team_data was the last persistence-adjacent structure sized by MAX_SHIP_CLASSES: four parallel ship arrays plus four parallel weapon arrays (one slot per mission-file loadout line, holding a class or a sexp variable name, and a count or a sexp variable name) with manual num_*_choices counters, plus a dense per-class weapon_required flag array. Convert all of it to the sparse-container family:
ship_list / ship_list_variables / ship_count / ship_count_variables
-> SCP_vector<loadout_entry> ship_choices
weaponry_pool / weaponry_count / weaponry_pool_variable /
weaponry_amount_variable
-> SCP_vector<loadout_entry> weapon_choices
bool weapon_required[MAX_WEAPON_TYPES]
-> SCP_set<int> required_weapons
where loadout_entry is {class_index, count, class_variable, count_variable}, with empty variable strings meaning the value was given literally. num_ship_choices / num_weapon_choices become .size().
Intentional behavior fixes, all previously latent memory errors or
data bugs:
* is_ship_assignable stored an alt ship CLASS in a variable used as a
loadout list INDEX when default_to_this_class was false, then
swapped to ship_list[class] - garbage for any mission where the two
domains diverge. It now swaps to the alt class itself, per the
evident intent.
* The default-ship fallback read ship_list[0] even when a team had
zero ship choices; it now leaves default_ship at -1, and
ss_fixup_team_data guards its append of the default ship accordingly.
* FRED2's dumpstats indexed Ships[] with a ship class when printing
loadout entries; it now prints the entry's class or variable name
directly.
* Team parse now clears the previous mission's entries explicitly
rather than relying on overwrite-in-place.
This clears the largest remaining cluster of MAX_SHIP_CLASSES references on the way to lifting the ship class limit.
Co-Authored-By: Claude Opus 4.7 (1M context) <[email protected]>
Some code refactoring to allow mission titles to be strings of any length. Titles that are too long to actually display (based on string width) will be visibly truncated using `font::force_fit_string`, but the underlying title will not be affected. Multiplayer is still subject to the 31-character length limit, so titles sent over the network will still have characters truncated.
Also removes some redundant calls to `gr_get_string_size`, since `font::force_fit_string` returns the fitted string width.
FSO doesn't appear to use this any longer. And even when it was enabled the
requirements made it largely useless anyway. Removing to clean up cfile a
bit and so we don't have to keep maintaining it.
* base working version of unlimited debris types
* Proper FRED support
* make qtFRED handle asteroids properly
* fix qtFRED assertion
* further clean out MAX_RETAIL_DEBRIS_TYPES
* These should be sizes not POFs
* Move this to it's own method
* convert asteroid subtypes to a vector
* unlimit asteroid subtypes
* fix some global shadowing
* signed/unsigned mismatch
* Address feedback
* set-asteroid-field sexp
* errors
* scope
* set-debris-field sexp
* Clarify sexp documentation
* num_debris_sizes
* allow any order and activate display name feature
* unify naming scheme
* modular -ast.tbm
* styling
* decouple sexp parsing and asteroid field creation methods
* remove this
* fix merge oversights
* Remove this check
* reorder
* use scp_string instead
* spacing
* Only setup display name if it's empty
* Use define instead of magic numbers
* Ensure asteroid types get the correct spawn weight
* Warn if spawn weight is set for asteroid type
* typo
* Correctly handle asteroid split types
* iiiiiiiiiiiiiiiiiint
* address feedback
The codebase had quite a few instances of .size() being called and then checked to see if it was 0 or not (or less than 1, or greater-than-or-equal-to 1, which are basically equivalent), when .empty() could be called instead (negated or not, depending on what the original condition was).
This introduces a new mechanism for handling bit flags. Instead of using an int (or two, or three) to write bits into, this uses the std::bitset in a wrapper class that accepts an enum class as input. This means that certain classes of errors we've had a few of in the engine, where a coder used the wrong set of flags or checked them against the wrong variable (SF_STEALTH vs SIF_STEALTH, for example) can now be detected at a compiler level rather than not at all.