and the various embodiments of the projection optical unit 7, a Cartesian xyz-coordinate system is indicated in the drawing, from which system the respective positional relationship of the components illustrated in the figures is evident. In FIG. 1, the x-direction runs perpendicular to the plane of the drawing into the latter. The y-direction runs towards the left, and the z-direction runs upward.

[0039] The object field 4 and the image field 8 are rectangular. Alternatively, it is also possible for the object field 4 and the image field 8 to have a bent or curved embodiment, that is to say, for example, a partial ring shape. The object field 4 and the image field 8 have an x/y-aspect ratio of greater than 1. Therefore, the object field 4 has a longer object field dimension in the x-direction and a shorter object field dimension in the y-direction. These object field dimensions extend along the field coordinates x and y.

[0040] One of the exemplary embodiments depicted in FIGS. 2, 3 and 4, which will still be explained in more detail below, can be used for the projection optical unit 7.

[0041] The projection optical unit 7 according to FIG. 2 has an anamorphic embodiment. In the yz-plane, i.e. in the meridional plane of the section according to FIG. 2, the projection optical unit 7 has a reduction scale |β_y| of 8. Thus, in the meridional plane yz, the object field 4 is imaged onto the image field with a reduction by a factor of 8. A reduction scale |β_x| of the projection optical unit 7 is 4 in the sagittal plane xz, which is perpendicular to the meridional plane. In this xz-plane, the object field 4 is imaged with a reduction by a factor of 4 into the image field 8 between the object plane 5 and the image plane 9. Other integer or non-integer absolute reduction scales β_x, β_y are also possible, as will still be explained below on the basis of the further exemplary embodiments.

[0042] The image field 8 has an x-extent of e.g. 26 mm and a y-extent of e.g. 2 mm.

[0043] In the embodiments of the projection optical unit 7 according to FIG. 7 et seq., the image plane 9 is arranged parallel to the object plane 5. What is imaged in this case is a portion of a reflection mask 10, also referred to as reticle, coinciding with the object field 4. The reticle 10 is carried by a reticle holder 10a. The reticle holder 10a is displaced by a reticle displacement drive 10b.

[0044] The imaging by way of the projection optical unit 7 is implemented on the surface of a substrate 11 in the form of a wafer, which is carried by a substrate holder 12. The substrate holder 12 is displaced by a wafer or substrate displacement drive 12a.

[0045] FIG. 1 schematically depicts, between the reticle 10 and the projection optical unit 7, abeam 13 of the illumination light 3 that enters into the projection optical unit and, between the projection optical unit 7 and the substrate 11, a beam 14 of the illumination light 3 that emerges from the projection optical unit 7. An image field-side numerical aperture (NA) of the projection optical unit 7 is not reproduced to scale in FIG. 1.

[0046] The projection exposure apparatus 1 is of the scanner type. Both the reticle 10 and the substrate 11 are scanned in the y-direction during the operation of the projection exposure apparatus 1. A stepper type of the projection exposure apparatus 1, in which a stepwise displacement of the reticle 10 and of the substrate 11 in the y-direction is effected between individual exposures of the substrate 11, is also possible. These displacements are effected synchronously with one another by an appropriate actuation of the displacement drives 10b and 12a.

[0047] FIG. 2 shows the optical design of a first embodiment of the projection optical unit 7. FIG. 2 depicts the beam path of, in each case, three individual rays 29 emanating from three object field points which are spaced apart from one another in the y-direction in FIG. 2. What is depicted are chief rays 30, i.e. individual rays 29 which pass through the centre of a pupil in a pupil plane of the projection optical unit 7, and, in each case, an upper coma ray and a lower coma ray, i.e. rays that pass through the upper and lower edge of the pupil, respectively, of these two object field points. Proceeding from the object field 4, the chief rays 30 include an angle CRAO of 5.05° with a normal on the object plane 5.

[0048] The projection optical unit 7 has an image-side numerical aperture of 0.75.

[0049] The projection optical unit 7 according to FIG. 2 has a total of eight mirrors, which, proceeding from the object field 4, are numbered M1 to M8 in the sequence of the beam path of the individual rays 29. The imaging optical unit 7 can also have a different number of mirrors, for example four mirrors, six mirrors, nine mirrors, ten mirrors, eleven mirrors or even more mirrors.

[0050] FIG. 2 depicts the calculated reflection surfaces of the mirrors M1 to M8. Optionally only a portion of these calculated reflection surfaces is used. Only this actually used region of the reflection surfaces is actually present in the real mirrors M1 to M8. These used reflection surfaces are carried by mirror bodies in a manner known per se.

[0051] In the projection optical unit 7 according to FIG. 2, the mirrors M1, M4, M7 and M8 are configured as mirrors for normal incidence (NI mirrors), that is to say as mirrors onto which the imaging light 3 impinges with an angle of incidence that is smaller than 45°. Thus, overall, the projection optical unit 7 according to FIG. 2 has four mirrors M1, M4, M7 and M8 for normal incidence.

[0052] The mirrors M2, M3, M5 and M6 are mirrors for grazing incidence of the illumination light 3 (GI mirrors), that is to say mirrors onto which the illumination light 3 impinges with angles of incidence that are greater than 60°. A typical angle of incidence of the individual rays 29 of the imaging light 3 on the mirrors M2, M3, M5 and M6 for grazing incidence lies in the region of 80°. Overall, the projection optical unit 7 according to FIG. 2 has exactly four mirrors M2, M3, M5 and M6 for grazing incidence.

[0053] The mirrors M2, M3 on the one hand and M5, M6 on the other hand are designed as pairs of successive mirrors and reflect the imaging light 3 in such a way that the angles of reflection of the individual rays 29 at the respective mirrors of the pairs M2, M3 on the one hand and M5, M6 and the other hand summate, that is to say amplify in terms of the deflection effect.

[0054] The mirrors M1 to M8 carry a coating optimizing the reflectivity of the mirrors M1 to M8 for the imaging light 3. This can be a ruthenium coating, a molybdenum coating or a molybdenum coating with an uppermost layer of ruthenium. In the mirrors M2, M3, M5 and M6 for grazing incidence, use can be made of a coating with e.g. one ply of molybdenum or ruthenium. These highly reflecting layers, for example of the mirrors M1, M4, M7 and M8 for normal incidence, can be configured as multi-ply layers, wherein successive layers can be manufactured from different materials. Alternating material layers can also be used. A typical multi-ply layer can have fifty bilayers, respectively made of a layer of molybdenum and a layer of silicon. A multi-ply layer may be provided with an additional capping layer, for example made of ruthenium.

[0055] For the purposes of calculating an overall reflectivity of the projection optical unit 7, a system transmission can be calculated as follows: A mirror reflectivity is determined at each mirror surface on the basis of the angle of incidence of a guide ray, i.e. a chief ray of a central object field point, and combined by multiplication to form the system transmission.

[0056] Further information concerning the system transmission can be found in US 2016/0085061 A1.

[0057] Further information concerning reflection at a GI mirror (grazing incidence mirror) can be found in WO 2012/126867 A. Further information concerning the reflectivity of NI mirrors (normal incidence mirrors) can be found in DE 101 55 711 A.

[0058] The mirror M8, that is to say the ultimate mirror upstream of the image field 8 in the imaging beam path, has a passage opening 30a for the passage of the imaging light 3 which is reflected from the antepenultimate mirror M6 toward the penultimate mirror M7. The mirror M8 is used in a reflective manner around the passage opening 30a. All other mirrors M1 to M7 do not have a passage opening and are used in a reflective manner in a region connected in a gap-free manner.

[0059] A stop AS is disposed in the imaging beam path between the mirrors M6 and M7, the stop having both the function of an aperture stop and the function of an obscuration stop. Thus, the stop AS firstly specifies the image-side numerical aperture of the projection optical unit 7 and secondly specifies the size of an inner pupil obscuration.

[0060] The stop AS can be designed as a split stop, as known from U.S. Pat. No. 10,527,832.

[0061] The projection optical unit 7 is approximately telecentric on the object side. If the imaging beam path is only taken into account in relation to the individual rays that pass through the object field 4, the entrance pupil is located 4052.44 mm downstream of the object field 5 in the xz-plane and 41876.50 mm downstream of the object field 4 in the yz-plane.

[0062] In the projection optical unit 7, a pupil plane is present in the beam path of the imaging light 3 between the mirrors M1 and M2.

[0063] A first intermediate image plane is present in the beam path between the mirrors M2 and M3. A further intermediate image plane is present in the beam path between the mirrors M5 and M6. There is no intermediate image plane in the region of the passage opening 30a in the case of the projection optical unit 7. The number of intermediate image planes differs from the number of intermediate images in the meridional plane according to FIG. 2 from the number of intermediate images in a plane perpendicular thereto. Such projection optical units with different numbers of intermediate images in mutually perpendicular planes are known from WO 2016/166080 A1 and DE 10 2015 226 531 A1 as a matter of principle.

[0064] The stop AS is located in the beam path between the mirrors M7 and M8, in the region of a further pupil plane of the projection optical unit 7.

[0065] The mirrors M1 to M8 are embodied as free-form surfaces which cannot be described by a rotationally symmetric function. Other embodiments of the projection optical unit 7, in which at least one of the mirrors M1 to M8 is embodied as a rotationally symmetric asphere, are also possible. It is also possible for all mirrors M1 to M8 to be embodied as such aspheres.

[0066] A free-form surface can be described by the following free-form surface equation (Equation 1):

[0067] $\begin{array}{cc}Z=\frac{c_x{x}^2+c_y{y}^2}{1+\sqrt{1-\left(1+k_x\right){\left(c_{x}x\right)}^2-\left(1+k_y\right){\left(c_{y}y\right)}^2}}+C_{1}x+C_{2}y+C_3{x}^2+C_{4}xy+C_5{y}^2+C_6{x}^3+\dots +C_9{y}^3+C_{10}{x}^4+\dots +C_{12}{x}^2{y}^2+\dots +C_{14}{y}^4+C_{15}{x}^5+\dots +C_{20}{y}^5+C_{21}{x}^6+\dots +C_{24}{x}^3{y}^3+\dots +C_{27}{y}^6+\dots & \left(1\right)\end{array}$

[0068] The following applies to the parameters of this Equation (1):

[0069] Z is the sagittal height of the free-form surface at the point x, y, where x²+y²=r². Here, r is the distance from the reference axis of the free-form surface equation
(x=0;y=0).

[0070] In the free-form surface Equation (1), C₁, C₂, C₃ . . . denote the coefficients of the free-form surface series expansion in powers of x and y.

[0071] In the case of a conical base area, c_x, c_y is a constant corresponding to the vertex curvature of a corresponding asphere. Thus, c_x=1/R_x and c_y=1/R_y applies. k_x and k_y each correspond to a conical constant of a corresponding asphere. Thus, Equation (1) describes a biconical free-form surface.

[0072] An alternative possible free-form surface can be produced from a rotationally symmetric reference surface. Such free-form surfaces for reflection surfaces of the mirrors of projection optical units of microlithographic projection exposure apparatuses are known from US 2007-0058269 A1.

[0073] Alternatively, free-form surfaces can also be described with the aid of two-dimensional spline surfaces. Examples for this are Bezier curves or non-uniform rational basis splines (NURBS). By way of example, two-dimensional spline surfaces can be described by a grid of points in an xy-plane and associated z-values, or by these points and gradients associated therewith. Depending on the respective type of the spline surface, the complete surface is obtained by interpolation between the grid points using e.g. polynomials or functions which have specific properties in respect of the continuity and the differentiability thereof. Examples for this are analytical functions.

[0074] The optical design data of the reflection surfaces of the mirrors M1 to M8 (=M01 to M08) of the projection optical unit 7 can be gathered from the following tables.

[0075] The first of these tables provides vertex point radii (Radiusx=R_x, Radiusy=R_y) and refractive power values (Powerx, Powery) for the optical surfaces of the optical components. Negative values of radius mean curves which are concave toward the incident illumination light 3 in the section of the respective surface with the considered plane (xz, yz), which is spanned by a surface normal at the vertex point with the respective direction of curvature (x, y). The two radii Radiusx, Radiusy may explicitly have different signs.

[0076] The vertices at each optical surface are defined as points of incidence of a guide ray which travels from an object field centre to the image field 8 along a plane of symmetry x=0, i.e. the plane of the drawing of FIG. 2 (meridional plane).

[0077] The refractive powers Powerx (P_x), Powery (P_y) at the vertices are defined as:

[0078] $P_x=-\frac{2\cos AOI}{R_x}$ $P_y=-\frac{2}{R_y\cos AOI}$

[0079] Here, AOI denotes an angle of incidence of the guide ray with respect to the surface normal.

[0080] The second table specifies the absolute value along which the respective mirror, proceeding from a reference surface, was decentred (D_y) in the y-direction, displaced (D_z) in the z-direction and tilted (α_x, α_y, α_z). This corresponds to a parallel shift and a tilting in the case of the free-form surface design method. Here, a displacement is carried out along the y-direction and in the z-direction in mm, and tilting is carried out about the x-axis, about the y-axis and about the z-axis. In this case, the angle of rotation is specified in degrees. Decentring is carried out first, followed by tilting. The reference surface during decentring is in each case the first surface of the specified optical design data. Decentring in the y-direction and in the z-direction is also specified for the object field 4 (reticle). In addition to values assigned to the individual mirrors M1 to M8, this table also tabulates the object plane (reticle) as a first surface, the image plane (wafer) as an ultimate surface and a stop surface (denoted “stop”) as an arrangement plane for an aperture or obscuration stop.

[0081] The third table (Tables 3a to 3c) specifies the free-form surface coefficients C_n, respectively assigned to the polynomials x^k, y¹, for the mirrors M1 to M8. Coefficients C₁ not tabulated in the table each have the value of 0.

[0082] The fourth table specifies a boundary of the stop AS as a polygonal line in local coordinates xy. As described above, the stop is decentred and tilted. In this table, the coordinates are specified in two columns. The first column (consisting of an x- and a y-coordinate) contains the coordinates of the corners 1 to M/2 of the polygon, and the second column contains the coordinates of the corners N/2+1 to N. Each row therefore contains four numbers, specifically x_i, y_i, x_i+N/2, y_i+N/2.

[0083]

TABLE 1
for FIG. 2
Radii of the surfaces
	Radiusx [mm]	Powerx [1/mm]	Radiusy [mm]	Powery [1/mm]
M01	−4034.99337674	0.00048480	−1919.37995952	0.00101917
M02	2920.41917039	−0.00008695	11587.03874383	−0.00002192
M03	−26015.99761308	0.00003162	−3094.46673369	0.00026583
M04	−2953.96843662	0.00066710	−3212.98631374	0.00061332
M05	−6775.34133198	0.00008890	−6077.62957307	0.00009911
M06	153274.17405730	−0.00000042	11112.52442081	−0.00000576
M07	9368.75423580	−0.00018587	596.79271790	−0.00291783
M08	−1010.31540632	0.00194976	−863.43988213	0.00228143

[0084]

TABLE 2
for FIG. 2
Decentring (location, angle) the surfaces
	Dx [mm]	Dy [mm]	Dz [mm]
Reticle	0.000000000	0.000000000	0.000000000
M01	0.000000000	−215.931440053	2242.533747038
M02	0.000000000	−581.615773686	972.087125641
M03	0.000000000	−1211.474170454	389.630407074
M04	0.000000000	−2870.974936716	320.829470405
M05	0.000000000	−2227.616068614	627.737948335
M06	0.000000000	−1901.343414992	1040.317765822
M07	−0.000000000	−1411.845146534	2366.757744378
Stop	−0.000000000	−1433.339697092	2308.511917952
M08	0.000000000	−1649.877036267	1721.740110900
Wafer	−0.000000000	−1649.832513636	2500.204827932
	αx [°]	αy [°]	αz [°]
Reticle	0.000000000	0.000000000	0.000000000
M01	−5.278946214	0.000000000	0.000000000
M02	58.351487888	180.000000000	0.000000000
M03	202.567461898	0.000000000	0.000000000
M04	−76.061447244	180.000000000	0.000000000
M05	218.582857583	0.000000000	0.000000000
M06	60.703505424	180.000000000	0.000000000
M07	−20.255654399	−0.000000000	−0.000000000
Stop	1.326318383	180.000000000	−0.000000000
M08	−10.129465655	180.000000000	−0.000000000
Wafer	−0.003276910	−0.000000000	0.000000000

[0085]

TABLE 3a
for FIG. 2
Free−form coefficients of the surfaces
Coefficient Formula	M01	M02	M03
C7	x2 y	2.1521350904e−08	1.1787316958e−07	−1.4132123554e−07
C9	y3	8.7024735141e−09	−3.3367018008e−07	3.9356983474e−08
C10	x4	5.5560957075e−12	3.4025225495e−11	−6.5750183525e−11
C12	x2 y2	7.5032152159e−12	−1.9736140793e−10	7.6565679325e−11
C14	y4	−3.9878920961e−11	8.3176214710e−10	7.4538149503e−12
C16	x4 y	1.9761473535e−14	9.7263173621e−14	3.5762077821e−14
C18	x2 y3	4.9899022378e−14	7.9538468016e−14	−2.2829082429e−14
C20	y5	−7.9997851101e−14	−2.0149908433e−12	−5.5078057337e−14
C21	x6	6.7688627599e−18	−1.1837742413e−17	1.9487417140e−18
C23	x4 y2	6.2287464539e−18	2.1507653236e−16	1.4070268782e−17
C25	x2 y4	8.9820067762e−17	−2.8579314403e−16	−4.9037732040e−17
C27	y6	−1.7199085361e−16	6.9745386669e−15	7.5895230730e−17
C29	x6 y	−7.9726966250e−21	2.4802802663e−19	2.0013048846e−20
C31	x4 y3	−2.2580790713e−20	−9.7206078620e−19	−5.7407912103e−20
C33	x2 y5	1.2004739572e−19	−1.0648476929e−19	2.0650200707e−20
C35	y7	−1.4869410891e−21	−1.2608475036e−17	4.5515851277e−19
C36	x8	−5.9918913447e−24	3.2759947243e−22	5.7195698345e−23
C38	x6 y2	3.8210947146e−24	−1.2399767203e−22	−6.1461254760e−23
C40	x4 y4	2.3657574745e−23	9.9003718858e−22	2.0211891359e−22
C42	x2 y6	−3.5893911196e−23	2.5795548778e−21	2.5989240605e−21
C44	y8	1.0862009204e−21	−2.1799987369e−19	−3.9696603728e−22
C46	x8 y	2.7623417895e−26	1.9187001763e−26	−1.1898117464e−25
C48	x6 y3	3.2302452678e−25	−5.7877652911e−25	2.3993987486e−25
C50	x4 y5	2.3212765682e−24	1.0036656167e−23	2.0979738694e−24
C52	x2 y7	−2.9540953870e−24	1.0845106904e−22	−9.2125961341e−24
C54	y9	−1.9775620518e−23	1.8791932171e−21	−3.6054702892e−23
C55	x10	−7.8656225734e−31	−1.1426249301e−27	−2.2725313266e−28
C57	x8 y2	−8.6492497072e−29	4.8911298402e−27	4.5835274737e−28
C59	x6 y4	−2.5458706650e−27	5.8300212318e−27	−1.6449310234e−28
C61	x4 y6	1.0727981205e−27	−3.0794278556e−26	−3.1071106797e−26
C63	x2 y8	−5.9157827970e−27	−1.2558855465e−24	−1.6560734754e−25
C65	y10	−1.9658357053e−25	−3.2949399728e−24	1.2704474400e−25
C67	x10 y	−1.0763473925e−31	1.0453631883e−30	5.6807442176e−31
C69	x8 y3	−3.1619674535e−30	1.2274256167e−29	−1.5423191780e−31
C71	x6 y5	−3.6302312311e−29	1.3105506757e−28	−2.1528307642e−29
C73	x4 y7	−9.0724878973e−29	−2.5212060185e−27	−8.4338804346e−29
C75	x2 y9	2.1818185390e−28	−5.9079606952e−27	7.4194764024e−28
C77	y11	−1.1731058142e−28	−2.3664039350e−26	1.0068178666e−27
C78	x12	1.1859547340e−34	4.6569698415e−33	2.0928678345e−34
C80	x10 y2	8.0754311628e−34	−5.2503795225e−32	−2.0835452019e−33
C82	x8 y4	2.7117648894e−32	4.4038353142e−32	−4.9505362121e−33
C84	x6 y6	2.1371956884e−31	−9.5358323891e−31	9.0318380750e−32
C86	x4 y8	−9.0437590127e−32	2.1126113378e−29	2.1301887206e−30
C88	x2 y10	1.5464341810e−30	1.4749252853e−28	5.8117607059e−30
C90	y12	3.9640791475e−30	1.6823058962e−28	−5.3769877539e−30
C92	x12 y	3.6566336252e−37	3.9960551727e−35	−1.8005079646e−36
C94	x10 y3	1.5740653862e−35	6.3186990963e−35	−1.4177462413e−35
C96	x8 y5	2.3437356064e−34	−3.2083538854e−33	4.5602299584e−35
C98	x6 y7	1.5224165082e−33	−8.7996119915e−34	1.0275489722e−33
C100	x4 y9	2.4585083713e−34	1.5999608638e−31	6.5014081591e−34
C102	x2 y11	−6.7057882610e−34	−2.1476462249e−31	−2.5737947868e−32
C104	y13	8.5612655825e−33	1.4165280832e−31	−1.4773288630e−32
C105	x14	−5.0629738724e−40	−1.6613826132e−38	8.2934045453e−40
C107	x12 y2	−2.9228885198e−39	5.7332753831e−37	1.9455944074e−39
C109	x10 y4	−1.3732735962e−37	−1.4722825961e−36	1.3250679569e−40
C111	x8 y6	−1.8821837369e−36	6.0412526109e−36	−6.8798222979e−38
C113	x6 y8	−7.1669783192e−36	1.1533223185e−35	−6.8321084910e−36
C115	x4 y10	2.6980183245e−36	−2.4424274448e−33	−7.3177564183e−35
C117	x2 y12	−3.2695372702e−35	−7.4338389363e−33	−1.1561720127e−34
C119	y14	−2.2061944591e−35	−1.2105673148e−32	1.1743710862e−34
C121	x14 y	−1.5117318447e−42	−2.3935729252e−40	2.8729291230e−42
C123	x12 y3	−3.7673388736e−41	−1.1438639618e−39	9.6607924020e−41
C125	x10 y5	−8.9668820572e−40	1.9296715371e−38	2.3637253908e−40
C127	x8 y7	−6.4444995226e−39	1.6954135404e−37	−2.3722052788e−39
C129	x6 y9	−3.1133119253e−38	4.1128177470e−38	−1.7067490431e−38
C131	x4 y11	5.6003617485e−38	4.6354160402e−36	2.7522436870e−38
C133	x2 y13	−1.3393429419e−37	5.4493236330e−35	4.4362813883e−37
C135	y15	−8.8106147316e−38	9.9192863836e−35	7.6420972557e−38
C136	x16	9.6154995568e−46	8.5297756139e−44	−3.4184161211e−45
C138	x14 y2	6.7746448350e−45	−3.1863970035e−42	1.8274751399e−44
C140	x12 y4	3.4257874836e−43	9.4655639529e−42	1.9667036469e−43
C142	x10 y6	6.7068589418e−42	3.1566917339e−41	4.1973634791e−43
C144	x8 y8	4.8132117640e−41	−8.6577384776e−40	1.4656676566e−41
C146	x6 y10	9.5499786182e−41	2.4587656881e−39	1.6669776050e−40
C148	x4 y12	4.1344982064e−41	5.3381961023e−38	1.3146865269e−39
C150	x2 y14	−4.1983194544e−42	−1.5991093786e−37	1.1388831730e−39
C152	y16	−3.2387947839e−40	−3.8089349527e−37	−1.2244387226e−39
C154	x16 y	2.7813838445e−48	6.6042019465e−46	1.9425833013e−49
C156	x14 y3	2.7146181955e−47	5.7160365834e−45	−1.9339907360e−46
C158	x12 y5	1.2332440828e−45	−2.8888344096e−44	−1.0515363766e−45
C160	x10 y7	1.2483967050e−44	−5.8153596336e−43	1.5316944697e−45
C162	x8 y9	5.6496635012e−44	−2.4317993102e−42	6.5153788043e−45
C164	x6 y11	2.5065946151e−43	−2.4067164278e−41	1.5951592987e−43
C166	x4 y13	−9.9208048186e−43	−2.8832467322e−40	−6.5233797249e−43
C168	x2 y15	2.5987717141e−42	2.1215687366e−40	−2.7704535512e−42
C170	y17	−9.7463316249e−43	7.2212195135e−40	−3.3529825374e−44
C171	x18	−7.6877343532e−52	−1.2241128080e−49	3.6512857520e−51
C173	x16 y2	−9.8514184953e−51	8.3091980783e−48	−4.3883060351e−50
C175	x14 y4	−3.1668123053e−49	−6.7731554852e−48	−6.8194662879e−49
C177	x12 y6	−9.1485218816e−48	−1.8925844722e−46	−1.6981489713e−48
C179	x10 y8	−8.6066486288e−47	1.9622506386e−45	−3.1046718597e−47
C181	x8 y10	−4.2346481695e−46	1.6072975736e−44	−1.5367380933e−46
C183	x6 y12	−3.0153790442e−46	5.3471372986e−44	−1.7408374500e−45
C185	x4 y14	−1.9632777042e−45	4.1871053244e−43	−8.9549573898e−45
C187	x2 y16	7.0003037571e−45	−1.0664888409e−43	−5.0794796208e−45
C189	y18	−4.7581812824e−46	−5.4126862903e−43	5.2086604563e−45

[0086]

TABLE 3b
for FIG. 2
Coefficient Formula	M04	M05	M06
C7	x2 y	2.1660952734e−08	3.1333885220e−08	−3.3030773408e−08
C9	y3	3.9266375372e−08	5.0988995907e−08	−2.9178103112e−08
C10	x4	2.8829949631e−12	−4.8249179223e−13	6.7529892237e−11
C12	x2 y2	1.1253311565e−10	−3.0274062932e−11	8.0570609182e−11
C14	y4	4.3077253594e−10	−8.5400978420e−11	5.1962046362e−11
C16	x4 y	1.5843061838e−14	−9.2516756288e−15	7.0685883753e−14
C18	x2 y3	3.5040147006e−13	−2.5611651479e−14	3.0604682247e−14
C20	y5	−1.0474638103e−12	1.8578320289e−13	−5.6179910868e−14
C21	x6	1.0293405300e−18	8.5967220986e−18	−1.6735697691e−16
C23	x4 y2	7.9434013734e−17	3.6705182502e−17	5.7859209076e−16
C25	x2 y4	9.0120514561e−16	1.5039899738e−16	−2.8688402112e−16
C27	y6	−2.2374733431e−14	−4.1879219875e−16	7.3923810896e−16
C29	x6 y	1.0226788796e−20	−2.9562274975e−20	−5.0026120248e−19
C31	x4 y3	2.2769066499e−19	5.6781871174e−21	1.6634301383e−18
C33	x2 y5	−1.6872068907e−17	−5.3417521961e−19	−2.7189191125e−18
C35	y7	−1.2783950389e−16	9.6964121839e−19	−1.5469681891e−17
C36	x8	−1.7971363712e−24	2.1622792330e−22	−6.3269019016e−21
C38	x6 y2	3.1525788327e−23	−1.5616915290e−22	−3.5266205499e−21
C40	x4 y4	−3.0162742950e−21	−1.1434360642e−21	−5.4681625969e−20
C42	x2 y6	1.7332353923e−19	−7.7718331673e−22	3.6130768205e−20
C44	y8	2.1593432167e−17	−7.9333587218e−21	6.4890060940e−20
C46	x8 y	−1.5390653103e−27	−7.8435745509e−25	−2.2831990708e−22
C48	x6 y3	8.8568076913e−25	1.0155690743e−24	3.8060229125e−22
C50	x4 y5	1.5519454651e−22	7.5599473736e−24	4.8848696934e−22
C52	x2 y7	1.6189164310e−20	4.8909071330e−26	−2.9627761818e−22
C54	y9	7.9652339881e−20	6.6138481693e−23	8.2333391252e−22
C55	x10	5.9094480530e−30	−2.6077557400e−27	7.0809951961e−25
C57	x8 y2	2.6809201148e−28	3.2771923020e−27	−3.6506220356e−24
C59	x6 y4	6.1333047370e−26	7.6108243931e−27	−2.1544477960e−24
C61	x4 y6	7.1838124486e−24	3.7933919694e−26	1.1745883624e−23
C63	x2 y8	−9.1098026402e−24	1.3794443835e−25	2.6315555304e−24
C65	y10	−4.3457989750e−21	2.3404380085e−25	−8.6844242237e−24
C67	x10 y	1.4784475567e−32	1.4678117646e−29	2.0691255128e−26
C69	x8 y3	4.1923693697e−30	−1.9763343438e−29	−5.0658919158e−26
C71	x6 y5	8.1823569000e−28	−1.0730104633e−28	−1.9099808443e−25
C73	x4 y7	−3.0128056195e−26	−3.6782086540e−28	−1.4075411360e−25
C75	x2 y9	−2.9490517356e−24	−5.1710044246e−28	2.4493963042e−26
C77	y11	−1.9094350088e−23	−4.5276503089e−27	3.3907003478e−27
C78	x12	−5.7249163483e−36	1.4006486404e−32	−3.2017705884e−29
C80	x10 y2	−1.1201070735e−33	−4.5922239946e−32	3.4008842678e−28
C82	x8 y4	−2.0366019740e−31	−9.8693256802e−33	1.1576925077e−27
C84	x6 y6	−4.0937814696e−29	1.8239826155e−31	8.9515522467e−28
C86	x4 y8	−2.1648505724e−27	−3.0389746406e−30	−7.8567743843e−28
C88	x2 y10	8.1759146860e−27	7.5865748174e−31	−5.6053032642e−28
C90	y12	8.2108120807e−25	−1.2538187576e−29	3.3365316022e−28
C92	x12 y	−5.0548663615e−38	−1.1129185971e−34	−8.8522950187e−31
C94	x10 y3	−3.1655268140e−35	2.1883222778e−34	2.3936539218e−30
C96	x8 y5	−5.5380485066e−33	7.0423680847e−34	1.8305172115e−29
C98	x6 y7	−5.2430548906e−31	4.5199562366e−33	2.3409101496e−29
C100	x4 y9	1.3841354578e−30	1.4819899436e−32	1.4533837941e−29
C102	x2 y11	4.0971323331e−28	2.6880636940e−32	1.9194019601e−30
C104	y13	7.7252252576e−27	1.9784236502e−31	−1.8471281396e−30
C105	x14	9.8475230978e−43	−3.6370268719e−38	8.2490268399e−34
C107	x12 y2	2.8178788967e−39	3.5966308029e−37	−1.2060908669e−32
C109	x10 y4	5.8382973814e−37	−5.5591258757e−37	−1.0382424031e−31
C111	x8 y6	1.1214426294e−34	−5.6556460782e−36	−1.9127253782e−31
C113	x6 y8	1.1959744206e−32	−7.9641220855e−37	−1.2906119442e−31
C115	x4 y10	3.4940308615e−31	9.2565610063e−35	−1.8452868801e−32
C117	x2 y12	6.0329842175e−31	−2.5886142734e−34	1.8181955925e−32
C119	y14	−7.0908670479e−29	3.6271206303e−34	2.0990219072e−33
C121	x14 y	2.3792130662e−43	3.9088709301e−40	1.8602086752e−35
C123	x12 y3	1.4707237924e−40	−1.1188883361e−39	−3.0763841122e−35
C125	x10 y5	2.4672375126e−38	−2.3699864032e−39	−8.1322782953e−34
C127	x8 y7	3.4227240925e−36	2.0057033331e−38	−1.5331720682e−33
C129	x6 y9	2.0832562823e−34	−2.6451985749e−37	−7.4089031221e−34
C131	x4 y11	1.5835026840e−33	4.3633522737e−38	−4.8347995938e−34
C133	x2 y13	−2.2911046663e−33	−1.3151815707e−36	−1.8530290775e−34
C135	y15	−1.6496976386e−30	−3.9484767292e−36	1.5723430812e−35
C136	x16	1.8372055185e−48	2.9810793335e−44	−1.1835863906e−38
C138	x14 y2	1.1874709611e−45	−1.4245325924e−42	1.5398085471e−37
C140	x12 y4	9.0478679352e−43	4.7893823268e−42	3.5981573888e−36
C142	x10 y6	5.3039437925e−41	1.8905276850e−41	1.1862951148e−35
C144	x8 y8	7.8290181860e−39	8.9415133170e−41	1.1246102269e−35
C146	x6 y10	−1.0240940043e−37	8.8169810814e−41	6.3837515450e−36
C148	x4 y12	1.9558769764e−36	−1.1878759927e−39	2.8731472061e−36
C150	x2 y14	−3.9953984319e−34	8.2436940391e−39	6.8875254803e−37
C152	y16	−5.6474117066e−33	−4.9413402019e−39	−7.1767252149e−38
C154	x16 y	−2.4582159279e−49	−4.4754643934e−46	−1.5161616370e−40
C156	x14 y3	−1.4054112660e−46	2.1265553221e−45	−1.8177014275e−40
C158	x12 y5	−2.2495426009e−44	5.4790861578e−45	1.1798635482e−38
C160	x10 y7	−3.1894132838e−42	−2.4474717948e−43	4.1957974177e−38
C162	x8 y9	−3.6464445135e−40	3.5133942366e−43	2.1503331297e−38
C164	x6 y11	−1.2290909798e−38	3.5286185580e−42	−1.3018838762e−38
C166	x4 y13	8.5007476807e−38	−6.8933145997e−42	−6.4734628027e−39
C168	x2 y15	−8.9963822447e−36	2.5472093319e−41	−1.2121353441e−39
C170	y17	6.6478733266e−35	2.6090514385e−41	1.2275453894e−40
C171	x18	4.6272517509e−54	−6.1164806513e−51	7.4096377325e−44
C173	x16 y2	−3.5872296762e−51	1.9622190489e−48	−1.3119648435e−43
C175	x14 y4	−2.0307680444e−48	−1.1885161644e−47	−4.0756534693e−41
C177	x12 y6	−1.1410294961e−46	6.1260900289e−48	−2.3417244739e−40
C179	x10 y8	−3.0791539834e−44	7.6867496312e−46	−3.6340725269e−40
C181	x8 y10	−1.9471591420e−42	−4.8265841146e−45	−1.4648853682e−40
C183	x6 y12	−4.9547550378e−41	9.0439183673e−45	6.5485699735e−42
C185	x4 y14	6.0840560058e−40	−1.7952807242e−44	5.3789642146e−42
C187	x2 y16	−4.8904884769e−38	−5.1391405664e−44	8.4380197977e−43
C189	y18	4.4662799106e−37	−8.0430224445e−45	−7.9420102979e−44

[0087]

TABLE 3c
for FIG. 2
Coefficient Formula	M07	M08
C7	x2 y	6.7510679990e−07	−7.7684263707e−09
C9	y3	−5.9605264564e−07	2.1186549975e−08
C10	x4	4.1200148248e−10	−1.3310403721e−11
C12	x2 y2	1.1715196527e−09	−5.7800895944e−11
C14	y4	2.4710611185e−09	−1.5516852239e−11
C16	x4 y	1.0445145338e−12	−2.0718067078e−14
C18	x2 y3	3.3558525987e−12	3.6299639507e−15
C20	y5	−7.4601451659e−12	2.1620702858e−14
C21	x6	5.0072064430e−16	−2.4229167358e−17
C23	x4 y2	5.2767006042e−15	−1.0548493781e−16
C25	x2 y4	8.5560393410e−16	−1.1165691898e−16
C27	y6	2.5775475069e−14	−2.5526161155e−17
C29	x6 y	3.7719755046e−18	−2.2500133737e−20
C31	x4 y3	1.0758424722e−17	−2.3604770801e−20
C33	x2 y5	2.3536379321e−17	2.3845503163e−20
C35	y7	−1.2253201631e−16	2.6664564603e−20
C36	x8	1.8038046924e−21	−3.5210099395e−23
C38	x6 y2	1.7289657924e−20	−1.4918697711e−22
C40	x4 y4	5.2859525033e−20	−2.6237911344e−22
C42	x2 y6	−8.6172650997e−20	−1.7442521586e−22
C44	y8	4.4773496698e−19	−3.3239236285e−23
C46	x8 y	1.0430729603e−23	−1.6816135464e−26
C48	x6 y3	6.1382946192e−23	−6.1657425487e−26
C50	x4 y5	−1.0182272562e−22	−6.3859678615e−27
C52	x2 y7	7.1501654697e−22	5.3937593439e−26
C54	y9	1.4931885109e−21	2.2296280167e−26
C55	x10	3.4404619172e−27	−2.5536857170e−29
C57	x8 y2	6.4380020942e−26	−3.0366300957e−28
C59	x6 y4	2.5302993381e−25	−8.0003335407e−28
C61	x4 y6	1.8618106087e−24	−9.3817108107e−28
C63	x2 y8	7.3440727184e−24	−4.6308049926e−28
C65	y10	7.4647804866e−24	−9.8178685527e−29
C67	x10 y	1.1440401751e−30	−1.3864315114e−32
C69	x8 y3	3.3217918985e−28	2.3417171712e−32
C71	x6 y5	5.0384292903e−27	−7.9386096984e−32
C73	x4 y7	1.8210552798e−26	−6.8860896221e−32
C75	x2 y9	−2.6956396141e−26	2.0751570670e−32
C77	y11	−3.5269592340e−25	5.4840794182e−32
C78	x12	−1.1234632058e−32	−1.3769950006e−35
C80	x10 y2	4.7186915408e−31	4.2029120402e−34
C82	x8 y4	2.1285995883e−30	2.1957036679e−33
C84	x6 y6	−1.6468197623e−29	4.5028855850e−33
C86	x4 y8	−1.6241805572e−28	3.8876609446e−33
C88	x2 y10	−1.0312773446e−27	1.2177064184e−33
C90	y12	9.9848578534e−28	2.0141536991e−34
C92	x12 y	1.2130539368e−33	−2.8165022925e−37
C94	x10 y3	1.0868832417e−32	−1.3463299808e−36
C96	x8 y5	−4.8488251769e−32	−1.3639608169e−36
C98	x6 y7	−5.0885258398e−31	5.4967599013e−37
C100	x4 y9	−1.5414116455e−30	1.7232300858e−36
C102	x2 y11	5.4469618398e−30	1.2942820721e−36
C104	y13	1.6117823620e−29	1.9699596918e−37
C105	x14	3.6424134489e−37	−2.0147701926e−40
C107	x12 y2	4.8125995924e−37	−3.9820831972e−39
C109	x10 y4	−1.6734061278e−35	−2.1401906247e−38
C111	x8 y6	2.7653631914e−34	−5.3204956769e−38
C113	x6 y8	2.7717555838e−33	−6.6483746748e−38
C115	x4 y10	1.6209234047e−32	−4.2702056479e−38
C117	x2 y12	5.4830736686e−32	−1.1212638402e−38
C119	y14	−9.6951394448e−32	−1.2358247201e−39
C121	x14 y	−1.5196063181e−38	1.0591089247e−42
C123	x12 y3	−2.4346275366e−37	6.0081477285e−42
C125	x10 y5	−1.7784052936e−37	1.0106381940e−41
C127	x8 y7	7.9571519310e−36	2.3631473323e−42
C129	x6 y9	3.3932330746e−35	−1.0791273202e−41
C131	x4 y11	5.6171604467e−35	−1.2198174714e−41
C133	x2 y13	−4.5020966892e−34	−7.1232053298e−42
C135	y15	−3.0444101717e−34	−1.2675299720e−42
C136	x16	−3.1397860935e−42	5.5289642085e−46
C138	x14 y2	−3.6764526616e−41	1.2408953942e−44
C140	x12 y4	5.1682281559e−41	8.0360655159e−44
C142	x10 y6	−7.5724070624e−40	2.5002877427e−43
C144	x8 y8	−3.5242758525e−38	4.1567843534e−43
C146	x6 y10	−1.9290295406e−37	3.8776740206e−43
C148	x4 y12	−8.9279321053e−37	1.9801753831e−43
C150	x2 y14	−1.0610618019e−36	4.1515399107e−44
C152	y16	4.2032564742e−36	3.3189488097e−45
C154	x16 y	1.3900490222e−43	−2.6714733976e−48
C156	x14 y3	3.1948332019e−42	−1.9023703003e−47
C158	x12 y5	1.5572932617e−41	−4.6866351175e−47
C160	x10 y7	−3.5961276855e−41	−4.3208550927e−47
C162	x8 y9	−4.4994909187e−40	2.0571387485e−47
C164	x6 y11	−1.1517175255e−39	6.8011061355e−47
C166	x4 y13	−4.0441034977e−40	5.6874752660e−47
C168	x2 y15	1.8548402473e−38	2.8250025956e−47
C170	y17	−8.9835721083e−39	5.3246951685e−48
C171	x18	2.3986122130e−47	−1.4577504922e−51
C173	x16 y2	8.1475450191e−46	−3.0082090032e−50
C175	x14 y4	7.3884777256e−45	−2.1208177229e−49
C177	x12 y6	2.7542991108e−44	−7.6436443269e−49
C179	x10 y8	1.8164049336e−43	−1.5713795144e−48
C181	x8 y10	1.9780808155e−42	−1.9352435230e−48
C183	x6 y12	6.6873956729e−42	−1.4362747907e−48
C185	x4 y14	2.8702380925e−41	−6.1025451080e−49
C187	x2 y16	−3.1866212691e−41	−1.1066868401e−49
C189	y18	−3.8275089169e−41	−7.5049710077e−51
C191	x18 y	−6.6231305715e−49	3.5010571058e−54
C193	x16 y3	−1.9531652351e−47	3.0239376636e−53
C195	x14 y5	−1.5596286432e−46	9.6000865790e−53
C197	x12 y7	−2.7612826568e−46	1.4288997592e−52
C199	x10 y9	2.2685749027e−45	4.3837168676e−53
C201	x8 y11	1.1060475171e−44	−1.3861103840e−52
C203	x6 y13	2.2481184782e−44	−1.9505856121e−52
C205	x4 y15	−5.5736348440e−44	−1.2876676644e−52
C207	x2 y17	−2.3355064681e−43	−5.4584052762e−53
C209	y19	2.4999420572e−43	−9.9807676723e−54
C210	x20	−1.0353720807e−52	1.9354967630e−57
C212	x18 y2	−5.6366301161e−51	3.9549546692e−56
C214	x16 y4	−8.1535236564e−50	3.0235091280e−55
C216	x14 y6	−4.6753079245e−49	1.2341447797e−54
C218	x12 y8	−1.4492509936e−48	2.9999942233e−54
C220	x10 y10	−6.7059393099e−48	4.6089255426e−54
C222	x8 y12	−4.9436079305e−47	4.5137492751e−54
C224	x6 y14	−1.2111220000e−46	2.7875737733e−54
C226	x4 y16	−3.4078403898e−46	1.0119870942e−54
C228	x2 y18	1.1009407304e−45	1.6135052322e−55
C230	y20	−5.8411328388e−46	9.4380058569e−57
C232	x20 y	1.5055586184e−54	−2.2462277192e−60
C234	x18 y3	5.2410832904e−53	−2.2707851790e−59
C236	x16 y5	5.5851300777e−52	−8.9192926369e−59
C238	x14 y7	2.2374347879e−51	−1.8389741887e−58
C240	x12 y9	7.1591347845e−52	−1.7044880131e−58
C242	x10 y11	−3.9294714180e−50	2.9056131275e−59
C244	x8 y13	−8.1423894706e−50	2.2670392369e−58
C246	x6 y15	−2.3729390056e−49	2.3590501620e−58
C248	x4 y17	1.3995947959e−48	1.3535441041e−58
C250	x2 y19	−1.5620953183e−48	4.9658777142e−59
C252	y21	7.0891533326e−49	8.3944169943e−60
C253	x22	2.2336861363e−58	−1.3577467667e−63
C255	x20 y2	1.6766401731e−56	−2.6517938952e−62
C257	x18 y4	3.1385425719e−55	−2.1019901027e−61
C259	x16 y6	2.3730923666e−54	−9.3254487977e−61
C261	x14 y8	9.8135101820e−54	−2.5667161093e−60
C263	x12 y10	1.7231582939e−53	−4.6597300134e−60
C265	x10 y12	1.1075385549e−52	−5.6882278778e−60
C267	x8 y14	3.7804650231e−52	−4.6360430455e−60
C269	x6 y16	1.1279204591e−51	−2.4726486765e−60
C271	x4 y18	−1.3479781662e−51	−7.9647092611e−61
C273	x2 y20	4.9488344281e−52	−1.2052423513e−61
C275	y22	−4.2347282476e−52	−7.0219628579e−63

[0088]

TABLE 4
for FIG. 2
Coordinates of the stop edge
xi [mm]	yi [mm]	xi+N/2 [mm]	yi+N/2 [mm]
−400.659323	−53.864111	401.077124	−67.204113
−400.020726	−47.147576	400.855494	−73.819131
−399.097003	−40.405795	400.347077	−80.392036
−397.889740	−33.643190	399.552636	−86.918876
−396.400971	−26.864237	398.473403	−93.395828
−394.633175	−20.073447	397.111064	−99.819197
−392.589253	−13.275354	395.467753	−106.185427
−390.272521	−6.474497	393.546032	−112.491097
−387.686685	0.324586	391.348878	−118.732928
−384.835826	7.117377	388.879660	−124.907779
−381.724381	13.899380	386.142117	−131.012647
−378.357118	20.666132	383.140338	−137.044665
−374.739116	27.413207	379.878732	−143.001100
−370.875745	34.136218	376.362006	−148.879345
−366.772636	40.830822	372.595134	−154.676917
−362.435665	47.492719	368.583332	−160.391451
−357.870923	54.117650	364.332027	−166.020693
−353.084692	60.701401	359.846834	−171.562494
−348.083427	67.239799	355.133522	−177.014801
−342.873723	73.728710	350.197994	−182.375652
−337.462298	80.164036	345.046255	−187.643166
−331.855962	86.541711	339.684392	−192.815537
−326.061598	92.857696	334.118551	−197.891028
−320.086139	99.107972	328.354912	−202.867963
−313.936538	105.288533	322.399672	−207.744722
−307.619750	111.395377	316.259031	−212.519734
−301.142709	117.424499	309.939169	−217.191475
−294.512306	123.371878	303.446237	−221.758461
−287.735365	129.233469	296.786345	−226.219248
−280.818629	135.005193	289.965551	−230.572424
−273.768736	140.682927	282.989848	−234.816611
−266.592206	146.262492	275.865164	−238.950459
−259.295424	151.739651	268.597347	−242.972649
−251.884623	157.110096	261.192165	−246.881888
−244.365878	162.369444	253.655301	−250.676907
−236.745087	167.513236	245.992345	−254.356465
−229.027968	172.536938	238.208795	−257.919345
−221.220046	177.435936	230.310053	−261.364353
−213.326649	182.205550	222.301423	−264.690323
−205.352905	186.841040	214.188110	−267.896111
−197.303733	191.337614	205.975220	−270.980600
−189.183848	195.690444	197.667759	−273.942700
−180.997757	199.894686	189.270634	−276.781349
−172.749762	203.945488	180.788652	−279.495514
−164.443964	207.838015	172.226528	−282.084191
−156.084273	211.567461	163.588879	−284.546410
−147.674408	215.129069	154.880232	−286.881236
−139.217914	218.518141	146.105027	−289.087767
−130.718173	221.730059	137.267617	−291.165143
−122.178413	224.760293	128.372278	−293.112542
−113.601729	227.604421	119.423207	−294.929182
−104.991095	230.258144	110.424533	−296.614329
−96.349379	232.717300	101.380316	−298.167293
−87.679364	234.977891	92.294559	−299.587430
−78.983763	237.036106	83.171207	−300.874150
−70.265227	238.888348	74.014156	−302.026909
−61.526369	240.531266	64.827259	−303.045219
−52.769767	241.961788	55.614329	−303.928646
−43.997978	243.177159	46.379144	−304.676811
−35.213545	244.174974	37.125458	−305.289389
−26.419003	244.953213	27.856997	−305.766115
−17.616879	245.510269	18.577472	−306.106783
−8.809703	245.844975	9.290577	−306.311243
0.000000	245.956623	0.000000	−306.379407
8.809703	245.844975	−9.290577	−306.311243
17.616879	245.510269	−18.577472	−306.106783
26.419003	244.953213	−27.856997	−305.766115
35.213545	244.174974	−37.125458	−305.289389
43.997978	243.177159	−46.379144	−304.676811
52.769767	241.961788	−55.614329	−303.928646
61.526369	240.531266	−64.827259	−303.045219
70.265227	238.888348	−74.014156	−302.026909
78.983763	237.036106	−83.171207	−300.874150
87.679364	234.977891	−92.294559	−299.587430
96.349379	232.717300	−101.380316	−298.167293
104.991095	230.258144	−110.424533	−296.614329
113.601729	227.604421	−119.423207	−294.929182
122.178413	224.760293	−128.372278	−293.112542
130.718173	221.730059	−137.267617	−291.165143
139.217914	218.518141	−146.105027	−289.087767
147.674408	215.129069	−154.880232	−286.881236
156.084273	211.567461	−163.588879	−284.546410
164.443964	207.838015	−172.226528	−282.084191
172.749762	203.945488	−180.788652	−279.495514
180.997757	199.894686	−189.270634	−276.781349
189.183848	195.690444	−197.667759	−273.942700
197.303733	191.337614	−205.975220	−270.980600
205.352905	186.841040	−214.188110	−267.896111
213.326649	182.205550	−222.301423	−264.690323
221.220046	177.435936	−230.310053	−261.364353
229.027968	172.536938	−238.208795	−257.919345
236.745087	167.513236	−245.992345	−254.356465
244.365878	162.369444	−253.655301	−250.676907
251.884623	157.110096	−261.192165	−246.881888
259.295424	151.739651	−268.597347	−242.972649
266.592206	146.262492	−275.865164	−238.950459
273.768736	140.682927	−282.989848	−234.816611
280.818629	135.005193	−289.965551	−230.572424
287.735365	129.233469	−296.786345	−226.219248
294.512306	123.371878	−303.446237	−221.758461
301.142709	117.424499	−309.939169	−217.191475
307.619750	111.395377	−316.259031	−212.519734
313.936538	105.288533	−322.399672	−207.744722
320.086139	99.107972	−328.354912	−202.867963
326.061598	92.857696	−334.118551	−197.891028
331.855962	86.541711	−339.684392	−192.815537
337.462298	80.164036	−345.046255	−187.643166
342.873723	73.728710	−350.197994	−182.375652
348.083427	67.239799	−355.133522	−177.014801
353.084692	60.701401	−359.846834	−171.562494
357.870923	54.117650	−364.332027	−166.020693
362.435665	47.492719	−368.583332	−160.391451
366.772636	40.830822	−372.595134	−154.676917
370.875745	34.136218	−376.362006	−148.879345
374.739116	27.413207	−379.878732	−143.001100
378.357118	20.666132	−383.140338	−137.044665
381.724381	13.899380	−386.142117	−131.012647
384.835826	7.117377	−388.879660	−124.907779
387.686685	0.324586	−391.348878	−118.732928
390.272521	−6.474497	−393.546032	−112.491097
392.589253	−13.275354	−395.467753	−106.185427
394.633175	−20.073447	−397.111064	−99.819197
396.400971	−26.864237	−398.473403	−93.395828
397.889740	−33.643190	−399.552636	−86.918876
399.097003	−40.405795	−400.347077	−80.392036
400.020726	−47.147576	−400.855494	−73.819131
400.659323	−53.864111	−401.077124	−67.204113
401.011674	−60.551047	−401.011674	−60.551047

[0089] The mirrors M1, M3, M4, M5 and M8 have negative values for the radius, i.e. are, in principle, concave mirrors. The mirrors M2, M6 and M7 have positive values for the radius, i.e. they are, in principle, convex mirrors. The mirrors M1 to M8 of the projection optical unit according to FIG. 2 have no R_x, R_y radius values with in each case different signs. None of the mirrors M1 to M8 therefore has a saddle shape as a matter of principle.

[0090] A boundary of a stop surface of the stop (cf, also, Table 4 for FIG. 2) emerges from intersection points on the stop surface of all rays of the illumination light 3 which, on the image side, propagate at the field centre point in the direction of the stop surface with a complete image-side telecentric aperture. When the stop is embodied as an aperture stop, the boundary is an inner boundary.

[0091] The stop AS can lie in a plane or else have a three-dimensional embodiment. The extent of the stop AS can be smaller in the scan direction (y) than in the cross-scan direction (x).

[0092] Further data of the projection optical unit 7 arise from Table 5 below:

[0093]

TABLE 5
for FIG. 2
	NA	Numerical aperture	0.75
	|βx|	Magnification scale in the cross-scan direction	4.0
	|βy|	Magnification scale in the scan direction	8.0
	RMS	Scanned wavefront deviation	9.7 mλ
	N	Number of mirrors	8

[0094] The projection optical unit 7 has an object/image offset a between a separation plane 31a and a centre of the image field 8. A centre of the object field 4 is located in the separation plane 31a. The separation plane 31a runs parallel to the xz-plane. The separation plane 31a is perpendicular to the yz-meridional plane of the imaging optical unit 7. The object/image offset a is 1650 mm in the case of the projection optical unit 7.

[0095] The used reflection surface of the mirror M4 is the nearest neighbour to the object plane 5. The used reflection surface of the mirror M4 therefore defines a working distance b between this used reflection surface of the mirror M4 and the object plane 5. A reflection portion of the mirror M4 which is the nearest neighbour to the object plane 5 is considered within the scope of the definition of the working distance b. The working distance b is 275 mm in the case of the projection optical unit 7.

[0096] A meridional transverse dimension c is defined between the separation plane 31a and a reflection portion of one of the mirrors, once again of the mirror M4 in this case, which is furthest away from the separation plane. The meridional transverse dimension c is 2154 mm in the case of the projection optical unit 7.

[0097] A dimensional ratio a/c is 0.76 in the case of the projection optical unit 7. A dimensional ratio b/c is 0.128 in the case of the projection optical unit 7.

[0098] The projection optical unit 7 is designed for a wavelength of the illumination light 3 of 13.5 nm.

[0099] The mean wavefront aberration RMS (scanned wavefront deviation) is a measure for the imaging quality of the projection optical unit 7.

[0100] The projection optical unit 7 is at least approximately telecentric on the image side.

[0101] FIG. 3 shows a further embodiment of a projection optical unit or imaging optical unit 31, which can be used in the projection exposure apparatus 1 instead of the projection optical unit 7. Components and functions corresponding to those which have already been explained above with reference to FIGS. 1 and 2 have the same reference signs and will not be discussed in detail again.

[0102] The projection optical unit 31 has an image-side numerical aperture of 0.75.

[0103] The projection optical unit 31 has a total of eleven mirrors M1 to M11. The mirrors M1, M10 and M11 are embodied as mirrors for normal incidence. The mirrors M2 to M9 are embodied as mirrors for grazing incidence of the illumination light 3. The projection optical unit 31 has exactly eight mirrors for grazing incidence.

[0104] The mirrors M2 to M8, that is to say seven of the eight GI mirrors of the projection optical unit 31, reflect the imaging light 3 in such a way that the angles of reflection of the individual rays 29 at the respective mirrors M2 to M8 add up, i.e. lead to an amplification of the deflection effect thereof. The subsequent GI mirror M9 is a so-called counter mirror and reflects the imaging light 3 such that this yields a deflection effect directed against the deflection effect of the mirrors M2 to M8, that is to say this has a subtractive effect on the deflection effect of the GI mirrors M2 to M8. In accordance with the rules for the surrounding effects of the mirrors, which are specified in the context of the explanations regarding the projection optical unit in DE 10 2019 219 209 A1, the projection optical unit 31 has the following sequence of deflecting effects for the mirrors M1 to M11: RLLLLLLLROL: The projection optical unit 31 is approximately telecentric on the object side. If the imaging beam path is only taken into account in relation to the individual rays that pass through the object field 4, the entrance pupil is located 4014.30 mm downstream of the object field 5 in the xz-plane and 5750.64 mm downstream of the object field 4 in the yz-plane.

[0105] The projection optical unit 31 has a pupil plane in the beam path between the mirrors M1 and M2. An intermediate image plane is located in the region of a reflection on the mirror M5. A further pupil plane is located between the mirrors M5 and M6 in the imaging light beam path. A further intermediate image plane is located between the mirrors M6 and M7. The number of intermediate image planes differs from the number of intermediate images in the meridional plane according to FIG. 3 from the number of intermediate images in a plane perpendicular thereto. Such projection optical units with different numbers of intermediate images in mutually perpendicular planes are known from WO 2016/166080 A1 and DE 10 2015 226 531 A1 as a matter of principle.

[0106] The optical design data for the projection optical unit 31 emerge from following Tables 1 to 5, which, in turn, correspond in terms of the basic structure to Tables 1 to 5 relating to the embodiment according to FIG. 2.

[0107]

TABLE 1
for FIG. 3
Radii of the surfaces
		Powerx		Powery
	Radiusx [mm]	[1/mm]	Radiusy [mm]	[1/mm]
M01	−5029.13719149	0.00038797	−2041.19092644	0.00095589
M02	−27726.18088887	0.00001519	8806.64410475	−0.00004783
M03	−7556.63410985	0.00004602	11889.31888391	−0.00002925
M04	−4613.40209240	0.00004549	−13969.68056904	0.00001502
M05	−1484.95099271	0.00028553	−4659.68392717	0.00009099
M06	−1013.23301051	0.00055220	−1851.21517662	0.00030224
M07	−2311.26230546	0.00015940	−6624.51684518	0.00005561
M08	5271.95258536	−0.00009301	−4363.23285760	0.00011238
M09	−4641.10272093	0.00014769	2064.14241825	−0.00033206
M10	12237.81918069	−0.00014301	387.34284857	−0.00451843
M11	−944.21286884	0.00207223	−782.41102810	0.00250077

[0108]

TABLE 2
for FIG. 3
Decentring (location, angle) the surfaces
	Dx [mm]	Dy [mm]	Dz [mm]
Reticle	0.000000000	0.000000000	0.000000000
M01	0.000000000	208.167034845	2161.897315865
M02	0.000000000	586.474040464	1067.521292230
M03	0.000000000	1137.007761372	664.081569966
M04	0.000000000	1899.293204386	345.745645359
M05	0.000000000	2431.941388346	286.993274957
M06	0.000000000	2984.723951303	449.275081298
M07	0.000000000	3296.138682846	751.383932581
M08	0.000000000	3380.101736953	1042.029180798
M09	0.000000000	3346.308156022	1257.846377059
M10	0.000000000	3703.559415463	2183.653612397
Stop	0.000000000	3668.591404244	2093.043669197
M11	−0.000000000	3468.490281216	1574.536875135
Wafer	0.000000000	3468.489856034	2300.002089582
	αx [°]	αy [°]	αz [°]
Reticle	0.000000000	0.000000000	0.000000000
M01	6.784694572	0.000000000	0.000000000
M02	−53.582577637	180.000000000	0.000000000
M03	150.549843408	0.000000000	0.000000000
M04	−14.480092757	180.000000000	0.000000000
M05	185.033188037	0.000000000	0.000000000
M06	30.245900660	180.000000000	0.000000000
M07	239.008897816	0.000000000	0.000000000
M08	86.393070938	180.000000000	0.000000000
M09	83.899354742	0.000000000	0.000000000
M10	−21.101573082	0.000000000	180.000000000
Stop	158.897499094	−0.000000000	−0.000000000
M11	169.448766337	−0.000000000	0.000000000
Wafer	0.000033580	0.000000000	180.000000000

[0109]

TABLE 3a
for FIG. 3
Free-form coefficients of the surfaces
Coeffi-
cient	Formula	M01	M02	M03
C7	x2 y	−3.4202758877e−09	−8.1600037120e−09	5.4784066641e−08
C9	y3	−5.1579184037e−09	2.1490169585e−08	−1.5630842115e−09
C10	x4	−4.1758180942e−12	1.2422725986e−10	4.6214862684e−11
C12	x2	8.9525383746e−11	−1.4680359565e−10	8.9494220059e−12
	y2
C14	y4	−1.9101171293e−11	−6.1013326570e−11	−7.5850147156e−12
C16	x4 y	−7.6462012646e−14	−7.6908929058e−14	−8.1912635689e−14
C18	x2	−6.5595088710e−14	−2.0612905257e−13	−7.1202800735e−14
	y3
C20	y5	1.2668389322e−14	2.2496666963e−14	−2.1530045613e−14
C21	y6	1.2260375804e−17	−3.7706929577e−17	−1.7860995077e−16
C23	x4	−4.1462206300e−17	−2.2047103244e−16	−5.3142812534e−18
	y2
C25	x2	−7.0178347129e−17	3.0190842210e−16	−1.7452167445e−17
	y4
C27	y6	2.0724751930e−16	−3.5162036726e−16	6.4973339128e−17
C29	x6 y	7.8478607545e−21	−3.1708007154e−19	−9.4569358091e−20
C31	x4	1.3490030999e−19	−2.2975637164e−19	1.2181039714e−19
	y3
C33	x2	−5.0152079339e−19	−5.4350876110e−19	2.8563131654e−19
	y5
C35	y7	−3.8866394119e−20	−1.4335882567e−18	−1.1086359243e−19
C36	x8	−2.3339394362e−23	3.9460690291e−22	2.9888564272e−22
C38	x6	−4.6819160973e−22	−1.1206066225e−21	−9.7865526917e−23
	y2
C40	x4	1.1130713726e−21	1.2800571912e−21	5.2638737050e−22
	y4
C42	x2	3.2076089447e−22	2.8639063623e−22	−2.2596620483e−22
	y6
C44	y8	−1.0798131013e−20	−3.0974451336e−21	1.9329485313e−22
C46	x8 y	−6.9989769761e−26	2.6157691458e−25	−4.5285068583e−26
C48	x6	−3.3827276208e−24	1.7863426636e−23	−1.0020151492e−25
	y3
C50	x4	−9.4812740396e−24	3.7955502533e−23	−2.9298995798e−24
	y5
C52	x2	−2.7828827712e−23	1.2071534933e−23	4.1481525917e−25
	y7
C54	y9	−6.8502586063e−23	−1.6956263975e−23	3.3338978089e−25
C55	x10	6.6696912458e−28	−2.6405295227e−28	2.7329539874e−28
C57	x8	1.0556854319e−26	4.3604788107e−26	−5.0740682280e−27
	y2
C59	x6	2.1155006429e−26	9.5793848687e−27	−6.6690755906e−27
	y4
C61	x4	2.0187788389e−26	−9.8410632955e−26	−2.8311274084e−27
	y6
C63	x2	3.0429078041e−25	−6.3994145022e−26	−5.2202669243e−27
	y8
C65	y10	9.6372881505e−25	−2.7422225856e−26	−1.4694335966e−28
C67	x10	5.7298330391e−30	3.8383874583e−30	−6.7470749425e−30
	y
C69	x8	7.8002410402e−29	−3.3050157101e−28	9.9965761479e−31
	y3
C71	x6	3.0940331786e−28	−1.2448438857e−27	4.0730523721e−29
	y5
C73	x4	9.5849050883e−28	−1.5283972886e−27	3.5766281424e−29
	y7
C75	x2	2.5829707531e−27	−1.5562757806e−28	−1.4839218380e−29
	y9
C77	y11	4.2694397257e−27	1.2836577395e−28	−8.6704298814e−30
C78	x12	−1.0815329562e−32	6.2375129788e−33	−1.5532155562e−32
C80	x10	−1.8038497824e−31	−6.8732193665e−31	6.9039084772e−32
	y2
C82	x8	−6.8022364927e−31	−9.2726253758e−31	8.5642898328e−32
	y4
C84	x6	−7.8249269991e−31	1.7400864771e−30	9.4364791826e−32
	y6
C86	x4	−4.1186609772e−30	1.8001202540e−30	9.8409615071e−32
	y8
C88	x2	−2.7257517404e−29	9.2486125841e−31	1.0786036596e−31
	y10
C90	y12	−5.1669319257e−29	3.8596938474e−31	−2.2018919852e−32
C92	x12	−9.5983493172e−35	−2.1755264785e−34	9.9526007449e−35
C94	x10	−1.2917940667e−33	3.6182279937e−33	7.1354156561e−35
	y3
C96	x8	−6.1118822034e−33	2.1159798424e−32	−4.4506711806e−34
	y5
C98	x6	−1.9673212417e−32	4.4692492346e−32	−9.4608090853e−34
	y7
C100	x4	−5.1891177511e−32	3.0421749148e−32	−3.0711170516e−34
	y9
C102	x2	−1.1466469103e−31	−9.9633641271e−34	1.3166576085e−34
	y11
C104	y13	−1.5994476367e−31	1.0277888248e−33	1.3551050694e−34
C105	x 14	1.0112202758e−37	−1.8527612914e−37	5.3021648224e−38
C107	x12	1.8787266933e−36	5.5463175543e−36	−3.8144935781e−37
	y2
C109	x10	9.8564738206e−36	1.6775742718e−35	−6.2453338969e−37
	y4
C111	x8	1.7387768869e−35	1.2974801606e−36	−1.2224300883e−36
	y6
C113	x6	2.2681834289e−35	−1.9550260786e−35	−1.7363713191e−36
	y8
C115	x4	2.9232046658e−34	1.3780032690e−35	−1.7319269098e−36
	y10
C117	x2	1.2535038132e−33	−1.0820146117e−35	−9.4133121050e−37
	y12
C119	y14	1.7090202975e−33	4.8809008248e−36	3.5120584817e−37
C121	x14	8.6607058835e−40	2.4631327352e−39	−7.6131713896e−40
	y
C123	x12	1.3690225517e−38	−2.2045573691e−38	−9.1041031300e−40
	y3
C125	x10	7.9232753449e−38	−1.8619928426e−37	2.7674106762e−39
	y5
C127	x8	2.6468607327e−37	−5.9742954156e−37	9.4839191489e−39
	y7
C129	x6	7.3576520674e−37	−7.4089726699e−37	8.7492367472e−39
	y9
C131	x4	1.5469045233e−36	−2.4113906098e−37	1.3997827257e−39
	y11
C133	x2	2.8746396170e−36	5.9495633408e−38	−5.8277668773e−40
	y13
C135	y15	3.6922119781e−36	−4.0498264808e−40	−1.6251636506e−39
C136	x 16	−5.5486018344e−43	1.7656066281e−42	−1.3428781540e−43
C138	x14	−1.2161472088e−41	−2.4742736927e−41	6.3530910992e−43
	y2
C140	x12	−7.9117744888e−41	−1.3645594080e−40	2.0656914423e−42
	y4
C142	x10	−1.9220472871e−40	−2.7799880496e−40	8.8423178242e−42
	y6
C144	x8	−1.1779242046e−41	−3.0306580962e−40	1.8019533718e−41
	y8
C146	x6	−9.0866868569e−40	−5.0812759188e−40	1.9291665800e−41
	y10
C148	x4	−1.0589597504e−38	−4.4330942359e−40	1.4669895704e−41
	y12
C150	x2	−3.2620542390e−38	2.9034466223e−40	3.4773500168e−42
	y14
C152	y16	−3.4845417046e−38	−3.0516896497e−41	−1.2632621610e−42
C154	x16	−4.5336234429e−45	−1.1010178086e−44	2.7966309948e−45
	y
C156	x14	−8.5714177986e−44	6.9195881040e−44	4.3617177756e−45
	y3
C158	x12	−6.2123659373e−43	8.0533327253e−43	−8.6267187632e−45
	y5
C160	x10	−2.3563367843e−42	3.6191538565e−42	−4.4829374364e−44
	y7
C162	x8	−6.4739515198e−42	6.9947907903e−42	−6.1600312437e−44
	y9
C164	x6	−1.4524006496e−41	4.8026591296e−42	−3.8331079573e−44
	y11
C166	x4	−2.4735749000e−41	6.8148847652e−44	−3.9563424202e−45
	y13
C168	x2	−3.9202438764e−41	2.2919776746e−44	3.7842451927e−45
	y15
C170	y17	−5.1112095432e−41	6.6119189328e−45	8.7556239722e−45
C171	x18	1.7669849485e−48	−7.2146170920e−48	5.1798517293e−49
C173	x16	4.8297044297e−47	5.6890921630e−47	1.7875826058e−48
	y2
C175	x14	3.6511808040e−46	5.3293682901e−46	−1.0904221176e−48
	y4
C177	x12	1.0286013254e−45	2.2175725023e−45	−3.5370413683e−47
	y6
C179	x10	−8.7120936294e−46	5.5970769928e−45	−9.1856508583e−47
	y8
C181	x8	−7.6651593072e−45	8.1112830545e−45	−1.3051093760e−46
	y10
C183	x6	2.4821376776e−44	7.9703062027e−45	−9.7163956148e−47
	y12
C185	x4	1.9932411848e−43	1.3787666777e−45	−5.7163004196e−47
	y14
C187	x2	4.7170265650e−43	−1.7135949133e−45	−7.4449434738e−48
	y16
C189	y18	4.1692610245e−43	−1.8709479508e−47	−1.1767681798e−48
C191	x18	1.2852059732e−50	1.7560896234e−50	−3.9559581786e−51
	y
C193	x16	2.8859754502e−49	−8.7434968324e−50	−7.5693511098e−51
	y3
C195	x14	2.5919190405e−48	−1.3609856365e−48	9.8319371871e−51
	y5
C197	x12	1.2030540733e−47	−8.0301641939e−48	8.3120587374e−50
	y7
C199	x10	3.4034259220e−47	−2.2201643867e−47	1.4180259218e−49
	y9
C201	x8	7.6238889168e−47	−2.5937836818e−47	1.4759315303e−49
	y11
C203	x6	1.2498776681e−46	−6.6048202518e−49	5.8694529977e−50
	y13
C205	x4	1.8726146173e−46	3.4967691792e−48	5.8439380908e−51
	y15
C207	x2	2.2780198354e−46	−3.4542661685e−48	−1.4032340153e−50
	y17
C209	y19	3.8268070940e−46	−6.0527384080e−49	−2.0496980344e−50
C210	x20	−2.9855603339e−54	1.0850672687e−53	−9.6871922544e−55
C212	x18	−1.0945118595e−52	−5.1497169543e−53	−5.9147787514e−54
	y2
C214	x16	−9.2381864771e−52	−8.1009277926e−52	−6.2617513042e−54
	y4
C216	x14	−2.4283073940e−51	−5.2651139388e−51	5.8630217526e−53
	y6
C218	x12	7.9238933105e−51	−2.0248989147e−50	1.8815802979e−52
	y8
C220	x10	7.8047594751e−50	−4.1988819787e−50	3.2717085342e−52
	y10
C222	x8	1.5303226803e−49	−4.0289755825e−50	3.0713582657e−52
	y12
C224	x6	−2.4775377926e−49	−3.8115226043e−51	1.9326644766e−52
	y14
C226	x4	−1.7866765799e−48	3.3039287502e−51	8.3147949596e−53
	y16
C228	x2	−3.2563244015e−48	−2.3082978925e−51	1.7438668546e−53
	y18
C230	y20	−2.5650942280e−48	−8.4346353683e−52	1.7165717085e−53
C232	x20	−1.5194339584e−56	0.0000000000e+00	0.0000000000e+00
	y
C234	x18	−4.0106786832e−55	0.0000000000e+00	0.0000000000e+00
	y3
C236	x16	−4.3687588631e−54	0.0000000000e+00	0.0000000000e+00
	y5
C238	x14	−2.5239118751e−53	0.0000000000e+00	0.0000000000e+00
	y7
C240	x12	−8.3121917452e−53	0.0000000000e+00	0.0000000000e+00
	y9
C242	x10	−1.7428695366e−52	0.0000000000e+00	0.0000000000e+00
	y11
C244	x8	−2.8874735960e−52	0.0000000000e+00	0.0000000000e+00
	y13
C246	x6	−1.9285524716e−52	0.0000000000e+00	0.0000000000e+00
	y15
C248	x4	−4.0627092527e−52	0.0000000000e+00	0.0000000000e+00
	y17
C250	x2	−2.0768493338e−52	0.0000000000e+00	0.0000000000e+00
	y19
C252	y21	−1.0720720504e−51	0.0000000000e+00	0.0000000000e+00
C253	x22	2.0049530546e−60	0.0000000000e+00	0.0000000000e+00
C255	x20	1.1026792133e−58	0.0000000000e+00	0.0000000000e+00
	y2
C257	x18	1.0194079423e−57	0.0000000000e+00	0.0000000000e+00
	y4
C259	x16	1.7346242654e−57	0.0000000000e+00	0.0000000000e+00
	y6
C261	x14	−2.2440134927e−56	0.0000000000e+00	0.0000000000e+00
	y8
C263	x12	−2.0611456096e−55	0.0000000000e+00	0.0000000000e+00
	y10
C265	x10	−7.8621089430e−55	0.0000000000e+00	0.0000000000e+00
	y12
C267	x8	−1.2244410209e−54	0.0000000000e+00	0.0000000000e+00
	y14
C269	x6	−6.2601755871e−56	0.0000000000e+00	0.0000000000e+00
	y16
C271	x4	5.3242810616e−54	0.0000000000e+00	0.0000000000e+00
	y18
C273	x2	6.8400181647e−54	0.0000000000e+00	0.0000000000e+00
	y20
C275	y22	5.2392353627e−54	0.0000000000e+00	0.0000000000e+00

[0110]

TABLE 3b
for FIG. 3
Coef	For-
ficient	mula	M04	M05	M06
C7	x2 y	−4.6919111689e−08	1.4018878183e−07	−1.0081701453e−07
C9	y3	1.8253007125e−09	1.6162333960e−07	1.9138800628e−07
C10	x4	−2.9018086007e−11	−8.0509590704e−11	2.3673364745e−11
C12	x2 y2	8.6224557653e−12	−2.5834562977e−10	3.0758167147e−10
C14	y4	−2.5035635214e−11	−7.3073930744e−11	3.8614580986e−10
C16	x4 y	3.3058503631e−14	1.2456814683e−13	−1.2772621620e−13
C18	x2 y3	−3.1589484929e−14	6.1984215403e−14	−5.9980511134e−13
C20	y5	−8.4642786270e−15	9.9374193893e−14	−4.2774786969e−13
C21	x6	−1.4011649205e−16	1.7849602607e−17	5.5847475583e−17
C23	x4 y2	−2.3864781097e−17	−2.2833674225e−17	−4.4818417386e−16
C25	x2 y4	−4.9069998309e−17	−1.2182931067e−16	−5.0576058471e−15
C27	x6	−7.4654199723e−17	1.5300111700e−16	−4.3607198339e−16
C29	x6 y	−4.5265599843e−20	1.8519879406e−19	−1.0643353510e−21
C31	x4 y3	−4.7645527959e−20	−1.4009807520e−19	2.5643866829e−18
C33	x2 y5	−2.6788867244e−19	−1.7685405547e−18	7.0806431686e−19
C35	y7	−9.4302989834e−20	−2.0295110973e−18	−3.4349156239e−17
C36	x8	2.3391237217e−22	−2.0628266673e−22	2.6132020498e−22
C38	x6 y2	5.5883830568e−23	1.8001836611e−22	5.6368067461e−23
C40	x4 y4	−4.9876036676e−22	2.1710049686e−21	2.5279269330e−20
C42	x2 y6	−4.5163268276e−22	6.4382660405e−21	8.9508362182e−21
C44	x8	5.8010238179e−23	1.4075101538e−19	−1.6321563225e−19
C46	x8 y	−4.5695720559e−27	−4.0381404993e−25	−2.6617080446e−25
C48	x6 y3	−1.1212863322e−24	2.9094733892e−24	−1.8127742990e−23
C50	x4 y5	−1.5764003940e−24	1.4108337367e−23	−1.3469966836e−23
C52	x2 y7	1.1213109772e−24	−5.3421691468e−23	1.0748109606e−21
C54	y9	1.1424273419e−25	2.6461372776e−22	8.5875633704e−21
C55	x10	−6.5881676753e−28	−8.3724676404e−29	−8.0410002448e−28
C57	x8 y2	−8.5880987336e−28	−3.5307271777e−27	5.6485146159e−27
C59	x6 y4	−1.0093204545e−27	−2.3830739121e−26	−2.9443445622e−26
C61	x4 y6	1.0580830393e−27	−1.7544683616e−25	1.5070766750e−25
C63	x2 y8	−8.2506562947e−27	−2.5865101624e−24	9.8469051674e−24
C65	y10	−1.3363245211e−26	−3.2230886817e−23	−3.1844554132e−24
C67	x10 y	1.1233617267e−30	3.1613661823e−30	8.6718383227e−30
C69	x8 y3	5.9646164696e−30	−2.1946077692e−29	2.1934062477e−28
C71	x6 y5	2.2722688419e−29	−1.9459888699e−28	1.0018954686e−27
C73	x4 y7	−3.2249553976e−29	1.4535959356e−27	−1.3266066652e−26
C75	x2 y9	−1.2191696803e−28	2.5705533412e−26	−2.4262538931e−25
C77	y11	−2.8964082528e−29	1.1613866353e−25	−1.5738840092e−24
C78	x12	4.9267991596e−33	5.2985481711e−33	−1.1936992974e−32
C80	x10 y2	7.3327143242e−33	1.2644776661e−32	−1.2121388095e−31
C82	x8 y4	1.2733141708e−32	3.4066396679e−31	−1.3294947998e−30
C84	x6 y6	−8.3754850051e−32	3.0003234925e−30	−5.1000348453e−30
C86	x4 y8	−2.3254781021e−31	1.6826769210e−29	−1.5530788550e−28
C88	x2 y10	−8.5598460559e−32	2.7420100914e−28	−6.8256227284e−28
C90	y12	2.2180850522e−31	3.4186134167e−27	6.3322543085e−27
C92	x12 y	−2.7433514556e−36	−1.1289288324e−35	−9.6724426897e−35
C94	x10 y3	−4.7586957087e−35	4.6702203629e−36	−2.5712999447e−33
C96	x8 y5	−4.7545047276e−34	9.6780603671e−34	−2.0510233332e−32
C98	x6 y7	−8.2297728621e−34	−8.5557064896e−33	2.8607943365e−32
C100	x4 y9	4.9628734493e−34	−4.2841778018e−31	3.3578661634e−30
C102	x2 y11	2.2276901854e−33	−4.3443105975e−30	2.8261396982e−29
C104	y13	5.8351464578e−34	−2.7948744240e−29	1.7711923002e−28
C105	x14	−5.4354353797e−38	−2.2248119285e−38	1.8008278590e−37
C107	x12 y2	−7.6887074368e−38	6.3742721923e−38	1.2854029898e−36
C109	x10 y4	−4.7495801026e−37	−2.1522493974e−36	1.9110302655e−35
C111	x8 y6	−1.1773512840e−36	−3.4881187811e−35	1.2096714307e−34
C113	x6 y8	5.0085939154e−37	−7.0448057868e−36	7.5048317624e−34
C115	x4 y10	4.4579790243e−36	1.0807498528e−33	1.4730895606e−32
C117	x2 y12	4.6198184857e−36	−4.2727964578e−33	−5.5510623066e−32
C119	y14	−2.9478321574e−36	−9.7310287771e−32	−9.1866898396e−31
C121	x14 y	−3.4915632053e−41	1.1915690881e−41	2.4122261565e−40
C123	x12 y3	−1.3817996143e−40	5.5606169611e−40	1.7838267949e−38
C125	x10 y5	1.5817215627e−39	4.0195460200e−40	1.9768338165e−37
C127	x8 y7	7.4306198543e−39	1.1150266905e−37	6.6911250425e−37
C129	x6 y9	9.1132401735e−39	4.1617307677e−37	−1.8357811456e−35
C131	x4 y11	−5.3117409780e−39	3.5018938464e−35	−3.5007085798e−34
C133	x2 y13	−2.2828974265e−38	2.9750511034e−34	−1.7038138998e−33
C135	y15	−9.6733588226e−39	1.8978248618e−33	−1.2293938704e−32
C136	x16	2.6379321173e−43	6.3250853595e−44	−1.2555048692e−42
C138	x14 y2	1.6805055477e−43	−7.4919150820e−43	−8.3354498754e−42
C140	x12 y4	2.1967077774e−42	7.5605897278e−42	−1.2424315115e−40
C142	x10 y6	1.2870344320e−41	1.7703211793e−40	−1.4252448957e−39
C144	x8 y8	2.6977135786e−41	4.5454498284e−40	−8.8208994212e−40
C146	x6 y10	−8.1514424788e−42	−8.2260761041e−39	−5.9937093928e−38
C148	x4 y12	−6.4506268489e−41	−2.7696063219e−37	−6.5630931197e−38
C150	x2 y14	−9.4392874214e−41	−1.0652214502e−36	9.1537402933e−36
C152	y16	1.7310147389e−41	−5.6776251107e−36	6.6554991728e−35
C154	x16 y	1.5317573206e−46	1.1388225260e−46	4.1747621637e−46
C156	x14 y3	1.5654653359e−45	−2.4857140337e−45	−6.5877876391e−44
C158	x12 y5	1.7895619193e−45	−3.7797363365e−44	−9.1835194349e−43
C160	x10 y7	−3.7082487176e−45	−6.8971109455e−43	−6.0401689567e−42
C162	x8 y9	−3.9193297983e−44	−4.4179811943e−43	3.7818838134e−41
C164	x6 y11	−9.5469919734e−44	−2.3488210996e−41	1.5348371315e−39
C166	x4 y13	−7.8995363375e−44	3.8004152927e−40	1.7047290765e−38
C168	x2 y15	−9.2629257347e−45	−7.7657728219e−39	4.0970986264e−38
C170	y17	8.2836171309e−44	−1.4302437709e−38	5.0382527675e−37
C171	x18	−6.5333379241e−49	−1.5057794552e−49	4.6695457651e−48
C173	x16 y2	2.8610407792e−49	2.3735934076e−48	2.8165961363e−47
C175	x14 y4	−2.2515439953e−48	−1.2637688111e−47	3.7976221258e−46
C177	x12 y6	−3.5665179513e−47	−2.4082341714e−46	7.5885599371e−45
C179	x10 y8	−1.6171675339e−46	−4.2823378618e−45	7.1006408345e−45
C181	x8 y10	−2.7085338757e−46	1.0300759912e−44	−4.9470914486e−44
C183	x6 y12	−8.9359429915e−47	7.5345292637e−43	−6.5940980794e−43
C185	x4 y14	1.5349329900e−46	2.0927494653e−42	−4.2938355971e−41
C187	x2 y16	5.2740083554e−46	7.9802384763e−41	−3.6576710798e−40
C189	y18	−1.5284540620e−47	8.4380122088e−41	−2.7338055320e−39
C191	x18 y	−1.9818000134e−52	−3.2843622423e−52	−2.1169359160e−51
C193	x16 y3	−3.3835872471e−51	3.5822179769e−51	9.8837699806e−50
C195	x14 y5	−1.5410213140e−50	1.8369624067e−49	1.6263584683e−48
C197	x12 y7	−1.1107803516e−49	4.5568862779e−49	1.6049430266e−47
C199	x10 y9	−3.7598742192e−49	6.0790621137e−47	−9.7389029292e−48
C201	x8 y11	−3.3533356521e−49	−5.3991952333e−46	−1.9866472076e−45
C203	x6 y13	9.1584589484e−50	−4.8080052063e−46	−4.5214833329e−44
C205	x4 y15	4.3754203193e−49	−1.9158978765e−44	−2.7767309791e−43
C207	x2 y17	1.0475851486e−48	−2.3241218793e−43	−2.2147383503e−44
C209	y19	−3.3222240956e−49	−4.0090513637e−44	−9.6408290230e−42
C210	x20	6.8127965305e−55	1.9083761220e−55	−7.1764184193e−54
C212	x18 y2	−1.1809602416e−54	−2.2614079810e−54	−3.8228959993e−53
C214	x16 y4	−5.3863242260e−54	−1.2322615781e−53	−4.2654388622e−52
C216	x14 y6	−1.2198550115e−53	−4.6097235427e−52	−1.4592372296e−50
C218	x12 y8	−1.1179524681e−52	4.7457648720e−51	−5.0579158593e−50
C220	x10 y10	−2.4201087413e−52	−2.3876888406e−49	4.4129108488e−49
C222	x8 y12	−1.0775957248e−52	2.9374564283e−48	4.6805439361e−48
C224	x6 y14	1.1081530874e−52	−1.5595949465e−47	1.3592595635e−46
C226	x4 y16	3.0684358801e−52	9.8555319140e−47	1.0988321855e−45
C228	x2 y18	6.5432217197e−52	6.3071466742e−47	3.2572549929e−45
C230	y20	−3.2748326320e−52	1.3699657116e−47	5.3682390236e−44

[0111]

TABLE 3c
for FIG. 3
Coeffi-	For-
cient	mula	M07	M08	M09
C7	x2 y	−1.5406892486e−07	2.5063978769e−07	−1.2243983927e−07
C9	y3	−1.0071762212e−07	1.4262511688e−07	−7.4016702454e−07
C10	x4	−2.3927166450e−10	−2.5853745427e−10	2.8395839048e−10
C12	x2 y3	8.5067776647e−10	5.9320079597e−11	−7.4988465420e−11
C14	y4	1.3233325218e−09	−4.1315127363e−10	4.1975421828e−09
C16	x4 y	2.6529267257e−12	2.6529267257e−12	−4.4811570530e−13
C18	x2 y3	2.0094726034e−12	2.0571717855e−12	−5.3369461863e−12
C20	y5	−7.9535263077e−12	1.3128908941e−12	−2.4873922581e−11
C21	x6	1.6623335881e−15	−9.1271948417e−16	4.8689237138e−15
C23	x4 y2	−3.8345376618e−15	−4.1554050104e−15	1.1603086206e−14
C25	x2 y4	−2.2422377702e−14	−3.2829460952e−15	2.1013928712e−14
C27	y6	4.0650730479e−14	−6.2938426600e−15	1.7226074770e−13
C29	x6 y	−9.9690495446e−18	8.3186664273e−19	3.9662337450e−17
C31	x4 y3	−2.1403663732e−17	5.2223840938e−18	7.3273705623e−17
C33	x2 y5	1.3176929999e−16	1.6332539295e−17	−3.3811007209e−16
C35	y7	−3.6873919625e−16	1.9527911956e−17	−1.0720301349e−15
C36	x8	−8.9761469416e−21	5.1875659439e−20	−2.3693086180e−18
C38	x6 y2	3.5764406501e−20	3.9874086476e−20	−3.0131458776e−18
C40	x4 y4	2.8526231911e−19	1.3728349162e−19	−3.3736958430e−18
C42	x2 y6	−1.8071636856e−18	1.9751798121e−19	1.8208024498e−18
C44	y8	4.1818723033e−18	2.1104661222e−19	5.5932805556e−18
C46	x8 y	1.4226595790e−22	8.9349482182e−23	−4.1105713226e−20
C48	x6 y3	3.7591549180e−22	−9.5168566014e−22	−6.2514555514e−20
C50	x4 y5	−3.6713175415e−21	−7.2982775869e−22	−1.7050519553e−20
C52	x2 y7	2.8635316808e−20	2.3154495399e−21	1.0577409765e−20
C54	y9	3.0734581915e−20	−1.8356921408e−21	−1.0864671545e−19
C55	x10	2.2058209913e−25	−2.1116637697e−24	7.2691415848e−22
C57	x8 y2	−1.0285432994e−24	−2.6257643076e−24	1.3342198892e−21
C59	x6 y4	−1.5478136163e−23	−3.2933297424e−23	1.7092501943e−21
C61	x4 y6	1.3283605857e−22	−7.7319254943e−23	1.1230041000e−21
C63	x2 y8	3.1654945824e−22	−7.6300329054e−23	2.2059007667e−22
C65	y10	−1.3353127768e−21	−2.7629081367e−23	2.1258842289e−21
C67	x10 y	−3.0463775887e−27	−2.0971761112e−26	2.1524607579e−23
C69	x8 y3	−2.4577680535e−26	7.9413968213e−26	3.8528388871e−23
C71	x6 y5	1.8898366600e−25	4.0514268238e−25	2.2328244433e−23
C73	x4 y7	6.9673799214e−25	−5.3032623185e−27	4.2868510876e−25
C75	x2 y9	−1.1663125856e−23	−1.6151153651e−25	−8.5072632820e−24
C77	y11	8.6214064959e−25	3.0808600494e−25	6.2916892811e−24
C78	x12	−4.7025762319e−30	6.1575537159e−29	−1.2728739819e−25
C80	x10 y2	1.3800008981e−29	−3.7887849944e−28	−2.0854563910e−25
C82	x8 y4	8.9441902344e−28	2.4367045898e−27	−3.5498487783e−25
C84	x6 y6	−8.8731267067e−28	1.1370350226e−26	−4.4466835705e−25
C86	x4 y8	−7.5455085132e−26	1.4669472579e−26	−1.5780079565e−25
C88	x2 y10	5.6599295011e−26	9.1012727004e−27	−4.5298651109e−26
C90	y12	2.8143256028e−25	1.1565142424e−27	−4.9433054127e−25
C92	x12 y	5.0778387731e−32	8.5828879377e−31	−5.1405105085e−27
C94	x10 y3	1.2925431548e−30	−6.3856152579e−30	−1.2206542993e−26
C96	x8 y5	3.3878565135e−30	−4.2282672195e−29	−9.2319448493e−27
C98	x6 y7	−1.6901670373e−28	−5.4388646850e−29	−3.0106239902e−27
C100	x4 y9	2.6717388818e−28	1.2766417595e−29	2.9890289859e−28
C102	x2 y11	1.6096504879e−27	5.0503864774e−30	1.6116381504e−27
C104	y13	−1.2780319808e−27	−1.9628127728e−29	−4.0934429528e−28
C105	x14	7.4118809942e−35	−1.0677146298e−33	1.2659506744e−29
C107	x12 y2	4.1227191307e−34	4.2914347971e−32	−5.8228987522e−30
C109	x10 y4	−1.8651413337e−32	−7.0412925223e−32	−8.4754915086e−30
C111	x8 y6	−2.2912168412e−31	−8.8273686087e−31	5.7290310738e−29
C113	x6 y8	2.6032603416e−30	−1.5451079608e−30	5.6144395274e−29
C115	x4 y10	6.2420243755e−30	−1.4500934076e−30	8.7789085038e−30
C117	x2 y12	−2.0055873812e−29	−6.0445847896e−31	1.6579691844e−29
C119	y14	−3.4858578548e−29	−3.9389786767e−32	9.6546892734e−29
C121	x14 y	−3.6349990515e−37	1.5867771987e−35	6.1704054854e−31
C123	x12 y3	−2.6612139397e−35	5.1365759239e−34	1.8157455218e−30
C125	x10 y5	−4.9008380781e−34	2.2276809261e−33	1.6925225667e−30
C127	x8 y7	5.3391634990e−33	4.9049682634e−33	8.4721409050e−31
C129	x6 y9	1.6152350742e−32	3.3959617450e−33	1.7588011963e−31
C131	x4 y11	−2.6638593784e−32	−1.2895012271e−33	−2.9719075470e−32
C133	x2 y13	−2.0814565975e−31	−2.5399961434e−36	−3.3053502504e−31
C135	y15	1.1783879640e−31	8.4075953276e−34	−3.7373611679e−31
C136	x16	−7.8215999665e−40	3.0619623218e−38	−6.6897308349e−34
C138	x14 y2	−1.3489787144e−38	−1.3173933056e−36	4.6895739290e−33
C140	x12 y4	−1.1060598784e−38	1.1389664289e−36	1.1898857666e−32
C142	x10 y6	6.1126918746e−36	3.5830121770e−35	2.2562474011e−33
C144	x8 y8	−9.9472983247e−36	8.8708082757e−35	−4.7162166661e−33
C146	x6 y10	−1.9722176560e−34	1.0203286756e−34	−3.1596641693e−33
C148	x4 y12	1.9971726633e−34	7.8750419222e−35	−3.0863983815e−35
C150	x2 y14	1.4671080791e−33	2.2576160319e−35	−1.6654622971e−33
C152	y16	1.3446089490e−33	1.2262038947e−36	−8.5600002567e−33
C154	x16 y	−7.7868904508e−43	−1.2435017428e−39	−3.5824572255e−35
C156	x14 y3	1.3684701008e−40	−2.0040187099e−38	−1.1220164391e−34
C158	x12 y5	1.0582375883e−38	−6.6701058772e−38	−1.0546819543e−34
C160	x10 y7	−3.2312418322e−38	−1.6125855254e−37	−7.3766087623e−35
C162	x8 y9	−6.1553564841e−37	−2.4670225590e−37	−2.7819778494e−35
C164	x6 y11	9.8651072991e−38	−8.8195737950e−38	−5.6863814041e−36
C166	x4 y13	6.4510592866e−37	6.4803417200e−38	1.5820424567e−36
C168	x2 y15	2.4833942142e−35	5.9661013401e−39	3.8155787145e−35
C170	y17	−5.9480019738e−36	−2.9001250967e−38	6.1896806728e−35
C171	x18	4.9739730359e−45	−8.5611692145e−43	1.4782087574e−38
C173	x16 y2	9.5905315102e−44	9.3461834401e−42	−3.9712549092e−37
C175	x14 y4	2.9586878537e−42	−5.5978801474e−41	−1.1902486685e−36
C177	x12 y6	−1.2329368692e−41	−7.6546844603e−40	−6.4720328444e−37
C179	x10 y8	−5.6718288083e−40	−2.4891072483e−39	−1.0234509613e−37
C181	x8 y10	1.4647035933e−39	−3.6256551426e−39	1.3910832686e−37
C183	x6 y12	−1.2077186832e−38	−3.3874384820e−39	5.6031783554e−38
C185	x4 y14	2.0523944311e−38	−2.3070171968e−39	−1.0908467981e−38
C187	x2 y16	−1.9015363173e−38	−4.9549531406e−40	1.5464975975e−38
C189	y18	2.1908630235e−37	6.9249215953e−42	2.9173777467e−37
C191	x18 y	1.7727633538e−47	1.5651442754e−44	7.7597489991e−40
C193	x16 y3	8.9915008087e−46	2.7267428528e−43	1.6465278741e−39
C195	x14 y5	−5.9597835170e−44	8.8910907171e−43	−8.3777551079e−40
C197	x12 y7	−3.1648393929e−43	1.9674453312e−42	−2.3976535076e−43
C199	x10 y9	5.0144012117e−42	4.3037657792e−42	−1.3726449580e−43
C201	x8 y11	−2.0537860165e−41	4.4303832692e−42	−6.7580154863e−44
C203	x6 y13	4.9281119187e−41	3.6766291837e−43	2.2538999678e−40
C205	x4 y15	−3.8162288999e−40	−1.4025976322e−42	−1.9374308562e−40
C207	x2 y17	1.3515085877e−40	−2.7338594450e−43	−2.0312038333e−39
C209	y19	1.8651521233e−39	5.6124223098e−43	−4.0283378828e−39
C210	x20	−1.4357270329e−50	8.5128605245e−48	−1.4666394325e−44
C212	x18 y2	1.1889448948e−49	9.6496226122e−47	8.2317220740e−42
C214	x16 y4	−6.0878348102e−48	1.3697170242e−45	2.0430686433e−41
C216	x14 y6	−4.7355500404e−46	7.4115926977e−45	3.7700456362e−45
C218	x12 y8	4.4693207296e−45	2.7492033686e−44	1.9013823361e−45
C220	x10	−1.4260151041e−44	4.9046050640e−44	1.0576715943e−45
	y10
C222	x8 y12	5.4241276175e−44	5.3510591196e−44	4.4536665212e−46
C224	x6 y14	−1.8962541934e−43	4.7275574418e−44	2.9715636422e−46
C226	x4 y16	−6.4614525109e−43	2.9803371275e−44	1.3312751769e−42
C228	x2 y18	5.7709366205e−43	5.4507385495e−45	7.2014314065e−42
C230	y20	4.6374977599e−42	−1.3595188151e−45	1.0683412204e−41