Flat Flex Ribbon Jumpers, Cables

Image Part Number Description / PDF Quantity Rfq
686726100001

686726100001

Würth Elektronik Midcom

CABLE FFC 26POS 1.00MM 3.94"

40

0982660073

0982660073

Woodhead - Molex

CABLE FFC 8POS 0.50MM 1.18"

0

687730141002

687730141002

Würth Elektronik Midcom

WR-FFC 0.50MM TYPE 2_FOLDING FFC

0

0982660281

0982660281

Woodhead - Molex

CABLE FFC 26POS 0.50MM 6"

830

0150181193

0150181193

Woodhead - Molex

PREMO-FD19 0.50 JMPR LGT 127 TYP

0

686710050001

686710050001

Würth Elektronik Midcom

CABLE FFC 10POS 1.00MM 1.97"

76

0151670299

0151670299

Woodhead - Molex

CABLE FFC 14POS 1.00MM 6"

898

0152660953

0152660953

Woodhead - Molex

CABLE FFC 25POS 0.50MM 6"

1000

0150181121

0150181121

Woodhead - Molex

PREMO-FD19 0.50 JMPR LGT 51 TYPE

0

0150200078

0150200078

Woodhead - Molex

CABLE FFC 8POS 0.50MM 3"

0

0150200333

0150200333

Woodhead - Molex

CABLE FFC 30POS 0.50MM 10"

0

0150180196

0150180196

Woodhead - Molex

PREMO-FD19 0.50 JMPR LGT 178 TYP

0

0150180182

0150180182

Woodhead - Molex

PREMO-FD19 0.50 JMPR LGT 305 TYP

0

0150181003

0150181003

Woodhead - Molex

PREMO-FD19 0.50 JMPR LGT 229 TYP

0

AFFC-050-28-076-11

AFFC-050-28-076-11

ASSMANN WSW Components

CABLE FFC 28POS 0.50MM 3"

0

687634152002

687634152002

Würth Elektronik Midcom

CABLE FFC 34POS 0.50MM 5.98"

162

0151670721

0151670721

Woodhead - Molex

CABLE FFC 4POS 1.00MM 12"

887

0150180993

0150180993

Woodhead - Molex

PREMO-FD19 0.50 JMPR LGT 102 TYP

0

0982680221

0982680221

Woodhead - Molex

CABLE FFC 16POS 1.25MM 6"

1607

0150180914

0150180914

Woodhead - Molex

PREMO-FD19 0.50 JMPR LGT 229 TYP

0

Flat Flex Ribbon Jumpers, Cables

1. Overview

Flat Flex Ribbon Jumpers (FFRJ) and Cables are specialized electrical interconnect solutions characterized by their flat, ribbon-like structure. They consist of multiple conductors arranged in parallel on a flexible dielectric substrate, enabling high-density signal/power transmission in compact spaces. These components are critical in modern electronics for their ability to reduce assembly complexity, improve signal integrity, and support miniaturization in devices ranging from consumer electronics to industrial automation systems.

2. Main Types & Functional Classification

TypeFunctional FeaturesApplication Examples
Single-layer FFRJSimplex conductor arrangement, cost-effectiveInternal PCB connections in laptops
Dual-layer FFRJDouble-sided conductors with cross-connect capabilityHigh-density backplane interfaces
Stripline FFRJControlled impedance with embedded ground planesRadar systems and RF modules
Shielded Ribbon CablesEMI/RFI protection with braided shieldingMedical imaging equipment

3. Structure & Composition

A typical FFRJ/cable assembly comprises:

  • Conductors: Annealed copper or aluminum alloys (0.05-0.5mm ), with tin/silver plating
  • Dielectric: Polyimide (PI) or polyester (PET) films (0.025-0.2mm thickness)
  • Termination: ZIF (Zero Insertion Force) contacts or stamped headers
  • Protective Layer: Optional PVC or TPE overmolding for mechanical strain relief

4. Key Technical Parameters

ParameterTypical RangeImportance
Conductor Cross-section0.035 - 0.8mm Determines current carrying capacity
Insulation Resistance>100M @500VDCEnsures electrical safety
Operating Temperature-40 C to +125 CDefines environmental robustness
Flex Life10,000 - 100,000 cyclesIndicates mechanical durability
Impedance Control50 - 100 Crucial for high-speed signals

5. Application Fields

  • Consumer Electronics: Foldable smartphones, wearable devices
  • Medical Equipment: MRI scanners, endoscopic cameras
  • Industrial Automation: Robotic arm cabling systems
  • Telecommunications: 5G base station internal wiring

6. Leading Manufacturers & Products

ManufacturerRepresentative ProductKey Specification
TE ConnectivityFFRJ-26D-12726AWG, 127 m pitch, 10Gbps data rate
MolexSL Series Ribbon CableUL94-V0 rated, 28AWG x 40 conductors
Amphenol ICCZIF-CL-1048990.8mm pitch, 1000 mating cycles

7. Selection Guidelines

Key considerations:

  1. Calculate current load using I = K T A (where K=material constant, T=temp rise, A=conductor area)
  2. Evaluate bend radius requirements: Minimum R 10 cable height
  3. Verify signal integrity for frequencies >1GHz using S-parameter analysis
  4. Select flame-retardant materials (e.g., LSZH jackets) for industrial applications

Case Study: In automotive ADAS systems, shielded 34AWG FFRJ with -40 C to +150 C rating was selected to ensure reliability in engine bay environments.

8. Industry Trends

Emerging developments include:

  • Sub-0.5mm pitch connectors enabling 8K display interfaces
  • Integration of graphene-coated conductors for 50% weight reduction
  • Smart cables with embedded temperature/signal sensors (IoT applications)
  • Adoption of halogen-free materials meeting IEC 62576 standards
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