• 简体中文
  • English
  • Deutsch
Fluigent
  • 미세유체연구장비
      • 고유량제어를위한미세유체
      • 정밀 유체 제어를 위한 미세유체 솔루션 
      • 액적생성을위한미세유체기술
      • 액적 생산을 위한 고급 솔루션
      • 장기온칩응용분야를위한미세유체기술
      • 장기 온칩 연구를 위한 첨단 솔루션  
      • 체학응용분야를위한미세유체
      • 체학 기술을 위한 고급 솔루션
  • 미세유체OEM
      • OEM 응용분야
      • 미세유체 응용을 위한 F-OEM 밸브 자동화 
      • 멀티플렉싱을 위한 국소화 현미경 검사 및 유량 제어  
      • OEM 기술​
      • 최고의 유체 제어 시스템을 위한 미세유체 압력 컨트롤러 비교 
      • 미세유체 응용 분야에서 OEM 시린지 펌프보다 OEM 압력 컨트롤러를 선택해야 하는 5가지 이유 
      • 산업 제품
      • 액체용 압력 컨트롤러 
      • OEM 미세유체 구성 요소 
      • 완전 맞춤형 미세유체 장치 
  • 마이크로유체 블로그
    • Microfluidic(미세유체) Droplet 생성 방법 
    • 세포 및 조직의 미세 피펫 흡인 
    • 마이크로유체역학 개요: 역사와 정의 
  • 회사
    • 회사 소개
    • 팀
    • 뉴스
  • 문의하기
Home » Resources » Support & Tools » Microfluidic calculators » Shear Stress Calculator

Shear Stress Calculator

At Fluigent, we understand the critical role shear stress plays in microfluidics research. Hence, we introduce our Shear Stress Calculator, a tool designed to simplify your tasks as researchers, scientists, and engineers in the field.

You can use our Shear Stress Calculator to determine your experimental parameters. Define the flow rate or the pressure to be applied in your system, the dimension of microfluidic chip and tubing length in order to apply the correct shear stress for your cell culture under flow conditions.

Of note, the dimension of your chip (width) as well as the tubing connected to it (inner diameters and length) determine the overall hydraulic resistance of your system.

Set your parameters and calculate

Flow parameters

Fluid Properties

Tubing Resistance

Microfluidic chip: Channel geometry and dimensions

At least one required field is missing. Be sure to fill all the steps before computing.

Error: Height can’t be greater than width.

Recommended products :

FLOW UNIT microfluidic flow sensor
Name SKU Range
More Info Buy Online

flow ez microfluidic flow and pressure controller
Name SKU Range
More Info Buy Online
Microfluidic Push Pull controller
Name SKU Range
LineUp™ Push-Pull ELUPPU1000 -800 to 1000 mbar
More Info Buy Online
Learn more about how to control the shear stress in your microfluidic experiments

What is shear stress? 

Shear stress is the dragging force created by fluid friction on a surface in motion. Cells exposed to fluid flow experience this stress, influencing their phenotype, morphology, and maturation.

Optimize Your Experiments with Shear Stress Calculator 

Use our Shear Stress Calculator to precisely determine your experimental parameters. Input flow rate, pressure, microfluidic chip dimensions, and tubing length to apply the ideal shear stress for your cell culture under flow conditions. 

Considerations for Hydraulic Resistance 

The dimensions of your chip (width) and connected tubing (inner diameters and length) collectively determine the overall hydraulic resistance. These factors are crucial in achieving accurate shear stress in your system. 

Why Shear Stress Calculation Matters 

Accurate shear stress calculation is vital for designing experiments that replicate physiological conditions and yield dependable results. Our Shear Stress Calculator streamlines this process, offering a user-friendly interface for determining shear stress values in microfluidic systems. 

Easy Experiment Optimization 

Designed with simplicity in mind, our shear stress calculator accommodates both beginners and experts. Its intuitive interface allows researchers to confidently input parameters, ensuring accurate shear stress values for successful experiments. 

Tutorial video

Our Shear Stress Calculator helps determine experimental parameters, by predicting the shear stress level induced by a set-up and an application. 

Cylindrical channel

For a circular cross-section of diameter d

Shear stress is:

τ = 4ηQ / r³π

Where Q is the flow rate, η the dynamic viscosity and r the radial distance from the centerline of the channel (r=d/2)

shear stress calculation with Cylindrical channel

Rectangular channel

In rectangular channels, the flow velocity profile and subsequent shear stress are more complex. Wall shear stress is not constant and varies across the top, bottom, and side walls of the channel. However, the geometry can be simplified by considering two infinite parallel plates instead of closed channels.

Under this assumption, the shear stress follows the equation:

τ = 6ηQ / h²w

Where Q is the flow rate, η the dynamic viscosity, h the channel height and w the channel width

shear stress calculation with rectangular channel

In order to determine the shear stress applied onto your cells cultured under flow, please indicate the following values:

  • Flow parameters (flow rate, pressure or shear stress)
  • Fluid properties (viscosity and density)
  • Tubing dimensions (optional) – important to calculate the hydraulic resistance of your system
  • Channel geometry and dimensions inside your microfluidic chip – important for both the hydraulic resistance and the shear stress
shear stress calculator

Why use our shear stress calculator

  • To extract the value of the shear stress applied in your system when working with a fixed flow rate or a fixed pressure 
  • To determine which flow rate or pressure to apply in order to deliver a specific shear stress

Expertises & Resources

Related Products

flow ez microfluidic flow and pressure controller

Microfluidic flow controller

Read more
Fluigent L Switch microfluidic recirculation AND injection valve

Microfluidic Recirculation Valve

Read more
pack recirculation products

Microfluidic Recirculation Pack

Read more
Cell perfusion pack

Organ on Chip Perfusion Pack 

Read more
CELL PERFUSION PACK

High Throughput Cell Perfusion Pack

Read more

Microfluidic cell culture chip

Read more
Easy droplet generation chip EZ drop

Easy droplet generation chip

Read more

Double channel Microfluidic chip for hypoxic cell culture

Read more
Flow gradient chip fo r 3D cell cultures

Flow gradient chip for 3D cell cultures 

Read more
air liquid interface cell culture chip

Air Liquid Interface Cell culture versatile chip 

Read more

For more information or a technical discussion

Contact us
Logo fluigent green and blue

67 avenue de Fontainebleau
94 270 Le Kremlin-Bicêtre

미세유체 연구 장비

  • 고유량제어를위한미세유체
  • 액적생성을위한미세유체기술
  • 장기온칩응용분야를위한미세유체기술
  • 체학응용분야를위한미세유체

미세유체OEM

  • 산업 응용
  • OEM 기술​
  • 산업 제품

회사

  • 팀
  • 회사 소개
  • 뉴스
문의하기

Legal

  • Terms & Conditions of Sale
  • Legal Terms & Privacy Policy