Free-for-all / Core i7-6500U / 2023-08-23 #4
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GitHub free-for-all test set
Contents
Description
Problems in this test set:
Solvers
All solvers were called via qpsolvers v3.5.0.
CPU info
archarch_string_rawbitsbrand_rawcountcpuinfo_version_stringfamilyflags3dnowprefetch,abm,acpi,adx,aes,aperfmperf,apic,arat,arch_capabilities,arch_perfmon,art,avx,avx2,bmi1,bmi2,bts,clflush,clflushopt,cmov,constant_tsc,cpuid,cpuid_fault,cx16,cx8,de,ds_cpl,dtes64,dtherm,dts,epb,ept,ept_ad,erms,est,f16c,flexpriority,flush_l1d,fma,fpu,fsgsbase,fxsr,ht,hwp,hwp_act_window,hwp_epp,hwp_notify,ibpb,ibrs,ida,intel_pt,invpcid,invpcid_single,lahf_lm,lm,mca,mce,md_clear,mmx,monitor,movbe,mpx,msr,mtrr,nonstop_tsc,nopl,nx,osxsave,pae,pat,pbe,pcid,pclmulqdq,pdcm,pdpe1gb,pebs,pge,pln,pni,popcnt,pse,pse36,pti,pts,rdrand,rdrnd,rdseed,rdtscp,rep_good,sdbg,sep,sgx,smap,smep,ss,ssbd,sse,sse2,sse4_1,sse4_2,ssse3,stibp,syscall,tm,tm2,tpr_shadow,tsc,tsc_adjust,tsc_deadline_timer,tscdeadline,vme,vmx,vnmi,vpid,x2apic,xgetbv1,xsave,xsavec,xsaveopt,xsaves,xtopology,xtprhz_actual_friendlyhz_advertised_friendlyl1_data_cache_sizel1_instruction_cache_sizel2_cache_associativityl2_cache_line_sizel2_cache_sizel3_cache_sizemodelpython_versionsteppingvendor_id_rawSettings
There are 3 settings: default, high_accuracy and low_accuracy. They validate solutions using the following tolerances:
costdualgapprimalruntimeSolvers for each settings are configured as follows:
tol_feastol_gap_abstol_gap_relfeastoldual_tolprimal_tolfeastolFeasibilityTolOptimalityTolTimeLimitdual_feasibility_toleranceprimal_feasibility_tolerancetime_limittol_comptol_eqtol_ineqtol_stateps_abseps_reltime_limitcheck_duality_gapeps_abseps_duality_gap_abseps_duality_gap_releps_relpredefined_optionstime_limitRELTOLeps_abseps_reltime_limit_secsKnown limitations
The following issues have been identified as impacting the fairness of this benchmark. Keep them in mind when drawing conclusions from the results.
Results by settings
Default
Solvers are compared over the whole test set by shifted geometric mean (shm). Lower is better, 1.0 is the best.
High accuracy
Solvers are compared over the whole test set by shifted geometric mean (shm). Lower is better, 1.0 is the best.
Low accuracy
Solvers are compared over the whole test set by shifted geometric mean (shm). Lower is better, 1.0 is the best.
Results by metric
Success rate
Precentage of problems each solver is able to solve:
Rows are solvers and columns are settings. We consider that a solver successfully solved a problem when (1) it returned with a success status and (2) its solution satisfies optimality conditions within tolerance. The second table below summarizes the frequency at which solvers return success (1) and the corresponding solution did indeed pass tolerance checks.
Percentage of problems where "solved" return codes are correct:
Computation time
We compare solver computation times over the whole test set using the shifted geometric mean. Intuitively, a solver with a shifted-geometric-mean runtime of Y is Y times slower than the best solver over the test set. See Metrics for details.
Shifted geometric mean of solver computation times (1.0 is the best):
Rows are solvers and columns are solver settings. The shift is$sh = 10$ . As in the OSQP and ProxQP benchmarks, we assume a solver's run time is at the time limit when it fails to solve a problem.
Optimality conditions
Primal residual
The primal residual measures the maximum (equality and inequality) constraint violation in the solution returned by a solver. We use the shifted geometric mean to compare solver primal residuals over the whole test set. Intuitively, a solver with a shifted-geometric-mean primal residual of Y is Y times less precise on constraints than the best solver over the test set. See Metrics for details.
Shifted geometric means of primal residuals (1.0 is the best):
Rows are solvers and columns are solver settings. The shift is$sh = 10$ . A solver that fails to find a solution receives a primal residual equal to the full primal tolerance.
Dual residual
The dual residual measures the maximum violation of the dual feasibility condition in the solution returned by a solver. We use the shifted geometric mean to compare solver dual residuals over the whole test set. Intuitively, a solver with a shifted-geometric-mean dual residual of Y is Y times less precise on the dual feasibility condition than the best solver over the test set. See Metrics for details.
Shifted geometric means of dual residuals (1.0 is the best):
Rows are solvers and columns are solver settings. The shift is$sh = 10$ . A solver that fails to find a solution receives a dual residual equal to the full dual tolerance.
Duality gap
The duality gap measures the consistency of the primal and dual solutions returned by a solver. A duality gap close to zero ensures that the complementarity slackness optimality condition is satisfied. We use the shifted geometric mean to compare solver duality gaps over the whole test set. Intuitively, a solver with a shifted-geometric-mean duality gap of Y is Y times less precise on the complementarity slackness condition than the best solver over the test set. See Metrics for details.
Shifted geometric means of duality gaps (1.0 is the best):
Rows are solvers and columns are solver settings. The shift is$sh = 10$ . A solver that fails to find a solution receives a duality gap equal to the full gap tolerance.
Cost error
The cost error measures the difference between the known optimal objective and the objective at the solution returned by a solver. We use the shifted geometric mean to compare solver cost errors over the whole test set. Intuitively, a solver with a shifted-geometric-mean cost error of Y is Y times less precise on the optimal cost than the best solver over the test set. See Metrics for details.
Shifted geometric means of solver cost errors (1.0 is the best):
Rows are solvers and columns are solver settings. The shift is$sh = 10$ . A solver that fails to find a solution receives a cost error equal to the cost tolerance.
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