DENO LED Lighting

2216 Dim-to-warm High density LED Strip Light (#14207-N)

10mm · 24V · 420LEDs · 33.33mm/cut

Model: 14207-N

14207-N high density led strip — 24V, cuttable every 33.3mm, 10mm FPCB width, 2216 LEDs, 420 LEDs/m

Overview

2216 Dim-to-warm High density LED Strip Light | 10mm | 24V | 420LEDs | 33.33mm/cut | #14207-N is part of the DENO C.C. SMD Strips (IC Regulated) series, engineered around constant current IC LED strip. Key specifications: 2216, 420 LEDs/m, 24V, 10mm PCB, 3oz copper FPCB, cuttable 14LEDs/33.33mm. Every reel is produced on DENO's roll-to-roll line with 99.9% pure copper FPCB and ships CE, UL and RoHS compliant for architectural, retail and hospitality projects. OEM and ODM configurations of length, colour temperature and waterproofing are available on request.

Description

2216 Dim-to-warm High density LED Strip Light | 10mm | 24V | 420LEDs | 33.33mm/cut | #14207-N Dim to Warm Light Strip is a lighting product that can adjust the color temperature, changing the brightness and color temperature of the LED light beads by adjusting the current, thus providing different light effects in different scenes. When the current is higher, the LED light beads emit higher brightness and cooler color temperature; while when the current is lower, the light brightness is lower and the color temperature is warmer, which creates a warm and comfortable atmosphere. Dim to Warm light strips are widely used in home lighting. For example, in the bedroom, the warm light can create a relaxing atmosphere and help you rest better; in the restaurant, the brighter light can increase appetite and create a cozy dining environment. It is not only suitable for home lighting, but also can be used in commercial places, landscape lighting and stage lighting. In commercial places, such as hotels, restaurants and shopping malls, comfortable lighting is one of the important factors to attract customers. By adjusting the light ing effect, customer experience and satisfaction can be enhanced. In landscape lighting, Dim to Warm light strips can create different landscape effects to attract more tourists and visitors. In stage lighting, it can be adjusted according to different performance needs, creating just the right stage effect.

Dim To Warm Led Strip built for dim to warm smd strips projects.

Specifications

LED QTY420 LEDs/m
PART NODL-F22A210V24-14207-N-*
SMD TYPE2216
CUTTABLE UNIT14LEDs/33.33mm
DIMMABLEYes
LED PITCH2.381mm
PCB WIDTH10mm
BEAM ANGLE120°
LENGTH MAX5m
COPPER FOIL3oz
POWER RANGE7.2~18W
CIRCUIT TYPEC.C.
INPUT VOLTAGE24V

Applications

  • Cove, wall-wash & perimeter lighting — Coves, recesses, wall-wash details and ceiling perimeters where a continuous, uniform line of light is required.
  • Showroom & hospitality display lighting — Shelving, display cases, reception desks and signage backlighting in shops, showrooms and hospitality spaces.
  • Kitchen & wardrobe under-cabinet lighting — Kitchen, wardrobe and furniture task lighting where the strip stays hidden and only the light is seen.
  • Hotel & residential tunable-white scenes — Hotel rooms, residential living areas and meeting spaces where warm evening light and neutral daytime light are both required from one fixture.

Request a quotation for #14207-N

DENO LED is a Shenzhen-based LED strip manufacturer with its own Foshan production base. Send the run length, voltage, CCT/CRI and IP rating you need and our engineering team replies with a specification sheet, wiring plan and price — OEM/ODM and fully custom builds included.

  • Warranty: 5 years
  • Compliance: CE · UL · RoHS
  • Bonding wire: 99.99% pure gold
  • Copper foil: 99.9% pure copper FPCB

Contact DENO LED engineers · OEM / ODM capability

Photometric Performance — CCT × CRI Efficacy Matrix

Peak measured luminous efficacy: 124.8 lm/W at 3000K, Ra 90, ErP energy class E (DN · DTW C · 12W/m).

All values are measured at the stated power density and ambient 25 °C, reported as luminous efficacy in lumens per watt (lm/W), luminous flux per metre (lm/m) and the corresponding EU ErP (2019/2015) energy class.

DL · DTW C · 12W/m

DL · DTW C · 12W/m — measured at 12 W/m: luminous efficacy (lm/W), luminous flux (lm/m) and ErP energy class per CCT and CRI grade.
CCT (K)Ra 80 — Luminous Efficacy (lm/W)Ra 80 — Luminous Flux (lm/m)Ra 80 — ErP Energy ClassRa 90 — Luminous Efficacy (lm/W)Ra 90 — Luminous Flux (lm/m)Ra 90 — ErP Energy ClassFull Spectrum (Ra 95+) — Luminous Efficacy (lm/W)Full Spectrum (Ra 95+) — Luminous Flux (lm/m)Full Spectrum (Ra 95+) — ErP Energy Class
3000 K106.8 lm/W1282 lm/mF
2980 K106.1 lm/W1092 lm/mF
2960 K104.9 lm/W909 lm/mF
2940 K103.3 lm/W738 lm/mF
2900 K101.5 lm/W580 lm/mF
2860 K95.4 lm/W418 lm/mF
2800 K89.4 lm/W284 lm/mF
2700 K83.3 lm/W175 lm/mG
2500 K47.1 lm/W56 lm/mG
2200 K21.9 lm/W10 lm/mG
1850 K12.1 lm/W1 lm/mG

DL · DTW C · 15W/m

DL · DTW C · 15W/m — measured at 15 W/m: luminous efficacy (lm/W), luminous flux (lm/m) and ErP energy class per CCT and CRI grade.
CCT (K)Ra 80 — Luminous Efficacy (lm/W)Ra 80 — Luminous Flux (lm/m)Ra 80 — ErP Energy ClassRa 90 — Luminous Efficacy (lm/W)Ra 90 — Luminous Flux (lm/m)Ra 90 — ErP Energy ClassFull Spectrum (Ra 95+) — Luminous Efficacy (lm/W)Full Spectrum (Ra 95+) — Luminous Flux (lm/m)Full Spectrum (Ra 95+) — ErP Energy Class
3000 K104.6 lm/W1569 lm/mF
2980 K103.9 lm/W1336 lm/mF
2960 K102.8 lm/W1113 lm/mF
2940 K101.2 lm/W903 lm/mF
2900 K99.4 lm/W709 lm/mF
2860 K93.4 lm/W512 lm/mF
2800 K87.5 lm/W347 lm/mF
2700 K81.6 lm/W215 lm/mG
2500 K46.2 lm/W68 lm/mG
2200 K21.4 lm/W12 lm/mG
1850 K11.9 lm/W1 lm/mG

DL · DTW C · 18W/m

DL · DTW C · 18W/m — measured at 18 W/m: luminous efficacy (lm/W), luminous flux (lm/m) and ErP energy class per CCT and CRI grade.
CCT (K)Ra 80 — Luminous Efficacy (lm/W)Ra 80 — Luminous Flux (lm/m)Ra 80 — ErP Energy ClassRa 90 — Luminous Efficacy (lm/W)Ra 90 — Luminous Flux (lm/m)Ra 90 — ErP Energy ClassFull Spectrum (Ra 95+) — Luminous Efficacy (lm/W)Full Spectrum (Ra 95+) — Luminous Flux (lm/m)Full Spectrum (Ra 95+) — ErP Energy Class
3000 K102.4 lm/W1843 lm/mF
2980 K101.8 lm/W1572 lm/mF
2960 K100.6 lm/W1308 lm/mF
2940 K99.1 lm/W1061 lm/mF
2900 K97.3 lm/W833 lm/mF
2860 K91.5 lm/W601 lm/mF
2800 K85.7 lm/W409 lm/mF
2700 K79.9 lm/W252 lm/mG
2500 K45.2 lm/W80 lm/mG
2200 K21 lm/W14 lm/mG
1850 K11.6 lm/W2 lm/mG

DN · DTW C · 12W/m

DN · DTW C · 12W/m — measured at 12 W/m: luminous efficacy (lm/W), luminous flux (lm/m) and ErP energy class per CCT and CRI grade.
CCT (K)Ra 80 — Luminous Efficacy (lm/W)Ra 80 — Luminous Flux (lm/m)Ra 80 — ErP Energy ClassRa 90 — Luminous Efficacy (lm/W)Ra 90 — Luminous Flux (lm/m)Ra 90 — ErP Energy ClassFull Spectrum (Ra 95+) — Luminous Efficacy (lm/W)Full Spectrum (Ra 95+) — Luminous Flux (lm/m)Full Spectrum (Ra 95+) — ErP Energy Class
3000 K124.8 lm/W1498 lm/mE
2980 K124 lm/W1276 lm/mE
2960 K122.6 lm/W1063 lm/mE
2940 K120.7 lm/W862 lm/mE
2900 K118.6 lm/W677 lm/mE
2860 K111.5 lm/W488 lm/mE
2800 K104.4 lm/W332 lm/mF
2700 K97.3 lm/W204 lm/mF
2500 K55.1 lm/W65 lm/mG
2200 K25.6 lm/W12 lm/mG
1850 K14.2 lm/W1 lm/mG

DN · DTW C · 15W/m

DN · DTW C · 15W/m — measured at 15 W/m: luminous efficacy (lm/W), luminous flux (lm/m) and ErP energy class per CCT and CRI grade.
CCT (K)Ra 80 — Luminous Efficacy (lm/W)Ra 80 — Luminous Flux (lm/m)Ra 80 — ErP Energy ClassRa 90 — Luminous Efficacy (lm/W)Ra 90 — Luminous Flux (lm/m)Ra 90 — ErP Energy ClassFull Spectrum (Ra 95+) — Luminous Efficacy (lm/W)Full Spectrum (Ra 95+) — Luminous Flux (lm/m)Full Spectrum (Ra 95+) — ErP Energy Class
3000 K122.6 lm/W1839 lm/mE
2980 K121.8 lm/W1566 lm/mE
2960 K120.4 lm/W1304 lm/mE
2940 K118.6 lm/W1058 lm/mE
2900 K116.5 lm/W831 lm/mE
2860 K109.5 lm/W600 lm/mF
2800 K102.6 lm/W407 lm/mF
2700 K95.6 lm/W251 lm/mF
2500 K54.1 lm/W80 lm/mG
2200 K25.1 lm/W14 lm/mG
1850 K13.9 lm/W2 lm/mG

DN · DTW C · 18W/m

DN · DTW C · 18W/m — measured at 18 W/m: luminous efficacy (lm/W), luminous flux (lm/m) and ErP energy class per CCT and CRI grade.
CCT (K)Ra 80 — Luminous Efficacy (lm/W)Ra 80 — Luminous Flux (lm/m)Ra 80 — ErP Energy ClassRa 90 — Luminous Efficacy (lm/W)Ra 90 — Luminous Flux (lm/m)Ra 90 — ErP Energy ClassFull Spectrum (Ra 95+) — Luminous Efficacy (lm/W)Full Spectrum (Ra 95+) — Luminous Flux (lm/m)Full Spectrum (Ra 95+) — ErP Energy Class
3000 K120.4 lm/W2167 lm/mE
2980 K119.6 lm/W1847 lm/mE
2960 K118.3 lm/W1538 lm/mE
2940 K116.5 lm/W1248 lm/mE
2900 K114.4 lm/W979 lm/mE
2860 K107.6 lm/W707 lm/mF
2800 K100.7 lm/W480 lm/mF
2700 K93.9 lm/W296 lm/mF
2500 K53.1 lm/W94 lm/mG
2200 K24.7 lm/W17 lm/mG
1850 K13.7 lm/W2 lm/mG

Related models in this series

See every model in SMD LED Strip Series or narrow to 2216. Compare wattage, lumen output and run length in the ProCalc parameter library, or request OEM/ODM pricing on the custom manufacturing page.

Frequently Asked Questions

What are the key specifications of 14207-N?

14207-N: 2216, 420 LEDs/m, 24V, 10mm PCB, 3oz copper FPCB, cuttable 14LEDs/33.33mm. Full photometric data, wiring diagrams and test reports are available in the downloads section of this page.

What makes the construction of this constant current IC LED strip different?

It is built as a constant current IC LED strip on 3oz copper FPCB with a cutting unit of 14LEDs/33.33mm and an LED pitch of 2.381mm, so it holds its electrical and mechanical performance where standard strips fail.

Can DENO customise this constant current IC LED strip for a project?

Yes. DENO manufactures the C.C. SMD Strips (IC Regulated) series as an OEM and ODM supplier: reel length, colour temperature, CRI grade, PCB width, waterproofing and private labelling can all be specified. Request a quote for lead time and project pricing.

How does a dim to warm LED strip behave when dimmed?

As output falls the white point shifts from about 3000K down to 1800K, mimicking an incandescent or halogen lamp at low levels. The shift follows a single dimming channel, so any standard 0-10V, DALI or PWM dimmer controls it and no second control wire is required.

Does a constant current LED strip really eliminate voltage drop?

Voltage still drops along the copper, but the per-segment constant current IC holds LED current fixed until the local voltage falls below its dropout point. Brightness therefore stays even end to end, and power can be injected at one end, both ends or any mid point of the run.

How many LEDs per metre does a dotless LED strip need?

Visible dots depend on LED pitch, diffuser distance and transmittance. Above roughly 480 LEDs/m most diffusers give a continuous line at 10 mm depth, and the 700 LEDs/m high density LED strip stays dot free even behind a shallow, highly transmissive lens.

High Density LED Strip — Buyer Questions

What counts as a high density LED strip?

Anything above roughly 120 LEDs per metre is normally sold as a high density LED strip. DENO builds high-density boards from 240 up to 700 LEDs/m, which puts the LED pitch between 4.2 mm and 1.4 mm — tight enough to read as a continuous line behind a shallow diffuser instead of a row of dots.

Is a 24V high density LED strip better than 12V?

For dense boards, yes in most cases. A 24V high density LED strip draws half the current of a 12V board at the same wattage, so voltage drop is far lower and single runs of 5–10 m stay even in brightness. DENO supplies 12V, 24V, 48V and mains-voltage versions of the same high-density layout; 12V is normally reserved for short cabinet runs or low-voltage furniture requirements.

Do you make a 5V high density LED strip?

Yes. 5V dense LED tape is built for USB-powered displays, shelving and addressable pixel projects where the controller is 5V-native. Because 5V boards lose voltage quickly, DENO limits standard runs to 1–2 m per feed, uses 2 oz or 35+70 μm copper, and adds per-segment constant-current ICs so the far end does not dim.

Can a high density RGB LED strip stay dot-free?

It can, but the pitch has to be tighter than a white board because each RGB package mixes three separate dies. DENO's high density RGB and RGBW builds place emitters at 2.1 mm–4.2 mm pitch so colour mixing completes within a few millimetres of the diffuser, which removes both the dot pattern and the rainbow fringing seen on standard 60 LEDs/m RGB tape.

What is a high density addressable LED strip used for?

High density addressable LED strip (pixel tape) is used for signage, media facades, stair effects and studio lighting where each LED or short segment must be controlled individually. DENO offers addressable builds with up to 700 pixels per metre in SPI protocols such as WS2812B, WS2815 and SK6812, with breakout points every cut unit for reliable data injection on long runs.

What makes the best high density LED strip lights?

Density alone is not enough. The best high density LED strip lights combine tight LED pitch with a 3-SDCM binning window, Ra 90+ (Ra 95+ for full-spectrum), 2 oz or heavier copper for thermal spreading, flicker-free constant-current drive and an FPCB rated for repeated bending. DENO ships photometric data, LM-80 chip data and a full test report with every OEM order so specifiers can verify these claims instead of trusting a datasheet number.

Can I order a custom high density LED strip?

Yes — LED count, pitch, CCT, CRI, PCB width from 3 mm, copper weight, cut unit and IP rating are all configurable on a custom high density LED strip. DENO is a manufacturer, not a reseller, so a non-standard density or a mixed-CCT dense board can be tooled from an existing FPCB stack-up without a new production line.

Is high density LED tape the same as a high density LED strip?

They are the same product under two names: “high density led tape” is the common UK/EU term for what North America calls a high density LED strip. DENO ships the identical dense FPCB boards to both markets — 240 to 700 LEDs/m, 3 mm to 12 mm widths, CE/UL/RoHS documentation — so the tape you specify in a UK cove detail is the same board as the strip specified in a US one.

Which dense LED tape suits under-cabinet lighting?

For under-cabinet work choose a dense board at 240–420 LEDs/m in a 5 mm to 8 mm width, 12V or 24V, with a short cut unit so the board matches each cabinet run exactly. At that density a 10 mm deep aluminium channel with a frosted diffuser already reads dot-free at normal worktop viewing distance.

What power supply do I need for a dense LED strip run?

Size the driver from the board wattage: multiply the W/m figure on the datasheet by the run length, then add 20–30 % headroom, so a 20 W/m board over 5 m needs a 100 W load on a 120–130 W constant-voltage driver. Match the driver voltage exactly (24V board, 24V driver), keep it constant-voltage rather than constant-current unless the board carries its own CC ICs, and check that the dimming protocol — TRIAC, 0–10V, DALI or PWM — is supported on both sides before ordering.

Does more LEDs per metre mean a brighter strip?

Not on its own. Brightness is lumens per metre, which is drive current times die count times efficacy — doubling the LED count while halving the current per die gives the same output with a smoother line, not twice the light. Read lm/m and W/m together: DENO dense boards run 8–24 W/m and 700–2600 lm/m, so pick the density for dot-free appearance and the wattage for the light level you actually need.

Can dense LED tape run on 36V or 48V supplies?

Yes. 36V and 48V builds exist specifically for long uninterrupted runs: at 48V the same wattage draws a quarter of the current of a 12V board, so a single feed can cover 15–20 m with even brightness and far fewer injection points. They need a matching SELV driver and, in most territories, the same low-voltage installation rules as 24V; DENO supplies 36V and 48V versions of the standard dense layouts on request.

Constant Current LED Strip — Buyer Questions

What is a constant current LED strip?

A constant current LED strip carries a linear CC driver IC on the board that holds a fixed current through each segment regardless of the input voltage seen at that point. Brightness therefore stays flat along the run, instead of falling off with voltage drop the way a plain constant-voltage strip does.

Constant current vs constant voltage LED strip — which is better?

Constant voltage is cheaper and fine for short runs under 3 m. Constant current is the right choice whenever the run is long, the copper is thin, the input voltage is unstable, or the installation is camera-facing — the IC absorbs supply variation and keeps every metre at the same luminous flux.