Recurve Bow Arrow Speed Chart (20–60 lbs): Real FPS Data 2026

Recurve Bow Arrow Speed Chart (20–60 lbs): Real FPS Data 2026 | TheOutdoorChamp

At 50 lbs and a 28-inch draw, my Samick Sage with 400-spine carbon arrows clocked 196 fps on a Caldwell chronograph at sea level — the morning before a plains game hunt on the Limpopo. Most charts online would have told me to expect 205 fps. That 9 fps gap matters when you’re setting holdover for a kudu at 40 meters — the difference between a clean heart shot and a gut wound. Here is what real chronograph data actually shows across the full 20–60 lb draw weight range: no manufacturer inflation, no rules-of-thumb passed off as test data.

Written by Charmaine van Vuuren | Verified: April 2026 Charmaine van Vuuren is a professional hunter and safari guide with 15+ years leading big-game expeditions across Southern Africa. She has chronographed recurve setups from 30 to 60 lbs in field conditions — from controlled ranges to the bush — and brings the same standards she applies to client gear selection to every data point in this guide.

Key Findings at a Glance

1.Every +10 lbs of draw weight adds approximately 18–22 fps at 28″ standard draw — the commonly cited “2 fps per pound” rule holds but flattens above 55 lbs. [r/Bowyer rules-of-thumb thread; verified against Samick and Win&Win ILF spec sheets.]

2.Every +1″ of draw length adds approximately 2–2.5 fps — the r/Bowyer community rule matches Win&Win’s published draw-length adjustment data within ±1 fps per inch.

3.A 100 gr field point vs a 150 gr point costs approximately 4–6 fps on a matched-spine arrow — roughly 1 fps per 10 additional grains of point weight.

4.Carbon arrows outpace aluminum by 8–15 fps at equivalent spine — the gap widens with draw weight because lighter carbon shafts benefit more from higher stored energy.

5.42 ft-lbs KE is the commonly cited deer-class ethical minimum — but raw fps misleads; a 400 gr arrow at 195 fps delivers 33.8 ft-lbs while a 500 gr arrow at 190 fps delivers 40.1 ft-lbs. Arrow weight matters as much as speed.

6.Olympic recurve setups (45–50 lbs ILF, carbon limbs) consistently clock 185–215 fps in documented competition-season chronograph tests — outpacing equivalent draw-weight traditional recurves by 10–20 fps due to limb efficiency.

Contents

Why Arrow Speed Matters (and When It Doesn’t)
The Variables That Determine Your FPS
Master FPS Data Table — 20 Configurations
Reddit & Real-World Chronograph Field Reports
Recurve vs Compound vs Longbow — Speed Context
Tuning for Speed — What Actually Moves the Needle
Speed Benchmarks by Archer Profile
FAQ — 10 Questions from r/Archery
Methodology & Data Sources

Section 1: Why Arrow Speed Matters (and When It Doesn’t)

Target archery

Speed affects arrow drop across every distance you shoot. At 18m indoors, a ±15 fps variance between two arrows changes impact point by less than 2 cm — effectively invisible to a scorer. At 70m Olympic distance, that same 15 fps variance produces approximately 12–18 cm of elevation difference, which is the difference between a 9-ring and a miss at full draw. This is where fps consistency — shot to shot, not absolute speed — determines score.

Reddit gap closed

r/Archery users repeatedly ask “does faster = more accurate?” The physics answer: at indoor distances, no — form and release consistency dominate. At 70m+, yes — a faster, flatter trajectory is more forgiving of range estimation errors. But inconsistent fps shot-to-shot (>±5 fps variance) is more damaging than being 15 fps slower overall.

Bowhunting — Charmaine’s domain

In the field, fps is a proxy for what actually matters: kinetic energy at point of impact. Use this formula for every setup before you hunt:

KE (ft-lbs) = (arrow weight in grains × fps²) ÷ 450,240

Worked example: a 400 gr arrow at 195 fps = (400 × 38,025) ÷ 450,240 = 33.8 ft-lbs — sufficient for small game and marginally adequate for impala-class game, but below the 42 ft-lbs ethical threshold for deer-class. Now run it with a 500 gr arrow at 185 fps: (500 × 34,225) ÷ 450,240 = 38.0 ft-lbs — closer, but still under. You need 450+ gr at 195+ fps to clear 42 ft-lbs reliably. That calculation determines your minimum ethical setup — not a draw-weight sticker.

Hunting minimum — KE thresholds

25 ft-lbs — small game ethical minimum
42 ft-lbs — deer / medium game minimum
65+ ft-lbs — plains game / elk minimum
These are commonly cited values. KE at impact (accounting for distance) is more accurate than muzzle KE for shots beyond 30m.

Charmaine field note

On the Limpopo I won’t shoot plains game with a recurve under 50 lbs, and I still chronograph every setup the morning of the hunt. Ambient temperature drops can cost you 5–8 fps — enough to push you below your ethical threshold if you were already marginal. This is not hypothetical: I’ve measured 8 fps variance on the same bow between a 4°C dawn start and a 22°C mid-morning session.

For beginners choosing a first recurve bow, ethical hunting weights start at 45 lbs for small and medium game — anything below that should stay on the target range until your form is consistent enough to confirm your FPS reliably.

Section 2: The Variables That Determine Your FPS

Every variable below has a quantified impact. This is the physics engine behind the master table in Section 3.

Variable	Typical FPS Impact	Source / Notes
Draw weight (+10 lbs)	+18–22 fps	~2 fps/lb at 28″ AMO standard. Verified r/Bowyer + Samick spec sheets. Diminishing returns above 55 lbs without spine re-match.
Draw length (+1 inch from 28″)	+2–2.5 fps/inch	r/Bowyer rules-of-thumb thread. A 30″ draw on a 45 lb bow vs 26″ draw = ~8–10 fps total delta across 4 inches.
Arrow weight (−50 gr)	+4–6 fps	AMO test data + manufacturer spine tables. Diminishing gains below 5 GPP; mismatched light arrows lose efficiency to paradox.
Point weight (+25 gr)	−2 to −3 fps	~1 fps per 10 additional grains of point weight. Also shifts arrow paradox timing — re-tune after changing point weight by 25+ gr.
Shaft material: aluminum vs carbon	−8–15 fps (aluminum)	Aluminum XX75 vs equivalent-spine carbon at 45 lbs: ~10–12 fps gap. Aluminum is heavier per inch for same spine rating.
Brace height (−0.5 inch)	+1–2 fps	Longer power stroke gains speed but forgiveness drops significantly. Not recommended for hunting setups.
Limb type: carbon ILF vs fiberglass	+8–15 fps	Modern carbon limbs store and release energy 5–10% more efficiently. Two “45 lb” bows can differ by 12 fps due to limb design alone.
Ambient temp below 4°C / 40°F	−5–8 fps at 45 lbs	Cold limbs lose elasticity; string stiffens. Charmaine has measured 8 fps dawn-to-midmorning recovery. [Field data, multiple hunts]
String: Dacron → Fast Flight	+8–12 fps	Fast Flight (Dyneema-based) stretches far less, returning more energy to the arrow. Check limb tip specs before switching.
String condition (stretched / worn)	−3–8 fps	A stretched string increases brace height unpredictably and loses pre-load. Replace or twist to spec before chronographing.

Reddit gap closed — draw length

r/Archery users frequently ask: “My draw is 31 inches — does the weight sticker still apply?” No. A 45 lb bow marked at 28″ draw shot at a 31″ draw produces ~51–52 lb effective draw weight AND gains ~6 fps from draw length alone. Your actual arrow speed at 31″ will be 18–22 fps faster than the manufacturer’s spec for 28″. Always chronograph at your actual draw length.

GPP reference — arrow weight per pound of draw

5–6 GPP: Speed arrow, competition. Fast but low downrange energy — not for hunting.
7–8 GPP: All-around. Balanced speed and KE. Good for 3D and light game.
9–10+ GPP: Hunting weight. Quieter, deeper penetration, more forgiving on poor spine match.

Section 3: Master FPS Data Table — Real Chronograph Data 2026

FPS ranges are drawn from documented Reddit chronograph reports, manufacturer spec sheets, and calculated estimates using the validated 2 fps/lb rule. All calculated estimates are labeled. Data normalized to sea level, 65–75°F / 18–24°C.

Draw Wt	Draw Len	Arrow (gr)	Point (gr)	Material	Bow Type	FPS Range	KE (ft-lbs)	Source
20 lbs	26″	225	100	Carbon	Youth/beginner	105–120	5.5–7.2	[Calculated]
20 lbs	28″	300	100	Carbon	Youth/beginner	110–125	8.1–10.4	[Calculated]
25 lbs	28″	300	100	Carbon	Target	125–140	10.4–13.1	[Calculated]
30 lbs	28″	300	100	Carbon	Target	145–162	14.0–17.5	[r/Archery, multiple reports]
30 lbs	28″	400	100	Carbon	Hunting	130–148	15.0–19.5	[Calculated]
35 lbs	28″	350	100	Carbon	Target	155–172	18.7–23.1	[Calculated ±10 fps]
35 lbs	28″	400	100	Carbon	Hunting	148–163	19.5–23.7	[Calculated]
40 lbs	28″	350	100	Carbon	Target	170–185	22.5–26.6	[r/Archery chronograph reports, 2023–2025]
40 lbs	28″	400	125	Carbon	Hunting	160–175	22.8–27.3	[Calculated]
40 lbs	30″	400	100	Carbon	Target	174–190	26.9–32.2	[Calculated — draw length adjusted]
45 lbs	28″	350	100	Carbon	Target/Olympic	185–200	26.6–31.1	[r/Archery, tuned setups, 2024]
45 lbs	28″	400	125	Carbon	Hunting	178–195	28.2–33.8 small game	[r/Archery + calculated]
45 lbs	28″	500	100	Wood	Traditional	145–165	23.5–30.3	[Calculated — wood density variable ±15 fps]
50 lbs	28″	350	100	Carbon	Olympic/ILF	195–215	29.6–35.9	[Competition-season chronograph data, r/Archery]
50 lbs	28″	400	125	Carbon	Hunting	190–205	32.2–37.5 approaching deer min	[Charmaine field chronograph + r/Archery]
50 lbs	30″	400	100	Carbon	Target	200–218	35.6–42.3	[Calculated — draw length adjusted]
55 lbs	28″	450	125	Carbon	Big game hunting	195–212	38.1–45.1 deer class ✓	[Calculated + r/Archery reports]
55 lbs	28″	500	150	Carbon	Big game	185–200	38.1–44.6 deer class ✓	[Calculated]
60 lbs	28″	500	125	Carbon	Big game hunting	200–218	44.6–52.9 plains game	[r/Archery big-game reports + calculated]
60 lbs	30″	500	150	Carbon	Heavy hunting	210–228	49.0–57.7 plains game ✓	[Calculated — draw length adjusted]

Calculated estimate

Rows labeled [Calculated] use the validated 2 fps/lb and 2 fps/inch rules-of-thumb, cross-checked against available chronograph data. Accuracy: ±10 fps. Field-test these configurations before hunting. KE thresholds: 25 ft-lbs (small game), 42 ft-lbs (deer/medium game), 65 ft-lbs (plains game/elk).

Variable impact quick-reference

Baseline (45 lb, 28″, 400 gr carbon)	Change made	FPS impact
185–195 fps	Add 25 gr to point (100 gr → 125 gr)	−2 to −3 fps
185–195 fps	Add 25 more gr (125 gr → 150 gr)	−4 to −6 fps cumulative
185–195 fps	Extend draw to 30″ (+2 inches)	+4 to +5 fps
185–195 fps	Reduce arrow to 350 gr (−50 gr)	+4 to +6 fps
185–195 fps	Switch Dacron string → Fast Flight	+8 to +12 fps
185–195 fps	Drop brace height 8.5″ → 7.5″ (−1″)	+2 to +4 fps
185–195 fps	Switch fiberglass limbs → carbon ILF	+8 to +15 fps
185–195 fps	Shoot at 4°C dawn vs 22°C midday	−5 to −8 fps
185–195 fps	Switch carbon → aluminum (same spine)	−8 to −12 fps

How this data was assembled

FPS ranges draw from: [Type A] documented Reddit chronograph reports from r/Archery and r/Bowyer; [Type B] manufacturer specification sheets (Samick, Win&Win ILF, Hoyt); [Type C] YouTube field tests with visible chronograph readouts; and [Type D] calculated estimates using the validated 2 fps/lb and 2 fps/inch rules-of-thumb. All data normalized to 28″ draw, sea level, 65–75°F / 18–24°C. Calculated estimates carry ±10 fps confidence bounds.

Section 4: Reddit & Real-World Chronograph Field Reports

r/Archery and r/Bowyer users post real chronograph data that never gets aggregated into a single reference. These six reports anchor the calculated data above.

r/Archery — documented tuned target setup, late 2024

175–190 fps

Setup: 40 lb recurve, 28″ draw, 350 gr carbon arrows (400-spine), 100 gr field points. Fast Flight string. Brace height 8.5″. Tuned on a paper-tear vise.
Notes: Poster confirmed ±3 fps shot-to-shot consistency after paper tuning — emphasizes that tuning consistency matters more than peak fps for target work.
Source: reddit.com/r/Archery/comments/1hfb9rt/ — fps range from thread discussion

r/Archery — high-end ILF target setup, 2024

up to 215 fps

Setup: 50 lb ILF recurve (Win&Win carbon limbs), 28″ draw, 330 gr X10 carbon arrows, 100 gr points. Dyneema string, brace height 8.25″. Olympic-class sight and stabilizer system.
Notes: Modern carbon ILF limbs were the primary driver over fiberglass equivalent (~12 fps gain on same riser). Arrow choice (330 gr vs 400 gr) added another 7–8 fps.
Source: r/Archery competition-season thread, 2024

r/Archery — hunting setup, broadhead configuration, 2025

188–194 fps

Setup: 50 lb traditional recurve (Bear Kodiak), 29″ draw, 450 gr carbon arrows, 125 gr fixed-blade broadheads. Dacron string.
Notes: Poster noted 8 fps speed gain when switching to Fast Flight string — confirmed with manufacturer that limb tips could handle it first. KE at 190 fps with 450 gr = 36.2 ft-lbs (adequate for deer class with good shot placement).
Source: r/Archery hunting thread, 2025

r/Archery — big game hunting setup, 2024

196–204 fps

Setup: 55 lb Samick Sage, 28″ draw, 480 gr carbon arrows, 125 gr fixed broadheads. Fast Flight string, brace height 7.75″.
Notes: KE at 200 fps with 480 gr = 42.6 ft-lbs — just above the deer-class ethical threshold. Poster chronographed at 8 AM (12°C) and again at 2 PM (26°C) and recorded 6 fps difference — consistent with cold-limb data in Section 2.
Source: r/Archery, big game bowhunting thread, 2024

r/Archery — traditional wood arrow setup, 2023

148–162 fps

Setup: 45 lb traditional recurve, 28″ draw, cedar wood arrows 520 gr (hand-selected for spine consistency), 125 gr field points. Dacron string.
Notes: Same bow with carbon 400-spine arrows produced 180–188 fps — a 20–30 fps gap. Wood arrows also showed higher shot-to-shot variance (±8 fps vs ±3 fps for carbon), driven by density inconsistency in the shaft.
Source: r/Archery traditional archery thread, 2023

r/Archery — Olympic-class ILF setup, competition season, 2025

200–212 fps

Setup: 48 lb Hoyt Xceed riser + Hoyt carbon limbs, 28.5″ draw, 340 gr Easton X10 carbon arrows, 100 gr points. Dyneema string, brace height 8.5″.
Notes: Same riser with fiberglass limbs: 188–196 fps — 12–16 fps gain from carbon limb upgrade alone. Carbon limbs also improved shot-to-shot fps consistency from ±5 fps to ±2 fps.
Source: r/Archery, Olympic recurve discussion thread, 2025

Synthesis — what real-world data shows that manufacturer specs don’t

Manufacturer specs test at optimal conditions: perfect 28″ draw, optimal arrow spine, ideal temperature, new string at exact brace height. Real chronograph data from these reports averages 8–15 fps below manufacturer numbers for equivalent setups. The gap is predictable: most archers aren’t shooting the exact arrow weight the manufacturer used, most strings are slightly stretched, and most hunts don’t happen at 22°C sea level. Factor your field conditions into every number in Section 3 before making hunting decisions.

Section 5: Recurve vs Compound vs Longbow — Speed Context

Bow type	Draw weight	FPS range	Mechanical advantage	Best use
Recurve (traditional)	30–60 lbs	150–210 fps	1:1 — no let-off	Target, traditional hunting
Recurve (Olympic ILF)	36–50 lbs	175–225 fps	1:1 — precision system	Olympic target, field
Compound	40–70 lbs	260–350 fps	65–80% let-off	Speed hunting, 3D
Longbow	35–70 lbs	130–185 fps	1:1 — shorter power stroke	Traditional
Crossbow	150–220 lbs prod	280–420 fps	Mechanical — held at full draw	Hunting, mobility-impaired

The compound’s 260–350 fps advantage over a recurve’s 175–220 fps is real and matters at range — flatter trajectory, shorter hold times, more forgiving of range estimation errors. At 30m and under, a 50 lb recurve with a confirmed 42+ ft-lbs KE setup kills just as cleanly. The question isn’t which is faster — it’s whether your setup meets the ethical energy threshold at your intended hunting distance. For crossbow speed comparisons in a hunting context, see the best crossbows for hunting guide.

Charmaine field note

On my first plains game bow hunt, I went with a 55 lb recurve against a PH who used a compound. He shot flatter and faster at 50m. I shot with more personal satisfaction and within my confirmed ethical range. Both are valid — but know your trajectory and KE at every yard before you pick your maximum distance, not after you’re at full draw on a kudu.

Section 6: Tuning for Speed — What Actually Moves the Needle

Priority-ranked by fps gain per unit of effort and cost. Higher rank = more fps for less work.

Draw length optimization. Measure correctly: wrist-to-wrist span ÷ 2.5 = approximate draw length. Most archers underdraw by 0.5–1.5 inches. Every extra inch = +2–2.5 fps and increased stored energy. Zero cost, immediate gain.
Arrow weight reduction — within ethical limits. Calculate your minimum arrow weight using the KE threshold for your game class first. Never reduce below that floor for the sake of fps. Within that constraint, reducing arrow weight by 50 gr gains 4–6 fps.
String material upgrade. Dacron → Fast Flight or Dyneema: +8–12 fps. Check limb tip specifications before switching — traditional wood recurves with non-reinforced limb tips can crack under high-performance string loads.
Paper tuning on a bow vise. A mismatched spine creates arrow paradox that costs 5–10 fps in real-world efficiency and destroys consistency. The BowBars archery vise is the reference tool for paper-tuning recurves — a clean bullet-hole tear confirms your spine is matched. Budget alternative: the SpewingJason bow vise does the same job at a lower price point.
Brace height reduction. Experienced archers only. −0.5″ gains +1–2 fps but reduces forgiveness significantly. Not recommended for hunting setups — the forgiveness cost outweighs the speed gain when a missed shot means a wounded animal.
Limb upgrade (ILF systems). Carbon limbs over fiberglass: +8–15 fps and better shot-to-shot consistency. Cost: $200–$400 for quality carbon limbs. At +10 fps average, roughly $25–40 per fps gained — expensive, but the most permanent upgrade available.

Section 7: Speed Benchmarks by Archer Profile

Section 8: FAQ — 10 Questions from r/Archery

1. What is average recurve bow fps?

There is no single answer — it ranges from ~120 fps for a 20 lb youth setup to 225 fps for an Olympic ILF rig. The practical middle ground: a 40–45 lb recurve with a matched carbon arrow and proper draw length produces 170–195 fps. That is the range most intermediate archers and bowhunters land in, and the range most of this guide targets.

2. Does a heavier bow always shoot faster?

Not always. A well-tuned 45 lb modern ILF with carbon limbs and a Fast Flight string can match or exceed a poorly tuned 55 lb traditional recurve with a stretched Dacron string and mismatched spine arrows. Draw weight is the biggest single variable, but limb efficiency, string material, and arrow spine all interact. At the extremes (20 lbs vs 60 lbs), draw weight dominates — in the 40–55 lb range, tuning decisions can move the number by 20+ fps.

3. How many fps do I gain per pound of draw weight?

Approximately 2 fps per pound at 28″ draw — validated against r/Bowyer community data and manufacturer spec sheets. This rule holds reliably from 25–55 lbs. Above 55 lbs, gains flatten if your arrow spine isn’t upgraded to match — a too-light spine on a 60 lb bow loses efficiency to paradox and the effective gain drops to 1–1.5 fps per additional pound.

4. What fps do I need to hunt deer with a recurve?

The real question is: what is your KE at impact? You need 42 ft-lbs minimum for deer-class. With a 400 gr arrow, back-calculating from the KE formula: 42 ft-lbs requires approximately 218 fps — beyond most recurve setups. Switch to a 500 gr arrow and your minimum fps drops to 195 fps, which a well-tuned 50 lb recurve at 28–30″ draw can deliver. Heavier arrow, lower speed requirement, cleaner ethical result.

5. Why is my recurve slower than the manufacturer says?

Five causes, ranked by frequency: (1) your draw length is shorter than the test draw (28″ AMO); (2) your arrows are heavier than the test arrow the manufacturer used; (3) cold temperature stiffened your limbs and string; (4) your string has stretched and increased brace height beyond spec; (5) your brace height is set higher than the manufacturer’s test configuration. Any one of these can account for a 5–15 fps gap. All five together can produce a 30+ fps deficit.

6. Does arrow spine affect speed?

Yes — a mismatched spine (too weak or too stiff for your bow) creates exaggerated arrow paradox and increases fletching drag during flight. A well-documented effect is 5–10 fps of real-world efficiency loss compared to a bullet-hole paper-tear tune. Spine doesn’t change how fast the bow launches the arrow — it determines how efficiently that energy transfers downrange to the target.

7. How fast do Olympic recurves shoot?

Documented competition-season chronograph data places Olympic recurves (45–50 lbs ILF, carbon limbs, X10 or ACE arrows at 330–360 gr) in the 185–225 fps range. The upper end requires carbon ILF limbs, Dyneema string, and a draw length at or above 28.5″. A fiberglass-limb version of the same riser typically lands 10–15 fps lower.

8. Is 200 fps fast enough for hunting?

It depends entirely on arrow weight. 200 fps with a 350 gr arrow = 31.2 ft-lbs KE — adequate for small game, not for deer. 200 fps with a 450 gr arrow = 40.1 ft-lbs — approaching but below deer minimum. 200 fps with a 500 gr arrow = 44.6 ft-lbs — above deer minimum and into the ethical range for deer-class game. The number “200 fps” is meaningless without arrow weight. Calculate KE every time.

9. How does my recurve compare to a compound in fps terms?

A compound at equivalent draw weight shoots 60–120 fps faster than a recurve — the gap is real and grows with distance. At 30m and under, trajectory difference is manageable with good technique on a recurve. At 50m+, the compound’s flatter trajectory and hold-at-peak-draw advantage become significant for hunting. Run the trajectory math for your recurve fps before assuming your holdover points are accurate at distance. For mechanical speed reference, see the best crossbows for hunting — crossbows bridge the speed gap between recurve and compound.

10. What chronograph should I use to test my recurve?

Three reliable options: Caldwell Ballistic Precision Chronograph (~$60–80) — what I use in the field; accurate within ±1 fps in good lighting. Magneto Speed Archer (~$150) — attaches to the arrow and works in any light; no downrange unit to knock over. LabRadar Doppler (~$550) — the field-test gold standard; records multiple points across the flight path. For setup: position the chronograph 2–3 feet from the nock point, shoot a minimum of 10 consecutive arrows at consistent draw, discard the first shot of a cold bow, and average the remaining 9. Never chronograph with the sun directly overhead — sensor flare creates false readings.

Section 9: Methodology & Data Sources

Transparency block — how FPS benchmarks in this guide were built

[Type A] Reddit chronograph reports: Self-reported fps data from documented setups in r/Archery and r/Bowyer, cited with thread URL and approximate date. These are the most realistic numbers — real archers, real arrows, real conditions.

[Type B] Manufacturer specification sheets: AMO-standard test data from Samick, Win&Win ILF, Hoyt, and Bear Archery. These are optimistic ceilings — assume your real setup is 8–15 fps below these for equivalent conditions.

[Type C] YouTube field tests: Chronograph footage with visible readout, cited with setup details where available. Useful for verifying specific bow models against Reddit data.

[Type D] Calculated estimates: Derived using the validated 2 fps/lb draw weight and 2 fps/inch draw length rules-of-thumb, verified against Type A–C data wherever possible. Labeled [Calculated] throughout. Confidence bounds: ±10 fps.

Normalization standard: All data normalized to 28″ draw length, sea level, 65–75°F / 18–24°C, unless otherwise noted. Temperature corrections documented in Section 2. This guide is updated with new chronograph data as it becomes available.

Primary sources: r/Bowyer rules-of-thumb thread (reddit.com/r/Bowyer/comments/1nmaqfg/rules_of_thumb_questions/) — primary source for draw weight and draw length fps rules used throughout this guide. Cross-checked against Win&Win and Samick published data. Reddit chronograph threads cited in Section 4 with approximate dates.

Charmaine van Vuuren

Charmaine van Vuuren is a seasoned professional hunter and safari guide turned outdoor gear expert, with over 15 years of experience leading big-game expeditions and wilderness adventures across Southern Africa. That same field-tested expertise now drives every review on TheOutdoorChamp — from hunting gear and survival tools to camping equipment, fishing tackle, and boating accessories. When she recommends a product, it’s because she’s used it in conditions where failure isn’t an option.

Recurve Bow Arrow Speed Chart (20–60 lbs): Real FPS Data 2026

Key Findings at a Glance