| ################################################################################################ |
| # Copyright 2022 GlobalFoundries PDK Authors |
| # |
| # Licensed under the Apache License, Version 2.0 (the 'License'); |
| # you may not use this file except in compliance with the License. |
| # You may obtain a copy of the License at |
| # |
| # https://www.apache.org/licenses/LICENSE-2.0 |
| # |
| # Unless required by applicable law or agreed to in writing, software |
| # distributed under the License is distributed on an 'AS IS' BASIS, |
| # WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. |
| # See the License for the specific language governing permissions and |
| # limitations under the License. |
| ################################################################################################ |
| |
| if FEOL |
| |
| #================================================ |
| #---------------------NWELL---------------------- |
| #================================================ |
| |
| # Rule NW.1a_LV: Min. Nwell Width (This is only for litho purpose on the generated area). is 0.86µm |
| logger.info('Executing rule NW.1a_LV') |
| nw1a_l1 = nwell.width(0.86.um, euclidian).polygons(0.001).not_interacting(v5_xtor).not_interacting(dualgate2_d) |
| nw1a_l1.output('NW.1a_LV', 'NW.1a_LV : Min. Nwell Width (This is only for litho purpose on the generated area). : 0.86µm') |
| nw1a_l1.forget |
| |
| # Rule NW.1a_MV: Min. Nwell Width (This is only for litho purpose on the generated area). is 0.86µm |
| logger.info('Executing rule NW.1a_MV') |
| nw1a_l1 = nwell.width(0.86.um, euclidian).polygons(0.001).overlapping(dualgate2_d) |
| nw1a_l1.output('NW.1a_MV', 'NW.1a_MV : Min. Nwell Width (This is only for litho purpose on the generated area). : 0.86µm') |
| nw1a_l1.forget |
| |
| nw_1b = nwell.outside(dnwell).and(res_mk) |
| # Rule NW.1b_LV: Min. Nwell Width as a resistor (Outside DNWELL only). is 2µm |
| logger.info('Executing rule NW.1b_LV') |
| nw1b_l1 = nw_1b.width(2.um, euclidian).polygons(0.001).not_interacting(v5_xtor).not_interacting(dualgate2_d) |
| nw1b_l1.output('NW.1b_LV', 'NW.1b_LV : Min. Nwell Width as a resistor (Outside DNWELL only). : 2µm') |
| nw1b_l1.forget |
| |
| # Rule NW.1b_MV: Min. Nwell Width as a resistor (Outside DNWELL only). is 2µm |
| logger.info('Executing rule NW.1b_MV') |
| nw1b_l1 = nw_1b.width(2.um, euclidian).polygons(0.001).overlapping(dualgate2_d) |
| nw1b_l1.output('NW.1b_MV', 'NW.1b_MV : Min. Nwell Width as a resistor (Outside DNWELL only). : 2µm') |
| nw1b_l1.forget |
| |
| if CONNECTIVITY_RULES |
| logger.info('CONNECTIVITY_RULES section') |
| |
| connected_nwell_LV, unconnected_nwell_LV = conn_space(nwell, 0.6, 1.4, euclidian) |
| |
| connected_nwell_MV, unconnected_nwell_MV = conn_space(nwell, 0.74, 1.7, euclidian) |
| |
| # Rule NW.2a_LV: Min. Nwell Space (Outside DNWELL) [Equi-potential], Merge if the space is less than. is 0.6µm |
| logger.info('Executing rule NW.2a_LV') |
| nw2a_l1 = connected_nwell_LV.not_interacting(v5_xtor).not_interacting(dualgate2_d) |
| nw2a_l1.output('NW.2a_LV', 'NW.2a_LV : Min. Nwell Space (Outside DNWELL) [Equi-potential], Merge if the space is less than. : 0.6µm') |
| nw2a_l1.forget |
| |
| # Rule NW.2a_MV: Min. Nwell Space (Outside DNWELL) [Equi-potential], Merge if the space is less than. is 0.74µm |
| logger.info('Executing rule NW.2a_MV') |
| nw2a_l1 = connected_nwell_MV.overlapping(dualgate2_d) |
| nw2a_l1.output('NW.2a_MV', 'NW.2a_MV : Min. Nwell Space (Outside DNWELL) [Equi-potential], Merge if the space is less than. : 0.74µm') |
| nw2a_l1.forget |
| |
| # Rule NW.2b_LV: Min. Nwell Space (Outside DNWELL) [Different potential]. is 1.4µm |
| logger.info('Executing rule NW.2b_LV') |
| nw2b_l1 = unconnected_nwell_LV.not_interacting(v5_xtor).not_interacting(dualgate2_d) |
| nw2b_l1.output('NW.2b_LV', 'NW.2b_LV : Min. Nwell Space (Outside DNWELL) [Different potential]. : 1.4µm') |
| nw2b_l1.forget |
| |
| # Rule NW.2b_MV: Min. Nwell Space (Outside DNWELL) [Different potential]. is 1.7µm |
| logger.info('Executing rule NW.2b_MV') |
| nw2b_l1 = unconnected_nwell_MV.overlapping(dualgate2_d) |
| nw2b_l1.output('NW.2b_MV', 'NW.2b_MV : Min. Nwell Space (Outside DNWELL) [Different potential]. : 1.7µm') |
| nw2b_l1.forget |
| |
| else |
| logger.info('CONNECTIVITY_RULES disabled section') |
| |
| # Rule NW.2b_LV: Min. Nwell Space (Outside DNWELL) [Different potential]. is 1.4µm |
| logger.info('Executing rule NW.2b_LV') |
| nw2b_l1 = nwell.isolated(1.4.um, euclidian).polygons(0.001).not_interacting(v5_xtor).not_interacting(dualgate2_d) |
| nw2b_l1.output('NW.2b_LV', 'NW.2b_LV : Min. Nwell Space (Outside DNWELL) [Different potential]. : 1.4µm') |
| nw2b_l1.forget |
| |
| # Rule NW.2b_MV: Min. Nwell Space (Outside DNWELL) [Different potential]. is 1.7µm |
| logger.info('Executing rule NW.2b_MV') |
| nw2b_l1 = nwell.isolated(1.7.um, euclidian).polygons(0.001).overlapping(dualgate2_d) |
| nw2b_l1.output('NW.2b_MV', 'NW.2b_MV : Min. Nwell Space (Outside DNWELL) [Different potential]. : 1.7µm') |
| nw2b_l1.forget |
| |
| end #CONNECTIVITY_RULES |
| |
| # Rule NW.3_LV: Min. Nwell to DNWELL space. is 3.1µm |
| logger.info('Executing rule NW.3_LV') |
| nw3_l1 = nwell.separation(dnwell, 3.1.um, euclidian).polygons(0.001).not_interacting(v5_xtor).not_interacting(dualgate2_d) |
| nw3_l1.output('NW.3_LV', 'NW.3_LV : Min. Nwell to DNWELL space. : 3.1µm') |
| nw3_l1.forget |
| |
| # Rule NW.3_MV: Min. Nwell to DNWELL space. is 3.1µm |
| logger.info('Executing rule NW.3_MV') |
| nw3_l1 = nwell.separation(dnwell, 3.1.um, euclidian).polygons(0.001).overlapping(dualgate2_d) |
| nw3_l1.output('NW.3_MV', 'NW.3_MV : Min. Nwell to DNWELL space. : 3.1µm') |
| nw3_l1.forget |
| |
| # Rule NW.4_LV: Min. Nwell to LVPWELL space. |
| logger.info('Executing rule NW.4_LV') |
| nw4_l1 = nwell.not_outside(lvpwell).not_interacting(v5_xtor).not_interacting(dualgate2_d) |
| nw4_l1.output('NW.4_LV', 'NW.4_LV : Min. Nwell to LVPWELL space.') |
| nw4_l1.forget |
| |
| # Rule NW.4_MV: Min. Nwell to LVPWELL space. |
| logger.info('Executing rule NW.4_MV') |
| nw4_l1 = nwell.not_outside(lvpwell).overlapping(dualgate2_d) |
| nw4_l1.output('NW.4_MV', 'NW.4_MV : Min. Nwell to LVPWELL space.') |
| nw4_l1.forget |
| |
| # Rule NW.5_LV: Min. DNWELL enclose Nwell. is 0.5µm |
| logger.info('Executing rule NW.5_LV') |
| nw5_l1 = dnwell.enclosing(nwell, 0.5.um, euclidian).polygons(0.001) |
| nw5_l2 = nwell.not_outside(dnwell).not(dnwell) |
| nw5_l = nw5_l1.or(nw5_l2).not_interacting(v5_xtor).not_interacting(dualgate2_d) |
| nw5_l.output('NW.5_LV', 'NW.5_LV : Min. DNWELL enclose Nwell. : 0.5µm') |
| nw5_l1.forget |
| nw5_l2.forget |
| nw5_l.forget |
| |
| # Rule NW.5_MV: Min. DNWELL enclose Nwell. is 0.5µm |
| logger.info('Executing rule NW.5_MV') |
| nw5_l1 = dnwell.enclosing(nwell, 0.5.um, euclidian).polygons(0.001) |
| nw5_l2 = nwell.not_outside(dnwell).not(dnwell) |
| nw5_l = nw5_l1.or(nw5_l2).overlapping(dualgate2_d) |
| nw5_l.output('NW.5_MV', 'NW.5_MV : Min. DNWELL enclose Nwell. : 0.5µm') |
| nw5_l1.forget |
| nw5_l2.forget |
| nw5_l.forget |
| |
| # Rule NW.6: Nwell resistors can only exist outside DNWELL. |
| logger.info('Executing rule NW.6') |
| nw6_l1 = nwell.inside(res_mk).interacting(dnwell) |
| nw6_l1.output('NW.6', 'NW.6 : Nwell resistors can only exist outside DNWELL.') |
| nw6_l1.forget |
| |
| end #FEOL |
