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Spawning (video games)
Spawning (video games)
Spawning (video games)
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Spawning in video games refers to the process by which entities, such as player characters, non-player characters, enemies or items, are generated and placed into the game world. Closely related concepts include respawning, which involves reintroducing an entity after it has been removed (e.g., after a character's death) and despawning, the process by which an entity is removed from the game world, either automatically (e.g., after a set time) or in response to player actions.

Player characters typically spawn at the start of a round or match. In contrast, certain objects or mobs may spawn in response to specific events or after a predetermined delay. When a player character respawns, they usually reappear at an earlier point of the level and may incur a penalty, such as a loss of resources or score.[1]

Spawn points

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Spawn points are areas in a level where players spawn. In levels designed for team play, these points are usually grouped so that each team spawns in their own tight area of the level. Spawn points are typically reserved for one team at any time and often have the ability to change hands to the other team. Some games even allow spawn points to be created by players; using a beacon for example in Battlefield 2142. "Odd" spawn points cause the player to be spawned as if actively entering the game world, rather than merely appearing there.

Regarding player-created spawn points, the game Enemy Territory: Quake Wars allows players utilizing the Strogg Technician class (Strogg team version of GDF Medic class) to create "spawn hosts" out of the bodies of fallen GDF enemies. Any player on the Strogg team can use any unused spawn host and the player – upon death – can use it to spawn closer to the objective or in a tactical location, being effective tools for defending a location or advancing the front line. The spawn host disappears after the Strogg player respawns at its location, so the spawn host can only be used once. Conversely, players utilizing the GDF Medic class can disable and remove Strogg player-created spawn hosts by zapping them with their defibrillator pads.

Spawn camping is a practice where a player waits near precise spawn points to kill enemies as they spawn. This is usually considered to be poor sportsmanship and some players even perceive it to be exploitative of the game itself. Most team-based games have some kind of protection against spawn camping, such as a one-way door that only allows players to leave the spawn area, permanent AI defences or perhaps a timer which kills enemies if they spend too long around the spawn area. Games with capturable spawn points will often leave some spawn points without this sort of camping protection. Spawn points for game objects are often abused in a similar fashion in game types such as role-playing games.

Enemy respawning

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In some games, enemies may be respawned (or, equivalently, new ones spawned) to keep players on their toes and create tension, or force players to move on, making it too costly (in resources) and/or too dangerous to stay in one place for too long. Enemies may visibly spawn or, in games that emphasize realism, spawn outside the player's line of sight and move towards the player. Early games including monster respawning are Joust, Doom and its sequel Doom II: Hell on Earth. The enemies in these games had the ability to spawn from their teammates.

In MMORPGs, it is typical for monsters or mobs of monsters to continually respawn to allow all players a chance to fight. Some of these games implement instances, which create a temporary copy of the game world and its characters, reserved for a subset of players; this allows each subset the chance to experience that part of the game without any interference from uninvited guests.[2]

Player-requested entities

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In some games a player who has access to debugging or administrative tools can spawn entities or pickups with said tools.

See also

[edit]

References

[edit]
Revisions and contributorsEdit on WikipediaRead on Wikipedia

Spawning (video games)

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In video games, spawning refers to the process by which game entities—such as player characters, non-player characters (NPCs), items, vehicles, or enemies—are dynamically created or instantiated within the game world, often at designated locations called spawn points. This mechanic is fundamental to progression, enabling initial player entry, respawning after death, and the generation of interactive elements to maintain challenge and engagement. Spawning can be categorized into several types, including initial spawning, where players or entities appear at the start of a match or level (e.g., parachuting from a in battle royale games); respawning, which recreates eliminated players at safe or strategic points to allow continued participation, often with penalties like resource loss; and procedural spawning for NPCs or items, which may occur cyclically or in response to triggers to populate the environment dynamically. In multiplayer contexts, particularly first-person shooters (FPS), spawn points are critical for balancing matches by ensuring fairness and reducing exploits like spawn camping, where players ambush newly spawned opponents. Effective spawning design principles emphasize safety, uniformity, and strategic placement to enhance player experience; for instance, spawn points should be located in low-visibility areas with multiple exits to protect vulnerable players while promoting fluid gameplay. Poorly implemented spawning can lead to frustration, as seen in early FPS titles where uneven distribution favored one team, whereas modern engines like Unity and Unreal facilitate networked spawning for seamless multiplayer synchronization. Overall, spawning mechanics shape pacing, replayability, and immersion, evolving from simple respawn systems in 1990s games to sophisticated algorithms in contemporary titles.

Overview

Definition and Purpose

In video games, spawning refers to the runtime creation and placement of entities such as player characters, non-player characters (NPCs), enemies, items, or vehicles within the game world. This process is typically handled programmatically by game engines, where developers use functions like Instantiate() in Unity to generate GameObjects or in to instantiate actors dynamically at specified locations. Spawning encompasses both initial spawns, which occur at the start of a game session or level to establish the environment and participants, and ongoing spawns that introduce or replace entities during active play. The primary purposes of spawning are to sustain continuous by replenishing defeated enemies or depleted , to facilitate player re-entry following elimination, and to distribute items like loot for progression and strategy. For instance, in competitive modes such as deathmatch, respawning—a subset of spawning—allows eliminated players to immediately rejoin the action, preventing permanent removal and maintaining match momentum. Similarly, spawning ensures resource availability by periodically generating collectibles, which supports and economy systems without manual intervention. Spawning significantly influences by shaping pacing, scaling difficulty, and managing player engagement, as strategic entity placement can accelerate tension during sequences or provide breathing room in quieter moments. Poorly designed spawning can lead to frustration, such as "spawn camping," where players exploit predictable respawn locations to repeatedly eliminate opponents before they can act, disrupting balance and immersion. Designers often mitigate these issues by tying spawns to designated points that promote fair play and dynamic flow.

Historical Development

The earliest implementations of spawning mechanics appeared in arcade games of the 1970s and early 1980s, where they served basic purposes for gameplay continuity amid hardware constraints. In (1972), developed by , the ball resets to the center of the screen after scoring a point, initiating a new serve toward one player or the other to maintain flow in this simple two-player simulation of . This rudimentary respawn mechanism exemplified fixed, predictable entity regeneration in early titles. By 1980, by introduced more structured enemy spawning, with ghosts initially positioned in the maze or ghost house and respawning there after being eaten by an energized , creating rhythmic tension in the maze-chase format while adhering to 8-bit limitations that favored hardcoded positions. The PC era of the 1990s marked advancements in spawning for first-person shooters (FPS), shifting toward dynamic enemy placement to enhance replayability and intensity, influenced by improving hardware like the 486 processors. Doom (1993), from , innovated with optional monster respawning on the "Nightmare!" difficulty or via command-line parameters, where defeated enemies regenerate at their original locations after a randomized delay averaging around 50 seconds, allowing for endless combat waves that tested player endurance. This built on fixed spawns but added variability, setting a precedent for FPS design. Quake (1996), also by , refined and popularized automatic respawning in networked multiplayer modes, particularly in deathmatch and play, where players re-enter at start points after death—losing a score point in co-op—facilitating continuous online sessions without reloads, a key evolution for networked gaming. Modern developments from the 2010s onward integrated spawning with in open-world and multiplayer titles, leveraging powerful engines to create vast, dynamic environments. (2011), developed by Mojang, employs procedural world generation tied to seeds, where mobs spawn in packs during chunk loading based on biomes, light levels (e.g., hostile mobs at block light level 0), and caps (e.g., 70 monsters per world), ensuring emergent ecosystems across infinite terrains. Similarly, (2016) by uses L-systems and bio-mathematical algorithms for procedural spawning of creatures and resources, generating consistent yet varied lifeforms from templates adjusted for biomes, which populate 18 quintillion planets on-the-fly. In multiplayer contexts, Fortnite's Battle Royale mode (introduced 2017) by features players spawning on a pre-match island before parachuting into the map, with the addition of Reboot Vans in 2019 for duos/squads allowing downed teammates to return, emphasizing strategic entry points in 100-player lobbies. In the 2020s, spawning mechanics have further evolved with the integration of and generative AI, enabling more adaptive and responsive creation. For example, advancements in AI allow for dynamic NPC spawning that adjusts to player behavior and environmental changes, as seen in modern titles incorporating procedural content generation with learned models to enhance immersion and reduce predictability as of 2025. Technological shifts have transitioned spawning from 8-bit hardcoded rules to AI-driven and procedural systems, reducing predictability while incorporating anti-frustration elements in AAA titles around the to balance challenge and accessibility. Early arcade spawns relied on static scripts, but by the , procedural content generation (PCG) in games like those above enabled dynamic enemy and item placement adapting to player progress, with AI evolving from rule-based behaviors to for responsive NPC generation. This progression, seen in updates to titles like , prioritizes seamless immersion over rigid designs, influencing contemporary open-world and battle royale genres.

Core Mechanics

Spawn Points

Spawn points refer to predefined or algorithmically determined coordinates within a game world where entities, such as players, enemies, or items, are initially instantiated upon entering a level or match. These locations serve as the starting positions for gameplay, ensuring entities appear in appropriate areas to initiate interactions without disrupting the overall map flow. Spawn points can be categorized into several types based on their placement and selection method. Fixed spawn points are stationary locations tied to specific map features, such as team bases in multiplayer shooters; for instance, in , these are defined by entities like info_player_teamspawn, which designate secure areas for each team to prevent immediate crossfire exposure. Random spawn points within designated zones allow for variability, as seen in battle royale games like , where players parachute to player-selected or randomized drop locations across a broad playable area to encourage diverse starting strategies. Additionally, safe zone spawns position entities in protected areas to avoid instant elimination, often incorporating barriers or temporary invulnerability to give new instances time to orient themselves. Design principles for spawn points emphasize balancing accessibility—placing them near key gameplay elements for quick engagement—with challenge, ensuring they do not create unfair advantages or vulnerabilities. Algorithms for selecting spawn points commonly incorporate distance-based avoidance to promote fairness; in Halo (2001), for example, the system evaluates potential sites using spherical influence zones around existing players, blocking spawns within a minimum distance (starting at 5 world units) to reduce the risk of immediate confrontations. This approach helps maintain competitive integrity in arena-style maps, where spawn points are strategically scattered to support fluid movement and tactical positioning. A persistent design challenge with spawn points is "spawn killing," where players exploit predictable locations to repeatedly eliminate newly instantiated entities, leading to frustration and unbalanced matches. Mitigations often include delay timers or brief invincibility periods post-spawn, allowing entities a short window—typically 1-3 seconds—to move away from vulnerable spots without being targeted. In Halo's multiplayer arenas, such protections combined with intelligent point distribution help counteract this issue by dynamically shifting available spawns away from high-threat areas. In implementation, spawn points play a central role in level design workflows, where developers manually place them using specialized tools. For Source engine games, the editor enables precise positioning of spawn entities during map creation, ensuring they align with the level's geometry and flow before compilation and testing. These points are frequently reused for subsequent instantiations, such as respawning after elimination.

Respawning Systems

Respawning refers to the process in video games where entities, such as players or objects, are automatically or conditionally reintroduced into the game world following their removal due to , destruction, or other elimination events. This mechanic typically involves a wait period to re-enter , often ranging from 5 to 30 seconds in (FPS) games. These systems are designed to maintain game flow while imposing consequences for failure, with respawn locations commonly tied to predefined spawn points for consistency. Variations in respawning systems include instant re-entry, which minimizes downtime but can reduce tension, versus delayed respawns that incorporate timers or conditions to heighten challenge and player investment. Permanent respawning allows unlimited returns, supporting prolonged sessions in multiplayer environments, while limited-life systems, such as arcade-style extra lives, cap re-entries to enforce scarcity and elevate stakes—once lives are exhausted, the game ends or penalizes the player severely. For instance, in ' games like , respawning may require teammate intervention with a limited activation item rather than automatic revival, blending cooperation with . Balancing factors in respawning design often involve adjustable timers tailored to game modes, with shorter delays in casual play to promote accessibility and longer ones in competitive scenarios to emphasize skill and positioning. Studies show that delayed respawns, such as checkpoint-based returns, can lower players' sense of autonomy and curiosity compared to more player-controlled options, yet they enhance immersion and mastery for challenge-oriented individuals by correlating fewer deaths with positive experiences. In Call of Duty: Warzone, respawns occur after a set delay that can be shortened via self-revive kits, adapting to battle royale dynamics while reducing overall downtime to keep matches engaging. Technically, in multiplayer settings, respawning is handled server-side to ensure across clients, where the server authorizes the event, assigns a location, and broadcasts updates to prevent desynchronization or cheating. This approach, common in FPS titles, maintains authoritative control; for example, in modes with wave-based respawns like those in early expansions, the server manages reinforcement waves to batch re-entries and balance team populations. Such systems minimize player frustration by curbing excessive downtime, though they have sparked controversies in competitive play, where "respawn traps"—predictable re-entry points exploited by opponents—lead to unbalanced matches and calls for improved or protection timers.

Entity-Specific Spawning

Player Spawning

Player spawning refers to the governing how a player's character enters or re-enters the game world, typically designed to ensure and balance. Initial player spawns occur at predetermined starting positions upon game launch, often in safe, controlled areas that introduce core through tutorials or low-risk environments. These locations minimize early frustration by placing players away from immediate threats, allowing time to familiarize themselves with controls and objectives. For instance, in many single-player adventures, the initial spawn is a protected village or hub that serves as a . Respawn options vary by game mode, providing mechanisms to return players to the action after death while preserving progress. In single-player games, checkpoints tied to save points are common, where players respawn at the last activated location, such as the dungeon entrance in titles like The Legend of Zelda series, reducing the need to replay entire sections. This approach balances challenge with player retention by limiting setback distance. In contrast, multiplayer titles like (2016) employ fixed respawn timers of 12 seconds by default, with players returning to team-specific spawn rooms that are strategically distant from objectives to encourage coordinated pushes. Multiplayer environments introduce team-based spawning to promote fairness and strategy. In MOBAs such as (2009), players initially spawn and respawn at their team's base fountain, a fortified area behind defensive lines that facilitates regrouping and prevents instant objective rushes. Spectator modes often allow viewing the match before spawning, aiding new players in assessing the situation without disrupting balance. These systems ensure equitable entry points across teams. Customization enhances player agency during spawning, with options like selection occurring pre-spawn to tailor equipment. Games such as : III enable premade or custom loadouts chosen before matches, optimizing for playstyles while maintaining competitive equity through standardized access. Fairness algorithms further refine this by dynamically selecting spawn locations to avoid proximity to enemies, using distance calculations to prevent ambushes and promote balanced engagements in dynamic multiplayer scenarios. Genre-specific implementations highlight spawning's adaptability. Platformers often reset players to the level start upon , emphasizing precise retries without checkpoints to heighten tension, as seen in classic 2D titles where falls restart the stage to reinforce mastery of jumps and patterns. games like (2011), however, allow bed-based respawns, where sleeping sets a personal anchor point for revival, integrating resource management with safe re-entry in open worlds. These variations align spawning with genre goals, from quick restarts in action-oriented play to persistent progression in exploratory experiences.

Enemy and NPC Spawning

Enemy and NPC spawning refers to the generation of non-player entities designed to create opposition, facilitate interactions, or enhance world immersion in video games. These systems balance challenge, performance, and narrative needs by controlling when, where, and how many entities appear, often integrating with broader AI frameworks to ensure responsive . Enemy spawning commonly employs wave-based , where groups of foes are released in structured sequences to build tension and allow players brief respites. In (2008), the AI Director dynamically manages waves of zombies and special infected, adjusting spawn timing and intensity based on player proximity, stress levels, and cooperation—such as increasing horde aggression for slow or isolated teams during peak tension phases. Alternatively, density-based approaches maintain a target number of active enemies to sustain pressure without overwhelming hardware resources; this method scales dynamically with player progress by ramping up spawn rates as difficulty increases. For instance, in survival shooters like (2019), spawn rates escalate over time to reflect rising difficulty, multiplying enemy numbers and strength to heighten urgency. NPC spawning focuses on friendly or neutral characters that populate environments and drive quests, often triggered by player actions or events rather than constant aggression. In (2011), villagers and other civilians are generated via the system, which schedules their behaviors and spawns them in settlements to respond to quests or daily routines, ensuring organic world feel without manual placement for every instance. To manage performance and balance, developers implement population caps limiting total active entities, preventing overcrowding in open worlds or during intense encounters. Spawn rates are adjusted for difficulty scaling, such as increasing frequency on higher settings to amplify threats without altering individual enemy stats. Spawning integrates with AI systems like behavior trees, which dictate entity actions post-generation, including ambush tactics in stealth games. In titles like Metal Gear Solid (1998), enemies use state-based AI to coordinate ambushes from predefined points, enhancing tactical depth by tying spawn locations to behavioral patterns. Examples include horde modes in Gears of War (2006), where waves of Locust enemies spawn relentlessly from fixed points to test defensive setups, and dynamic placement in roguelikes like Dead Cells (2018), where foes emerge procedurally in levels to create unpredictable challenges.

Item and Resource Spawning

Item and resource spawning encompasses the algorithmic generation of collectible objects in video games, including consumables such as health packs that restore player health, weapons for equipping during , and raw resources like ores for crafting systems. These elements are essential for supporting player progression, simulation, and environmental interaction without involving sentient entities. In (2011), resources manifest as fixed veins of ore blocks embedded in the underground layers, with each procedurally generated world assigning one variant per tier—such as or Tin for the lowest tier—ensuring predictable yet varied distribution across playthroughs. Spawning types distinguish between fixed placements, like static crates at designated map coordinates, and probabilistic random drops from environmental events or interactions. The Diablo series exemplifies random drop mechanics through structured loot tables, where bosses yield items from general and specific pools, incorporating rarity tiers from common to mythic uniques with adjusted probabilities to scale with game difficulty and player level. Core mechanics frequently incorporate timed refreshes to regulate availability and encourage exploration. In survival titles like (2013), resource nodes such as ore deposits fully respawn only after complete depletion, with timers dynamically adjusted based on server population to balance scarcity and abundance. Drop rates integrate with rarity systems, where lower-probability outcomes for high-value items—such as Diablo's unique affixes on legendaries—create tension between risk and reward, often calibrated to maintain engagement without overwhelming players. Balancing these systems emphasizes anti-farming measures, including respawn cooldowns that limit repetitive collection from the same location, thereby promoting broader map traversal. Loot distributions employ fixed collation formulas to guarantee representation across rarity tiers, mitigating exploitable randomness and ensuring equitable progression costs. Integration with destruction mechanics further enhances dynamism; for example, in , the act of shattering Demon or Altars scatters new Hardmode veins across the world, tying resource generation to player actions. In MMOs such as World of Warcraft (2004), rare item spawns play a pivotal economic role by feeding player-driven markets, where drops from infrequent mob encounters—such as Bind on Equip world drops—are auctioned for in-game currency, with values fluctuating based on supply scarcity and demand from crafting or gearing needs. Representative examples highlight these principles: the Diablo series' loot tables, which assign boss-specific uniques alongside general rarities to facilitate targeted yet uncertain farming, and Rust's environmental resources, where node respawns support iterative survival loops in crafting weapons, tools, and structures from gathered materials.

Advanced and Special Cases

Player-Requested Entities

Player-requested entities refer to game objects, characters, or assets that are instantiated directly through player-initiated actions, such as commands, abilities, or interactions, rather than automated systems. These mechanics empower players to dynamically alter the game environment, often for strategic, creative, or exploratory purposes, and have become integral to genres like MMORPGs, sandbox games, and battle royales. Mechanisms for player-requested spawning typically involve in-game commands, activations, or interface interactions that trigger entity creation, often governed by cooldowns, resource expenditures, or prerequisites to maintain balance. For instance, in , the "/summon" command—available in vanilla and expanded through mods—allows players to instantiate mobs, items, or structures at specified coordinates, requiring precise syntax like "/summon minecraft:pig ~ ~ ~" to define location and attributes. Similarly, resource-based systems, such as mana costs in RPGs, impose limitations; players in games like must accumulate mana or other currencies to summon entities, preventing spam and tying spawns to progression. Prominent examples illustrate the versatility of these systems across game types. In , players can summon hunter pets using abilities like "Call Pet," which instantly deploys a companion for assistance, with options for customization via talent trees; balance is maintained through talent limitations rather than long cooldowns. Vehicle spawning in (2013) enables players to request cars, planes, or boats through a mechanic menu or interaction points, often at a cost in in-game currency and subject to cooldowns to simulate realistic . Design considerations for player-requested spawning emphasize balance and fairness, particularly in multiplayer environments, where limits on entity counts or spawn rates prevent abuse and resource dominance. Developers implement caps on active to avoid overwhelming server performance or disrupting group dynamics, such as restrictions on simultaneous pets for hunters in raids. Multiplayer permissions further refine this, with systems like Minecraft's operator (op) status restricting commands to trusted users, ensuring collaborative play without unauthorized alterations. Integration of these mechanics often occurs through user interface elements, evolving from rudimentary cheat codes to seamless core features that enhance player agency. Hotkeys and radial menus facilitate quick access; for example, Fortnite Creative mode (introduced in 2018) allows players to spawn props, weapons, and devices via a customizable HUD, transforming spawning from a debug tool into a foundational creative mechanic. Recent advancements include the Unreal Editor for Fortnite (UEFN, introduced in 2023), which enables real-time collaborative spawning of complex assets using AI tools. This progression reflects a broader industry shift, where early console cheats like spawning items in (2000) paved the way for integrated systems in modern titles. Limitations of player-requested spawning include server strain from large-scale requests and measures to prevent griefing, which can degrade multiplayer experiences. In high-population servers, excessive entity spawns—such as summoning hundreds of mobs via commands—can cause lag or crashes, prompting developers to enforce performance-based entity density limits. Griefing prevention relies on tools like permission hierarchies and features; in GTA Online, anti-exploit filters automatically despawn illegitimate vehicles to maintain integrity.

Procedural and Dynamic Spawning

Procedural spawning employs algorithms to generate entities dynamically within game environments, often leveraging mathematical functions to create varied placements without predefined assets. A foundational technique involves noise functions, such as , which produce pseudo-random values for determining spawn locations based on coordinates, ensuring natural distribution across terrains. In (2016), this method populates procedurally generated planets with creatures and resources, using a voxel-based pipeline that progresses from terrain formation to entity simulation for seamless world integration. The process begins with a seed value—a numeric input that initializes the random number generator—guaranteeing reproducibility; identical seeds yield the same spawn configurations, facilitating shared experiences or in development. Dynamic spawning extends procedural methods by incorporating real-time adaptations to game state, player behavior, and environmental factors, fostering in open-world titles. For example, (2017) implements a dynamic enemy spawning system in its Solo Ops missions (introduced in 2024), which monitors player performance metrics like health and progress to adjust spawn timing, density, and locations unpredictably, akin to an AI director modulating difficulty on the fly. This approach prevents predictability and maintains engagement by scaling threats relative to player actions, such as increasing enemy waves near objectives. Key techniques in procedural and dynamic spawning include density mapping and event triggers. Density mapping assigns spawn probabilities via layered grids or heatmaps derived from game features like terrain slope or type, guiding placement to avoid clustering or barren areas. Event triggers, meanwhile, initiate spawns based on conditions such as time cycles or player proximity; in roguelites like those using hybrid procedural methods, these ensure varied enemy encounters per run by combining rule-based with for dungeon layouts and adversary positioning. Such systems promote replayability in genres emphasizing procedural variety, where seeds control overall level structure while triggers handle localized dynamics. Implementing these systems presents challenges, particularly in performance optimization and balancing randomness with fairness. To manage computational demands in large-scale worlds, developers employ culling mechanisms that deactivate or prevent spawning of distant entities outside the player's view frustum, reducing CPU load from unnecessary simulations. Debates arise over , as unchecked procedural outputs can lead to unfair spawns—such as clustered enemies disadvantaging players—necessitating constraints like minimum distances or validation algorithms to ensure equitable distributions without sacrificing variety. In modern titles post-2020, integrates with these techniques for AI-enhanced adaptive spawning, predicting player trajectories to preemptively adjust entity placement and difficulty. Surveys of adaptive highlight how ML models analyze in-game data to dynamically modify spawn rates, creating personalized experiences that evolve with player skill levels. This evolution addresses earlier limitations in procedural systems, enabling more responsive worlds in genres like and action RPGs.

References

  1. https://www.g2a.com/news/glossary/what-is-a-spawn-in-gaming/
  2. https://ieee-cog.org/2019/papers/paper_59.pdf
  3. https://docs.unity3d.com/Packages/[email protected]/manual/basics/object-spawning.html
  4. https://dev.epicgames.com/documentation/en-us/unreal-engine/spawning-and-destroying-unreal-engine-actors
  5. https://create.roblox.com/docs/tutorials/curriculums/gameplay-scripting/spawn-respawn
  6. https://www.g2a.com/news/glossary/what-does-respawn-mean-in-gaming/
  7. https://www.gamedeveloper.com/design/the-art-and-science-of-pacing-and-sequencing-combat-encounters
  8. https://engagedfamilygaming.com/videogames/video-game-definition-of-the-week-spawn-location-spawn-camping/
  9. https://gameinternals.com/understanding-pac-man-ghost-behavior
  10. https://doomwiki.org/wiki/Spawning
  11. https://quake.fandom.com/wiki/Game_Modes
  12. https://minecraft.fandom.com/wiki/Spawn
  13. https://nomanssky-archive.fandom.com/wiki/Procedural_generation
  14. https://fortnite.fandom.com/wiki/Rebooting
  15. https://programminginsider.com/gaming-in-the-age-of-ai-the-coming-revolution-in-npc-intelligence/
  16. https://medium.com/technology-buzz/the-evolution-of-ai-in-gaming-from-npcs-to-procedural-content-generation-2b8ac0d7db90
  17. https://developer.valvesoftware.com/wiki/Creating_Spawns
  18. https://www.gamedeveloper.com/design/level-design-lesson-10-spawn-perspectives
  19. https://developer.valvesoftware.com/wiki/Info_player_teamspawn
  20. https://www.pcgamer.com/games/battle-royale/fortnite-best-landing-spots-map/
  21. https://c20.reclaimers.net/h1/guides/multiplayer/player-spawns
  22. https://halo.fandom.com/wiki/Spawning
  23. https://www.gamedeveloper.com/programming/definitive-solution-to-spawn-camping-in-a-fps-game
  24. https://arenafps.com/spawn-protection-ut4/
  25. https://www.researchgate.net/publication/354020467_Die-r_Consequences_Player_Experience_and_the_Design_of_Failure_through_Respawning_Mechanics
  26. https://patents.google.com/patent/US11007439B1/en
  27. https://blog.activision.com/call-of-duty/2020/03/Free-to-Play-Call-of-Duty-Warzone-is-Live-and-Available-for-Everyone-to-Download-Now
  28. https://gaming.stackexchange.com/questions/10965/respawn-system-in-call-of-duty-united-offensive-cod-uo
  29. https://www.pcgamer.com/games/call-of-duty/black-ops-6-spawns-are-even-worse-than-usual/
  30. https://overwatch.blizzard.com/en-us/news/24122265/director-s-take-competitive-updates-for-season-12/
  31. https://www.leagueoflegends.com/en-us/how-to-play/
  32. https://www.callofduty.com/guides/multiplayer-pre-game/call-of-duty-modern-warfare-III-campaign-play-guides-weapons-loadouts
  33. https://www.researchgate.net/publication/4220435_Fairness_and_playability_in_online_multiplayer_games
  34. https://www.researchgate.net/publication/340458456_Death_and_Rebirth_in_Platformer_Games
  35. https://www.minecraft.net/en-us/article/spawning-and-dying
  36. https://modl.ai/the-ai-director-of-left-4-dead/
  37. https://riskofrain2.fandom.com/wiki/Difficulty
  38. https://www.gamesradar.com/games/the-elder-scrolls/skyrim-npcs-are-only-as-complex-as-they-are-thanks-to-a-literal-napkin-drawing-that-todd-howard-doodled-reveals-ex-bethesda-dev-its-actually-a-napkin-story/
  39. https://www.gamedeveloper.com/programming/the-definition-of-artificial-insanity-the-systemic-ai-of-far-cry
  40. https://www.gamedeveloper.com/design/how-i-diablo-i-meets-i-left-4-dead-i-in-co-op-action-rpg-i-killsquad-i-
  41. https://www.ign.com/articles/2016/09/19/getting-to-wave-50-in-gears-of-war-4s-horde-mode-is-brutally-hard
  42. https://gamerant.com/best-action-roguelikes-roguelites-dynamic-enemy-encounters/
  43. https://terraria.wiki.gg/wiki/Ores
  44. https://maxroll.gg/d4/resources/boss-loot-table-cheat-sheet
  45. https://rust.fandom.com/wiki/Nodes
  46. https://www.ign.com/wikis/diablo-4/Loot_Tiers_and_Rarity_Guide
  47. https://www.gamedeveloper.com/design/five-tips-for-making-better-loot-experiences-in-games
  48. https://www.wowhead.com/classic/guide/classic-auction-house-economy
  49. https://www.gdcvault.com/play/1024265/Continuous_World_Generation_in__No_Man_s_Sky_
  50. https://game-ace.com/blog/procedural-generation-in-games/
  51. https://www.bungie.net/7/en/News/article/solo_ops
  52. https://dl.acm.org/doi/10.1145/3402942.3402945
  53. https://docs.unity3d.com/2017.4/Documentation/Manual/OptimizingGraphicsPerformance.html
  54. https://gamedev.stackexchange.com/questions/146409/making-random-spawn-points-fair
  55. https://www.researchgate.net/publication/387242453_Adaptive_Game_Design_Using_Machine_Learning_Techniques_A_Survey
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