Ranged Combat¶

Real Projectile Physics¶

Every projectile is a real object. An arrow has mass, a shaft with flex properties, a head with geometry, and fletching that stabilizes rotation. A crossbow bolt is shorter, heavier, stiffer. Both are rigid bodies in flight, subject to gravity, air resistance, and wind.

No raycasts. No hitscan. No "range" stats. The arrow goes where physics takes it.

Bows¶

The Draw¶

Draw weight determines arrow velocity. A longer draw produces a faster arrow. The player controls draw length — partial draw for a quick low-power shot, full draw for maximum power.

The draw time is real. The player is pulling a physical string against a physical limb. Their draw time is their vulnerability window. No i-frames while drawing. Both hands are occupied. The player can be hit while drawing.

Draw While Moving¶

The footwork principle extends to ranged combat. The player can move while drawing. Movement affects aim:

• Standing still: Maximum accuracy. The bow is stable. The shot goes where the player aims.
• Walking: Moderate sway. The shot's accuracy degrades proportionally to movement speed.
• Running: Significant sway. The shot is imprecise. A running archer lands body shots, not headshots.
• Sprinting: Cannot draw. Both arms are occupied with locomotion.

The tradeoff is physics: a stationary archer is a target with maximum accuracy. A mobile archer is hard to hit with reduced accuracy. The player chooses — the choice has a real cost either way.

Trajectory¶

The arrow follows real ballistics. Gravity pulls it down. Air resistance slows it. The arrow drops over distance because physics — not because of a range stat.

• Close range: Nearly flat trajectory. Point and shoot. The arrow arrives before the target reacts.
• Medium range: Visible arc. The player aims above the target. The arc is intuitive because the physics is real — the player learns to read the drop naturally.
• Long range: High arc. The arrow is in flight for a long time. The target can move significantly during flight. Leading the target — aiming where they'll be — is the skill. Prediction, not precision.

Wind¶

If the game world has wind — and the merged world should — wind deflects arrows.

• Crosswind: Pushes the arrow laterally. The player compensates by aiming upwind.
• Headwind: Slows the arrow and increases drop. Reduced effective range.
• Tailwind: Accelerates the arrow and reduces drop. Extended range.

Weather is a combat variable for ranged fighters. Not as a random debuff — as physics.

Arrow Types¶

The arrowhead shape determines the arrow's behavior on contact. Not a damage type — geometry:

• Bodkin point: Narrow, concentrated force. Punches through armor. Maximum penetration, minimum tissue damage. The armor-piercing arrow.
• Broadhead: Wide cutting edges. Maximum tissue damage, minimum penetration through armor. The unarmored-target arrow.
• Blunt: No point. Impact force distributed across a wide area. Staggers, bruises, knocks down. Doesn't penetrate. The non-lethal arrow — relevant for restraint-focused players.

Arrow Persistence¶

Arrows persist after impact. An arrow in a wooden shield stays there — physically, adding mass, reducing the shield's maneuverability. An arrow in an enemy stays — a physical object affecting their movement and weight distribution. An arrow in a wall is a physical object other entities can collide with.

The player can see how many times they've hit a target by looking at the target. A shield bristling with arrows is a shield that's heavier and harder to use. The accumulation is physics.

The Bow as UI¶

No crosshair in the traditional sense. The player reads the trajectory from the arrow's position on the drawn bow — the arrow tip points where the arrow will go at the current draw weight. An experienced player reads the arc intuitively. A new player watches the arrow tip and learns. The bow IS the aiming interface.

Crossbows¶

Mechanical Difference¶

The crossbow stores energy mechanically. Higher projectile velocity than a bow at equivalent draw weight — the mechanical advantage of the lever/windlass system.

Reload¶

The reload is a physical action. The player cranks the string back. During reload, both hands are occupied. Maximum vulnerability. The crossbow trades fire rate for power per shot. The reload time is determined by the crossbow's draw weight — heavier crossbows hit harder and take longer to reload.

Pre-Loaded Readiness¶

Unlike a bow, a crossbow can be loaded and held indefinitely. The player walks into a room with a bolt ready. No draw time. Instant shot. Then a long reload.

The crossbow is the ambush weapon — first shot free, then vulnerable. The bow is the sustained weapon — consistent fire rate, never helpless, never idle.

Bolt Physics¶

Crossbow bolts are shorter, heavier, less affected by wind but drop faster. Different ballistic profile:

• Close range: Devastating. Higher velocity than an arrow. Maximum penetration.
• Medium range: The crossbow's optimal range. Flat enough trajectory for accuracy. Enough velocity for armor penetration.
• Long range: The bolt drops faster than an arrow. The bow has the range advantage. The crossbow has the power advantage at medium range.

Projectile Interaction¶

Blocking Arrows¶

Because arrows are real physics objects, real objects block them.

Shield: The arrow hits the shield surface based on physics — bounce (shallow angle), partial penetration (moderate angle against softer material), or stick (direct hit against wood or lighter material). A shield raised in the right direction blocks. A shield not covering the arrow's path doesn't. Directional blocking applies to ranged attacks the same way it applies to melee.

Weapon: A weapon can deflect an arrow. The difficulty scales with weapon size — a greatsword swept through an arrow's path is a large interception surface. A dagger timed to intercept is near-impossible. But if the weapon contacts the arrow, deflection occurs. The arrow's new trajectory is determined by the angle of contact.

Deflecting an arrow back at the archer. The highest skill expression in ranged defense. The weapon contacts the arrow at an angle that redirects it toward its source. Requires reading the arrow's trajectory, positioning the weapon in its path, and angling the deflection toward the archer — simultaneously. Pure spatial intelligence.

Catching an Arrow¶

The ultimate test. The player reaches into the arrow's path and closes their hand at the right moment. Pure physics. Pure timing. The player is now holding the enemy's arrow. They can throw it. Use it as a stabbing weapon at grapple range. Nock it on their own bow.

This is not a scripted mechanic. It's an emergent consequence of real physics — the player's hand is a real object, the arrow is a real object, and if the hand intercepts the arrow with the right timing and grip, the arrow is caught. The engine doesn't need special code for this. The physics handles it.

Dodging Arrows¶

The arrow is real. The player sees it coming — the archer's draw, the release, the arrow in flight. Time of flight depends on distance:

• Close range: Minimal reaction time. The player must pre-read the archer's aim and move before release.
• Medium range: Visible in flight. The player has a fraction of a second to sidestep.
• Long range: Visible for a long time but harder to see at distance. The player has more time but less information about exact trajectory.

The evasion is the same footwork used in melee — sidestep, duck, backstep. But the timing is read from the archer's body, not the arrow's flight. You dodge the shot before the arrow arrives by reading the shooter.

Multiple Archers¶

Several arrows in flight simultaneously from different angles. The player reads trajectories and finds the gap — the position in space where no arrow path intersects their body. Spatial reasoning at maximum.

The player who can fight a swordsman while dodging arrows from two archers is operating at the highest level of the system — reading melee range and ranged threats simultaneously, using footwork that solves both problems at once.

Ranged-to-Melee Transition¶

The range brackets aren't modes — they're distances. The transition between ranged and melee combat is footwork.

An archer being rushed closes their bow and draws a sidearm — or uses the bow itself as a staff weapon. The transition is physical — the player changes weapons, which takes time (the weapon has mass, must be slung or dropped), during which they're vulnerable.

A melee fighter closing on an archer must cross the kill zone — the distance where the archer has clear shots and the melee fighter has no response. Cover, lateral movement, and closing speed determine survival. The footwork that closes this gap IS the skill test.

The player who uses ranged and melee in the same fight — opening with arrows, closing to melee, disengaging to arrow range when overwhelmed — is using the full range bracket system. The transitions are where the danger lives. Every weapon swap is a vulnerability.

Relationship to Absorption¶

The ranged player who keeps distance absorbs nobody. Absorption requires grapple range. Every arrow that kills from afar is a being the player chose not to absorb — chosen distance instead of chosen proximity.

The consent tracker records this. A fight that ends at arrow range is a fight where the player never closed to personal distance. The killing was impersonal. Whether that's mercy (sparing the being the intimacy of absorption) or cowardice (avoiding the weight of full understanding) is the player's question.

A player who uses ranged combat exclusively throughout the game arrives at the Throne with fewer absorbed perspectives, less forced empathy, less complete information. Their endings carry different weight — made with less understanding, but also less blood. The ranged player's pilgrimage is the distant pilgrimage. The observer. The God who watched more than participated.

The game never says which is correct.