B5J5K6 Resistor: Specs, Datasheet & Applications

11 April 2025
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What is a B5J5K6 Resistor?

The B5J5K6 resistor serves as a particular electronic device that functions as a current obstruction in electrical circuits. The resistor characteristics can be found through its alphanumeric code "B5J5K6." The B5 indicates the tolerance range, and J5K6 demonstrates the resistance value. The resistance properties of this resistor originate from its ceramic core substance coated with a metal oxide film.

B5J5K6 Resistor

 

Resistance Value Explanation

The fourth and fifth letters of the resistor label "J5K6" indicate a resistance of 5.6 kΩ. The B5J5K6 resistor has been designed to offer 5600 ohms of resistance when installed in an electrical circuit. The letter "J" initially marks that the nominal resistance value has ±5% tolerance, meaning actual resistance values stay within this specified area of variation.

 

Physical Characteristics

The physical dimensions of B5J5K6 resistors work well with space-constrained electronic designs because they are small in size. The resistor exists in different packaging formats and axial-lead and surface-mount (SMD) versions represent the most popular types. Sizing the resistor along with its maximum power capacity establishes the important factors that determine the selection of an appropriate component for particular applications.

 

B5J5K6 Resistor Specifications

Parameter

Value

Resistance

5.6 kΩ

Tolerance

±5%

Power Rating

5.25 W

Temperature Coefficient

±260 ppm/°C

Construction

Wirewound with all-welded construction

Coating

Rugged, flame-retardant vitreous enamel

Mounting Style

Axial, through-hole

Dimensions

6.35 mm (diameter) × 15.88 mm (length)

Operating Temperature Range

Up to +350°C

RoHS Compliance

Not RoHS compliant

 

Analyzing the B5J5K6 Resistor Datasheet

Key electrical characteristics

The main specification of this component is its resistance value of 5.6 kΩ, which has standard tolerances set at ±1% or ±5%. A resistor displays its maximum safe power dissipation through its power rating, either at 0.25W or 0.5W. The stated voltage rating indicates the highest level of voltage which the component can bear whether it is 200V or 350V. Resistance variation because of temperature changes is measured through the Temperature Coefficient of Resistance, which ranges between ±50 to ±100 ppm/°C.

 

Physical dimensions and package types

The B5J5K6 resistor features physical attributes that are listed in the datasheet. Multiple variants are available with two principal package styles between through-hole and surface mount (SMD). Through-hole variants exist as axial or radial lead products, but SMD types are offered in multiple sizes, including 0603, 0805 and 1206. The datasheet presents exact measurement specifications that include length and width in addition to height specifications, as well as lead position specifications for PCB development and manufacturing requirements.

 

Environmental specifications

The datasheet offers environmental specifications that explain how the resistor functions within diverse conditions. Standard applications span from -55 degrees Celsius to +125 degrees Celsius in the operating temperature range. Resistors also need to display their performance quality at 95% relative humidity under humidity resistance tests. Other sections of some datasheets offer resistance-related information about how the resistor responds to different environmental stresses, including vibration and shock.

 

Reliability data and testing standards

We will now discuss the reliability information following our review of environmental requirements. The datasheet section includes detailed information about the resistor's operational stability, together with its durability parameters. The section includes multiple stress test results such as load life tests, short-time overload tests, and temperature cycling tests. Resistors undergo tests using MIL-STD-202 and IEC 60068 industry standards, among others. The data sheet includes information about both failure rate statistics and mean time between failures (MTBF), which provide designers with reliability assurance.

 

Common Applications of B5J5K6 Resistors

Voltage divider circuits

The precise resistance value of 5.6 kΩ makes B5J5K6 resistors suitable for voltage divider circuits because accurate voltage scaling requires this specification. Voltage divider circuits and sensor interfaces, as well as power supplies, require these essential electronic components. B5J5K6 resistors provide stable voltage division performance since they have low tolerance and this makes them perfect for applications needing accurate voltage control.

 

Current limits in LED applications

The B5J5K6 resistor functions as an outstanding protection device to control current flow within LED circuits. The 5.6 kΩ value of this resistor protects LEDs from high current flow, which prolongs their operational life and preserves their brightness levels. This application proves highly important for indicator lights and display panels, along with low-power lighting systems that need stable LED performance.

 

Feedback networks in amplifiers

B5J5K6 resistors act as critical components for setting up feedback networks in amplifiers. A precise resistance measurement in these components helps achieve correct gain control and precise frequency response. Audio amplifiers use these resistors to safeguard signal quality while decreasing distortion levels that generate better sound clarity.

 

Precision measurement equipment

B5J5K6 resistors establish themselves as perfect elements for precision measurement equipment because of their strong reliability characteristics. B5J5K6 resistors find applications in sensing devices for voltage and current measurements and calibration systems and equipment. Their low-temperature coefficient enables reliable measurement performance under diverse environmental conditions, thus making them needed in laboratory instruments and industrial testing devices.

 

Selecting the Right B5J5K6 Resistor for Your Project

Considering circuit requirements

Safe selection of a B5J5K6 resistor demands a meticulous examination of your project circuit needs. Begin by deciding the needed accurate resistance value since B5J5K6 provides a standard resistance of 5.6 kΩ. Assess the power threshold needed for your device alongside the limit that maintains safe operating temperatures of the resistor. Additionally, factor in the voltage rating and tolerance level that your circuit demands.

 

Evaluating environmental factors

The performance of resistors strongly depends on how the environment affects them. Check the complete temperature spectrum that could affect your circuit since high or low-temperature variations modify resistance levels. Humidity conditions need examination because water can trigger both corrosion and short circuits. Mechanical stress requires using resistors that demonstrate strong resilience to such conditions. Protective coatings and encapsulations should be considered for resistors operating in unfavorable conditions.

 

Choosing between through-hole and surface-mount options

Your PCB design, together with the assembly process, will determine which option works best between through-hole and surface-mount B5J5K6 resistors. Through-hole components serve robust applications and simple replacement, which makes them suitable for prototyping and demanding high-reliability systems. The automated assembly process works better with surface mount resistors, while through-hole resistors maintain their strength. Evaluate your manufacturing conditions alongside future maintenance needs to determine the right B5J5K6 resistor type.

 

Installation and Handling Best Practices

Proper soldering techniques

Correct soldering methods remain essential for installing B5J5K6 resistors because they improve both operational quality and lifespan. The correct installation of B5J5K6 resistors requires a temperature-controlled soldering iron operated at a specific temperature range that the manufacturer recommends between 300°C and 350°C. Before soldering apply flux to the PCB pads and resistor leads because it helps both the solder wetting process and heat transfer. Solder both pad and lead when holding the iron tip in place for 2-3 seconds, and carefully add a small amount of solder. Natural cooling time needs to be observed instead of touching or blowing on the joint.

 

Avoiding thermal and mechanical stress

Destruction of B5J5K6 resistors should be avoided by keeping installation stress and thermal effects at a minimum throughout the process. The soldering procedure should maximize lead safety by setting a maximum joint time of 5 seconds per connection. When working with temperature-sensitive components, you should use heat sinks combined with tweezers to redirect heat away from them. The lead bending process requires a minimum spacing of 3 mm between the resistor body with proper tools that reduce component strain. The body of the resistor must be avoided from receiving direct handling force during installation.

 

Storage and moisture sensitivity precautions

B5J5K6 resistors display vulnerability to water exposure and exposure to surrounding environmental elements. Keep the resistors stored in a dry and temperature-controlled environment with a humidity level below 60% inside a space ranging from 5°C to 35°C. The storage box or moisture-barrier bags, along with desiccant, should protect resistors until they need to be installed. High humidity exposure requires baking the components according to manufacturer instructions before soldering procedures. You should handle resistors with either clean and dry hands or ESD-safe equipment in order to prevent contamination along with electrostatic damage.

 

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