Data For "Increased Efficiency In Planar Near-Field Scanning Using Combined Multi-Robot Motion"
Department of Commerce
@usgov.doc_gov_data_for_increased_efficiency_in_planar_near_f_14d79d53
Department of Commerce
@usgov.doc_gov_data_for_increased_efficiency_in_planar_near_f_14d79d53
Included here is relevant data to the publication "Increased Efficiency in Planar Near-Field Scanning Using Combined Multi-Robot Motion". Robotic antenna ranges are highly configurable, but traditional pose selection methods do not utilize the collaborative capability presented by these positioners. We present methods to reduce measurement time during planar scanning on robotic antenna ranges with redundant actuation. The inverse kinematics problem is formulated as a general optimization problem to solve for a relative AUT-Probe transform using all controllable joints of the positioning system. A secondary objective is introduced to minimize velocity-weighted joint excursion, and the resultant poses are ordered to minimize motion time using a Travelling Salesman Problem heuristic. This approach is validated using experimental planar measurements collected at the WR62 band using the Large Antenna Positioning System robotic antenna range. Required scan volume was reduced by 49.9% using combined motion. Total scan motion time was reduced by 19.7% and 20.5% for standard and TSP pose ordering, respectively, for the combined motion respect to traditional pose selection. A maximum of pattern difference of -38.9 dB was found between the transformed far-field patterns.
Organization: Department of Commerce
Last updated: 2025-09-30T05:42:08.380263
Tags: antenna-metrology, collaborative-motion, robotic-antenna-range
CREATE TABLE figure_4_data (
"angle_deg" DOUBLE -- Angle (deg),
"n_12_4_ghz_7_dof_standard_case_h_plane_transformed_far_05d8db88" DOUBLE -- 12.4 GHz 7 DoF Standard Case H Plane Transformed Far-Field Magnitude (dB),
"n_12_4_ghz_13_dof_standard_case_h_plane_transformed_fa_e40b3f85" DOUBLE -- 12.4 GHz 13 DoF Standard Case H Plane Transformed Far-Field Magnitude (dB),
"n_12_4_ghz_h_plane_difference_db" DOUBLE -- 12.4 GHz H Plane Difference (dB),
"n_12_4_ghz_7_dof_standard_case_e_plane_transformed_far_a7a0d8a5" DOUBLE -- 12.4 GHz 7 DoF Standard Case E Plane Transformed Far-Field Magnitude (dB),
"n_12_4_ghz_13_dof_standard_case_e_plane_transformed_fa_4e6cf0f3" DOUBLE -- 12.4 GHz 13 DoF Standard Case E Plane Transformed Far-Field Magnitude (dB),
"n_12_4_ghz_e_plane_difference_db" DOUBLE -- 12.4 GHz E Plane Difference (dB),
"angle_deg_1" DOUBLE -- Angle (deg).1,
"n_15_ghz_7_dof_standard_case_h_plane_transformed_far_f_51a8a207" DOUBLE -- 15 GHz 7 DoF Standard Case H Plane Transformed Far-Field Magnitude (dB),
"n_15_ghz_13_dof_standard_case_h_plane_transformed_far__182785bc" DOUBLE -- 15 GHz 13 DoF Standard Case H Plane Transformed Far-Field Magnitude (dB),
"n_15_ghz_h_plane_difference_db" DOUBLE -- 15 GHz H Plane Difference (dB),
"n_15_ghz_7_dof_standard_case_e_plane_transformed_far_f_6ede9fa2" DOUBLE -- 15 GHz 7 DoF Standard Case E Plane Transformed Far-Field Magnitude (dB),
"n_15_ghz_13_dof_standard_case_e_plane_transformed_far__913d6dee" DOUBLE -- 15 GHz 13 DoF Standard Case E Plane Transformed Far-Field Magnitude (dB),
"n_15_ghz_e_plane_difference_db" DOUBLE -- 15 GHz E Plane Difference (dB),
"angle_deg_2" DOUBLE -- Angle (deg).2,
"n_18_ghz_7_dof_standard_case_h_plane_transformed_far_f_99dc70af" DOUBLE -- 18 GHz 7 DoF Standard Case H Plane Transformed Far-Field Magnitude (dB),
"n_18_ghz_13_dof_standard_case_h_plane_transformed_far__a263f387" DOUBLE -- 18 GHz 13 DoF Standard Case H Plane Transformed Far-Field Magnitude (dB),
"n_18_ghz_h_plane_difference_db" DOUBLE -- 18 GHz H Plane Difference (dB),
"n_18_ghz_7_dof_standard_case_e_plane_transformed_far_f_aa648a49" DOUBLE -- 18 GHz 7 DoF Standard Case E Plane Transformed Far-Field Magnitude (dB),
"n_18_ghz_13_dof_standard_case_e_plane_transformed_far__a8c012c2" DOUBLE -- 18 GHz 13 DoF Standard Case E Plane Transformed Far-Field Magnitude (dB),
"n_18_ghz_e_plane_difference_db" DOUBLE -- 18 GHz E Plane Difference (dB)
);CREATE TABLE figure_5_data (
"test_case" VARCHAR -- Test Case:,
"n_7_dof_standard" DOUBLE -- 7 DoF Standard,
"n_13_dof_standard" DOUBLE -- 13 DoF Standard,
"n_13_dof_tsp" DOUBLE -- 13 DoF TSP,
"unnamed_4" VARCHAR -- Unnamed: 4,
"unnamed_5" VARCHAR -- Unnamed: 5,
"unnamed_6" VARCHAR -- Unnamed: 6,
"unnamed_7" VARCHAR -- Unnamed: 7,
"unnamed_8" VARCHAR -- Unnamed: 8
);Anyone who has the link will be able to view this.