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Prismatic joint setup in Feamp with RBE2 elements

Prismatic joint setup in Feamp with RBE2 elements

Suspension link setup with a revolute joint using RBE2 elements

Suspension link setup with a revolute joint using RBE2 elements

Spherical joint setup in Femap with RBE2 elements, and Normal Modes Analysis

Spherical joint setup in Femap with RBE2 elements, and Normal Modes Analysis

Revolute joint setup in Femap with RBE2 (rigid body elements), and Normal Modes Analysis

Revolute joint setup in Femap with RBE2 (rigid body elements), and Normal Modes Analysis

Updating the input file with Rayleigh damping in Femap

Updating the input file with Rayleigh damping in Femap

How to manually create contact glue in Femap?

How to manually create contact glue in Femap?

How to enter a function into Femap

How to enter a function into Femap

Set up rigid body elements on an orphan mesh in Femap Nastran

Set up rigid body elements on an orphan mesh in Femap Nastran

How to import a DAT file into Femap Nastran

How to import a DAT file into Femap Nastran

Femap RBE2 vs RBE3. Rigid body elements

Femap RBE2 vs RBE3. Rigid body elements

Femap Nastran Rigid body elements with a center

Femap Nastran Rigid body elements with a center

Femap Nastran example on creating a better mesh

Femap Nastran example on creating a better mesh

How to copy a geometry in Femap?

How to copy a geometry in Femap?

Femap Nastran Rigid Body Elements for remote loading a geometry

Femap Nastran Rigid Body Elements for remote loading a geometry

Femap Nastran Rigid Body Elements

Femap Nastran Rigid Body Elements

Femap Nastran transient analysis with forced acceleration

Femap Nastran transient analysis with forced acceleration

Femap Nastran Normal modes Analysis. Is the geometry properly constrained?

Femap Nastran Normal modes Analysis. Is the geometry properly constrained?

Femap Nastran Transient Analysis setup. Setting up a time dependent force.

Femap Nastran Transient Analysis setup. Setting up a time dependent force.

Femap Nastran pressure vessel analysis series 5 of 5. Loads setup, gravity setup, Analysis

Femap Nastran pressure vessel analysis series 5 of 5. Loads setup, gravity setup, Analysis

Femap Nastran pressure vessel analysis series 4 of 5. Mesh seeding, meshing, glue contact

Femap Nastran pressure vessel analysis series 4 of 5. Mesh seeding, meshing, glue contact

Femap Nastran pressure vessel analysis series 3 of 5. Free edges, hole sizing, stitching, elements

Femap Nastran pressure vessel analysis series 3 of 5. Free edges, hole sizing, stitching, elements

Femap Nastran pressure vessel analysis series 2 of 5. Midsurface, geometry editing

Femap Nastran pressure vessel analysis series 2 of 5. Midsurface, geometry editing

Femap Nastran pressure vessel analysis series 1 of 5. Defeaturing and simplifying a geometry

Femap Nastran pressure vessel analysis series 1 of 5. Defeaturing and simplifying a geometry

Femap Nastran Truss Bridge analysis with displacement controlled loads

Femap Nastran Truss Bridge analysis with displacement controlled loads

Femap Nastran tutorial practice beam types and orientation

Femap Nastran tutorial practice beam types and orientation

Femap Nastran tutorial practicing beam type, orientation and offset

Femap Nastran tutorial practicing beam type, orientation and offset

Femap Nastran Beam analysis in detail

Femap Nastran Beam analysis in detail

Femap Nastran - Fix meshing issues with Glued contacts. Learn meshing tools

Femap Nastran - Fix meshing issues with Glued contacts. Learn meshing tools

Femap Nastran - learn meshing tools. Avoid meshing errors with NonManifold addition

Femap Nastran - learn meshing tools. Avoid meshing errors with NonManifold addition

Femap Nastran - Meshing, fixing meshing issues with congruency and coincident node elimination

Femap Nastran - Meshing, fixing meshing issues with congruency and coincident node elimination

Femap Nastran - Learning meshing. Fixing meshing issues by stitching

Femap Nastran - Learning meshing. Fixing meshing issues by stitching

Femap Nastran multiple Analysis' in the same simulation and graphed on the same chart

Femap Nastran multiple Analysis' in the same simulation and graphed on the same chart

Femap Nastran free damped vibration, initial velocity and displacement

Femap Nastran free damped vibration, initial velocity and displacement

Femap Nastran free, damped vibration with initial velocity

Femap Nastran free, damped vibration with initial velocity

Femap Nastran Free undamped vibration, initial velocity and displacement

Femap Nastran Free undamped vibration, initial velocity and displacement

Femap Nastran SDOF free undamped vibration, initial velocity

Femap Nastran SDOF free undamped vibration, initial velocity

Femap Nastran cross-sectional view

Femap Nastran cross-sectional view

Femap Nastran - Defeaturing a toy vehicle. Feature removal, editing, slicing and reflecting

Femap Nastran - Defeaturing a toy vehicle. Feature removal, editing, slicing and reflecting

How to import, measure, and scale in Femap Nastran

How to import, measure, and scale in Femap Nastran

Femap Nastran - beginner's tutorial on loads, constraints and analysis. Not realistic results!

Femap Nastran - beginner's tutorial on loads, constraints and analysis. Not realistic results!

Femap Nastran defeaturing and midsurfacing an I beam

Femap Nastran defeaturing and midsurfacing an I beam

Femap Nastran planar truss setup with 3 elements; merge nodes; results magnification

Femap Nastran planar truss setup with 3 elements; merge nodes; results magnification

Importing Solidworks file into Femap Nastran

Importing Solidworks file into Femap Nastran

Femap Nastran seeding and meshing of a curve

Femap Nastran seeding and meshing of a curve

Femap Nastran Displacement controlled loading

Femap Nastran Displacement controlled loading

Femap Nastran Freebody diagram setup. FBD visualization

Femap Nastran Freebody diagram setup. FBD visualization

FEMAP Nastran 1 ROD element with orphan mesh Analysis

FEMAP Nastran 1 ROD element with orphan mesh Analysis

Femap Nastran - DOF Spring, orphan mesh, and a simple Analysis

Femap Nastran - DOF Spring, orphan mesh, and a simple Analysis

FEMAP Nastran Loads and Constraints

FEMAP Nastran Loads and Constraints

FEMAP Nastran Practice basic geometry setup. Use REFLECT feature

FEMAP Nastran Practice basic geometry setup. Use REFLECT feature

FEMAP Nastran Workplane. How to change orientation?

FEMAP Nastran Workplane. How to change orientation?

FEMAP Nastran introduction, basic shapes, geometry and workplane, extrusion

FEMAP Nastran introduction, basic shapes, geometry and workplane, extrusion

Consider a two-stage cascade refrigeration system operating between the pressure limits of 1.2 MPa

Consider a two-stage cascade refrigeration system operating between the pressure limits of 1.2 MPa

Consider a two-stage cascade refrigeration system operating between the pressure limits of 1.4 Mpa

Consider a two-stage cascade refrigeration system operating between the pressure limits of 1.4 Mpa

A heat pump using refrigerant-134a heats a house by using underground water at 8°C

A heat pump using refrigerant-134a heats a house by using underground water at 8°C

Consider a two-stage cascade refrigeration system operating between the pressure limits of 0.8

Consider a two-stage cascade refrigeration system operating between the pressure limits of 0.8

A heat pump that operates on the ideal vapor compression cycle with refrigerant-134a is used to heat

A heat pump that operates on the ideal vapor compression cycle with refrigerant-134a is used to heat

Refrigerant-134a enters the condenser of a residentialheat pump at 800 kPa and 50 C at a rate of

Refrigerant-134a enters the condenser of a residentialheat pump at 800 kPa and 50 C at a rate of

A heat pump with refrigerant-134a as the working fluid is used to keep a space at 25 C

A heat pump with refrigerant-134a as the working fluid is used to keep a space at 25 C

A heat pump that operates on the ideal vapor compression cycle with refrigerant-134a

A heat pump that operates on the ideal vapor compression cycle with refrigerant-134a

Heat exchanger simulation. Just visual representation. Not a tutorial

Heat exchanger simulation. Just visual representation. Not a tutorial

An actual refrigerator operates on the vapor compression refrigeration cycle with refrigerant-22

An actual refrigerator operates on the vapor compression refrigeration cycle with refrigerant-22

The manufacturer of an air conditioner claims a seasonal energy efficiency ratio (SEER) of 16

The manufacturer of an air conditioner claims a seasonal energy efficiency ratio (SEER) of 16

A refrigerator uses refrigerant-134a as the working fluid and operates on the ideal vapor-compress

A refrigerator uses refrigerant-134a as the working fluid and operates on the ideal vapor-compress

Refrigerant-134a enters the compressor of a refrigerator at 100 kPa and -20 C at a rate of 0.5

Refrigerant-134a enters the compressor of a refrigerator at 100 kPa and -20 C at a rate of 0.5

A commercial refrigerator with refrigerant-134a as the working fluid is used to keep the refrigerate

A commercial refrigerator with refrigerant-134a as the working fluid is used to keep the refrigerate

Refrigerant-134a enters the compressor of a refrigerator as superheated vapor at 0.20 MPa and -5 C

Refrigerant-134a enters the compressor of a refrigerator as superheated vapor at 0.20 MPa and -5 C

Consider a 300 kJ/min refrigeration system that operates on an ideal vapor-compression refrigeration

Consider a 300 kJ/min refrigeration system that operates on an ideal vapor-compression refrigeration

An ideal vapor-compression refrigeration cycle thatuses refrigerant-134a as its working fluid

An ideal vapor-compression refrigeration cycle thatuses refrigerant-134a as its working fluid

A refrigerator operates on the ideal vapor-compressionrefrigeration cycle and uses refrigerant-134a

A refrigerator operates on the ideal vapor-compressionrefrigeration cycle and uses refrigerant-134a

An ice-making machine operates on the ideal vapor-compression cycle, using refrigerant-134a

An ice-making machine operates on the ideal vapor-compression cycle, using refrigerant-134a

Refrigerant-134a enters the condenser of a steady-flow Carnot refrigerator as a saturated vapor at

Refrigerant-134a enters the condenser of a steady-flow Carnot refrigerator as a saturated vapor at

A steady-flow Carnot refrigeration cycle uses refrigerant R-134a as the working fluid.

A steady-flow Carnot refrigeration cycle uses refrigerant R-134a as the working fluid.

Complete the table below on the basis of the conservationof energy principle for a closed system.

Complete the table below on the basis of the conservationof energy principle for a closed system.

A piston–cylinder device contains 50 kg of water at 250 kPa and 25 C. The cross-sectional area

A piston–cylinder device contains 50 kg of water at 250 kPa and 25 C. The cross-sectional area

An ideal gas undergoes two processes in a piston-cylinder device as follows:1-2 Polytropic compressi

An ideal gas undergoes two processes in a piston-cylinder device as follows:1-2 Polytropic compressi

0.75 kg of water that is initially at 0.5 MPa and 30 percent quality occupies a spring-loaded piston

0.75 kg of water that is initially at 0.5 MPa and 30 percent quality occupies a spring-loaded piston

1 kg of water that is initially at 90 C with a quality of 10percent occupies a spring-loaded

1 kg of water that is initially at 90 C with a quality of 10percent occupies a spring-loaded

A piston–cylinder device contains 0.15 kg of air initially at 2 MPa and 350 C. The air is first

A piston–cylinder device contains 0.15 kg of air initially at 2 MPa and 350 C. The air is first

Hydrogen is contained in a piston–cylinder device at 14.7 psia and 15 ft^3 . At this state a linear

Hydrogen is contained in a piston–cylinder device at 14.7 psia and 15 ft^3 . At this state a linear

A piston–cylinder device initially contains 0.4 kgof nitrogen gas at 160 kPa and 140 C. The nitrogen

A piston–cylinder device initially contains 0.4 kgof nitrogen gas at 160 kPa and 140 C. The nitrogen

The rear window of an automobile is defogged by attaching a thin, transparent, film-type heating

The rear window of an automobile is defogged by attaching a thin, transparent, film-type heating

The rear window of an automobile is defogged by passing warm air over its inner surface.

The rear window of an automobile is defogged by passing warm air over its inner surface.

A new building to be located in a cold climate is being designed with a basement that has an L=200mm

A new building to be located in a cold climate is being designed with a basement that has an L=200mm

Consider the plane wall of Figure 3.1, separating hot and cold fluids at temperatures T ∾,1 and

Consider the plane wall of Figure 3.1, separating hot and cold fluids at temperatures T ∾,1 and

Mustang Mach-E over the air update-It is actually a thing

Mustang Mach-E over the air update-It is actually a thing

During an expansion process the pressure of a gas changes from 15 to 100 psia according to the rel

During an expansion process the pressure of a gas changes from 15 to 100 psia according to the rel

frictionless piston–cylinder device contains 5 kg of nitrogen at 100 kPa and 250 K. Nitrogen

frictionless piston–cylinder device contains 5 kg of nitrogen at 100 kPa and 250 K. Nitrogen

A gas is compressed from an initial volume of 0.42 m3 to a final volume of 0.12 m3. During the quasi

A gas is compressed from an initial volume of 0.42 m3 to a final volume of 0.12 m3. During the quasi

A mass of 1.5 kg of air at 120 kPa and 24 C is contained in a gas-tight frictionless piston cylinder

A mass of 1.5 kg of air at 120 kPa and 24 C is contained in a gas-tight frictionless piston cylinder

Calculate the efficiency of the collector described in Problem 1 on March 1 at a latitude of 40°N

Calculate the efficiency of the collector described in Problem 1 on March 1 at a latitude of 40°N

Calculate the heat-removal factor for a collector having an overall heat-loss coefficient of 6 W/m2K

Calculate the heat-removal factor for a collector having an overall heat-loss coefficient of 6 W/m2K

A house has a composite wall of wood, fiberglass insulation, and plaster board, as indicated in the

A house has a composite wall of wood, fiberglass insulation, and plaster board, as indicated in the

Argon is compressed in a polytropic process with n=1.2 from 120 kPa and 10 C to 800 kPa in a piston

Argon is compressed in a polytropic process with n=1.2 from 120 kPa and 10 C to 800 kPa in a piston

A piston–cylinder device initially contains 0.07 m^3of Nitrogen gas at 130 kPa and 120 C

A piston–cylinder device initially contains 0.07 m^3of Nitrogen gas at 130 kPa and 120 C

The volume of 1 kg of helium in a piston-cylinderdevice is initially 5 m^3.

The volume of 1 kg of helium in a piston-cylinderdevice is initially 5 m^3.

A rigid tank initially contains 1.4-kg saturated liquidwater at 200 C. At this state, 25 percent

A rigid tank initially contains 1.4-kg saturated liquidwater at 200 C. At this state, 25 percent

A rigid vessel contains 8 kg of refrigerant-134a at 500 kPa and 120 C. Determine the volume of the

A rigid vessel contains 8 kg of refrigerant-134a at 500 kPa and 120 C. Determine the volume of the

How much error would one expect in determiningthe specific enthalpy by applying the incompressible

How much error would one expect in determiningthe specific enthalpy by applying the incompressible

A piston-cylinder device initially contains 1.4-kg saturated liquid water at 200 C

A piston-cylinder device initially contains 1.4-kg saturated liquid water at 200 C

Consider an experimental flat-plate collector with A = 4 m^2 being tested during the evening in

Consider an experimental flat-plate collector with A = 4 m^2 being tested during the evening in

Consider a 5.6 m^2 collector with F’ = 0.893, Uc = 3.85 W/m^2-K ( Ta)s = 0.79 and a flow rate

Consider a 5.6 m^2 collector with F’ = 0.893, Uc = 3.85 W/m^2-K ( Ta)s = 0.79 and a flow rate

y’’ - y’ + y = 0 solve the homogeneous ode

y’’ - y’ + y = 0 solve the homogeneous ode

y'=y^2x^3 Solve the differential equation

y'=y^2x^3 Solve the differential equation

y^4y'=x+1. Solve the differential equation.

y^4y'=x+1. Solve the differential equation.

Y’’+4y’+4y=0

Y’’+4y’+4y=0

A PV battery system has an end-to-end efficiency of 77%. The system is used to run an all-AC load

A PV battery system has an end-to-end efficiency of 77%. The system is used to run an all-AC load

A 5-ft rigid tank contains 5 lbm of water at 20 psia.

A 5-ft rigid tank contains 5 lbm of water at 20 psia.

Water is boiled in a pan covered with a poorly fitting lid at a specified location

Water is boiled in a pan covered with a poorly fitting lid at a specified location

𝑥 𝑑𝑥− 𝑦^2 𝑑𝑦=0

𝑥 𝑑𝑥− 𝑦^2 𝑑𝑦=0

Using the simple design method, design a PV system using 60 W, 12 V panels and 145 A-hr, 6 V

Using the simple design method, design a PV system using 60 W, 12 V panels and 145 A-hr, 6 V

Estimate the daily load and the peak power required by a PV system that have the following equipment

Estimate the daily load and the peak power required by a PV system that have the following equipment

A rigid tank contains water vapor at 250 C and anunknown pressure

A rigid tank contains water vapor at 250 C and anunknown pressure

A 5-ft3 rigid tank contains a saturated mixture ofrefrigerant-134a at 50 psia

A 5-ft3 rigid tank contains a saturated mixture ofrefrigerant-134a at 50 psia

A piston–cylinder device contains 0.6 kg of steam at 200 C and 0.5 MPa. Steam is cooled at constant

A piston–cylinder device contains 0.6 kg of steam at 200 C and 0.5 MPa. Steam is cooled at constant

Superheated water vapor at 180 psia and 500 F is allowed to cool at constant volume until the temp

Superheated water vapor at 180 psia and 500 F is allowed to cool at constant volume until the temp

If a PV array has a maximum power output of 10 W under an insolation level of 600 W/m2

If a PV array has a maximum power output of 10 W under an insolation level of 600 W/m2

Water is being heated in a vertical piston–cylinder device. The piston has a mass of 40 kg

Water is being heated in a vertical piston–cylinder device. The piston has a mass of 40 kg

At what efficiency is a PV array running if insolation on the collector is 650 W/m2, the total

At what efficiency is a PV array running if insolation on the collector is 650 W/m2, the total

Saturated steam coming off the turbine of a steam power plant at 40 C condenses on the outside

Saturated steam coming off the turbine of a steam power plant at 40 C condenses on the outside

What is the theoretical maximum efficiency of conversion if bluelight of wavelength 0.45

What is the theoretical maximum efficiency of conversion if bluelight of wavelength 0.45

Find the wavelength of radiation whose photons have energy equal to the band gap of GaAs

Find the wavelength of radiation whose photons have energy equal to the band gap of GaAs

In the central receiver concept of solar energy collection, a large number of heliostats (reflectors

In the central receiver concept of solar energy collection, a large number of heliostats (reflectors

The normal spectral absorptivity of a SiO–Al selective surface can be approximated as shown by the

The normal spectral absorptivity of a SiO–Al selective surface can be approximated as shown by the

Consider an opaque horizontal plate that is well insulated on its back side

Consider an opaque horizontal plate that is well insulated on its back side

An overhead 25-m-long, uninsulated industrial steam pipe of 100-mm diameter is routed through

An overhead 25-m-long, uninsulated industrial steam pipe of 100-mm diameter is routed through

What is the annual loan payment on a loan of $20,000 which is borrowed at 8.5% for 15 years if all

What is the annual loan payment on a loan of $20,000 which is borrowed at 8.5% for 15 years if all

Compute the present worth of a cost that is expected to be $5700 in 10 years if the market rate

Compute the present worth of a cost that is expected to be $5700 in 10 years if the market rate

What is the present worth of $500 in 10 years if market discount rate is 6%?

What is the present worth of $500 in 10 years if market discount rate is 6%?

Saving a cute lizard from the cat!

Saving a cute lizard from the cat!

Water at a rate of 45,500 kg/h is heated from 80 to 150C in a heat exchanger having two shell passes

Water at a rate of 45,500 kg/h is heated from 80 to 150C in a heat exchanger having two shell passes

The condenser of a steam power plant contains N=1000 brass tubes (kt=110 W/m K) each of inner and

The condenser of a steam power plant contains N=1000 brass tubes (kt=110 W/m K) each of inner and

Palmtree slide jumper. Huge waterslide

Palmtree slide jumper. Huge waterslide

A dormitory at a large university, built 50 years ago, has exterior walls constructed of Ls =25mm

A dormitory at a large university, built 50 years ago, has exterior walls constructed of Ls =25mm

A steel tube (k=50 W/m K) of inner and outer diameters Di=20 mm and Do =26 mm, respectively, is used

A steel tube (k=50 W/m K) of inner and outer diameters Di=20 mm and Do =26 mm, respectively, is used

In a fire-tube boiler, hot products of combustion flowing through an array of thin-walled tubes are

In a fire-tube boiler, hot products of combustion flowing through an array of thin-walled tubes are

Example of Fouling on Heat exchangers

Example of Fouling on Heat exchangers

A rigid tank with a volume of 1.8 m3 contains 15 kg ofsaturated liquid–vapor mixture of water at 90C

A rigid tank with a volume of 1.8 m3 contains 15 kg ofsaturated liquid–vapor mixture of water at 90C

Water initially at 200 kPa and 300 C is contained in a piston-cylinder device fitted with stops

Water initially at 200 kPa and 300 C is contained in a piston-cylinder device fitted with stops

Interpolation for Thermodynamics

Interpolation for Thermodynamics

100-kg of R-134a at 200 kPa are contained in a piston cylinder device whose volume is 12.322

100-kg of R-134a at 200 kPa are contained in a piston cylinder device whose volume is 12.322

10-kg of R-134a at 300 kPa fills a rigid container whose volume is 14 L

10-kg of R-134a at 300 kPa fills a rigid container whose volume is 14 L

A 9 m3 container is filled with 300 kg of R-134a at 10 C. What is the specific enthalpy

A 9 m3 container is filled with 300 kg of R-134a at 10 C. What is the specific enthalpy

10-kg of R-134a fill a 1.348 m3 rigid container at an initial temperature of -40 C

10-kg of R-134a fill a 1.348 m3 rigid container at an initial temperature of -40 C

The Las Vegas strip on the map of the Mustang Mach-E

The Las Vegas strip on the map of the Mustang Mach-E

100 grams of R-134a initially fill a weighted piston cylinder device

100 grams of R-134a initially fill a weighted piston cylinder device

Ford Mustang Mach-E Insurance - Costco car insurance

Ford Mustang Mach-E Insurance - Costco car insurance

Mustang Mach-E Tire prices

Mustang Mach-E Tire prices

Mustang Mach-E Curb Rash test

Mustang Mach-E Curb Rash test

Mustang Mach-E range test (hypermiling). What is the mileage of the Mach-E? 200? 300? 400?

Mustang Mach-E range test (hypermiling). What is the mileage of the Mach-E? 200? 300? 400?

EV rebate fiasco - Ford Mustang Mach-E

EV rebate fiasco - Ford Mustang Mach-E

Ford Mustang Mach-E blows a fuse

Ford Mustang Mach-E blows a fuse

A square isothermal chip is of width w=5 mm on a side and is mounted in a substrate such that its

A square isothermal chip is of width w=5 mm on a side and is mounted in a substrate such that its

What is the thickness required of a masonry wall having thermal conductivity 0.75 W/m K if the heat

What is the thickness required of a masonry wall having thermal conductivity 0.75 W/m K if the heat

A glass window of width W=1 m and height H=2 m is 5 mm thick and has a thermal conductivity of k=1.4

A glass window of width W=1 m and height H=2 m is 5 mm thick and has a thermal conductivity of k=1.4

The inner and outer surface temperatures of a glass window 5 mm thick are 15C and 5C

The inner and outer surface temperatures of a glass window 5 mm thick are 15C and 5C

The concrete slab of a basement is 11 m long, 8 m wide, and 0.20 m thick

The concrete slab of a basement is 11 m long, 8 m wide, and 0.20 m thick

The heat flux that is applied to the left face of a plane wall is q” = 20 W/ 𝑚^2

The heat flux that is applied to the left face of a plane wall is q” = 20 W/ 𝑚^2

The thermal conductivity of a sheet of rigid, extruded insulation is reported to be k = 0.029 W/mK

The thermal conductivity of a sheet of rigid, extruded insulation is reported to be k = 0.029 W/mK

Consider both hydrodynamically and thermally fully developed steady laminar flow, constant property

Consider both hydrodynamically and thermally fully developed steady laminar flow, constant property

In a certain viscous incompressible flow field with zero body forces the velocity components are u=

In a certain viscous incompressible flow field with zero body forces the velocity components are u=

The exposed surface of a plane wall of thermal conductivity k is subjected to microwave radiation

The exposed surface of a plane wall of thermal conductivity k is subjected to microwave radiation

Cute baby laughing

Cute baby laughing

Consider a steady laminar and fully developed flow through a straight pipe of circular cross-section

Consider a steady laminar and fully developed flow through a straight pipe of circular cross-section

Two immiscible fluids of equal density are flowing down an inclined surface

Two immiscible fluids of equal density are flowing down an inclined surface

Volumetric flow rate between two parallel plates with one plate as fixed and one is moving

Volumetric flow rate between two parallel plates with one plate as fixed and one is moving

Vertical flow between two parallel plates. A viscous, incompressible fluid flow between two infinite

Vertical flow between two parallel plates. A viscous, incompressible fluid flow between two infinite

Find the velocity profile for a falling film of water over a solid vertical wall, Shear stress, Vmax

Find volumetric flow rate between inclined parallel plates. Navier-Stokes. Velocity profile

Fluid flow on an inclined surface (inclined channel). Using the conservation laws.

Fluid flow on an inclined surface (inclined channel). Using the conservation laws.

Baby laughing at sneezing sister

Baby laughing at sneezing sister

Bessel Function x^2y''+xy'+(9x^2-4)y=0. Bessel Function of the Second kind.

Bessel Function x^2y''+xy'+(9x^2-4)y=0. Bessel Function of the Second kind.

Bessel Function 9x^2y''+9xy'+(9x^2-1/4)y=0. Bessel Function of the first kind.

Bessel Function 9x^2y''+9xy'+(9x^2-1/4)y=0. Bessel Function of the first kind.

Bessel Function x^2y''+xy'+(x^2-1/9)y=0. Bessel Function of the first kind

Bessel Function x^2y''+xy'+(x^2-1/9)y=0. Bessel Function of the first kind

y'''+3y''+3y'+y=2e^-t Solve the ODE.

y'''+3y''+3y'+y=2e^-t Solve the ODE.

Solve the NON-Homogeneous system of differential equations. Use variation of parameters method

Solve the NON-Homogeneous system of differential equations. Use variation of parameters method

Solve the defective system of ODE. Use eigen values and eigen vectors.

Solve the defective system of ODE. Use eigen values and eigen vectors.

Solve the system of differential equations. Use eigen values and eigen vectors. x'=-5y; y'=2x+2y

Solve the system of differential equations. Use eigen values and eigen vectors. x'=-5y; y'=2x+2y

Solve the system of ODE. Find eigen values and find eigen vectors

Solve the system of ODE. Find eigen values and find eigen vectors

3D simulation for water flow. CFD Post animation in Ansys Fluent

3D simulation for water flow. CFD Post animation in Ansys Fluent

Water flow simulation into a collection chamber. Flow at the symmetry line.

Water flow simulation into a collection chamber. Flow at the symmetry line.

(x^2 +lny)dx+x/y dy=0 solve with the Exact method

(x^2 +lny)dx+x/y dy=0 solve with the Exact method

(x^6 + y^6)+6xy dy/dx = 0 solve using the Exact method

(x^6 + y^6)+6xy dy/dx = 0 solve using the Exact method

Ansys Fluent - Volume of Fluid setup for a water chamber tutorial

Ansys Fluent - Volume of Fluid setup for a water chamber tutorial

2xy+9x^2 + (2y+x^2 +1)y'=0 Exact method

2xy+9x^2 + (2y+x^2 +1)y'=0 Exact method

y''-4y'+4y=6e^(2t)+8t

y''-4y'+4y=6e^(2t)+8t

y"'-2y"-4y'+8y=0

y"'-2y"-4y'+8y=0

y"-4y'+4y=0 Homogeneous ODE with two repeating roots

y"-4y'+4y=0 Homogeneous ODE with two repeating roots

4y''-8y'+3y=0 Solve the initial value problem: y(0)=2 ; y'(0)=0.5

4y''-8y'+3y=0 Solve the initial value problem: y(0)=2 ; y'(0)=0.5

ty'-2y=2t^4 use the Integrating factor method

ty'-2y=2t^4 use the Integrating factor method

Estimate visual range. The historic equation for estimating visibility is the Koschmeider equation:

Estimate visual range. The historic equation for estimating visibility is the Koschmeider equation:

y"+4y=sin2t using the undetermined coefficient method

y"+4y=sin2t using the undetermined coefficient method

The NAAQS for fine particles (PM2.5, annual average) is 12 μg/m3. Every time you breathe, you take

The NAAQS for fine particles (PM2.5, annual average) is 12 μg/m3. Every time you breathe, you take

Industrial representatives claim that the NAAQS for S02 is so low that one exceeds it if one strikes

Industrial representatives claim that the NAAQS for S02 is so low that one exceeds it if one strikes

Sqrt(x^2+1)y'=6x Separation of variables method

Sqrt(x^2+1)y'=6x Separation of variables method

Natural convection from a heated cylinder Ansys animation

Natural convection from a heated cylinder Ansys animation

y"+9y=2cos(3x) Solve by Undetermined coefficient method

y"+9y=2cos(3x) Solve by Undetermined coefficient method

y"+9y=2cos(t) Solved by Undetermined coefficient method

y"+9y=2cos(t) Solved by Undetermined coefficient method

ty'+y=t+2t lnt Use the integrating factor method to solve the ODE and the IVP

ty'+y=t+2t lnt Use the integrating factor method to solve the ODE and the IVP

Convert Euler-Cauchy equation to constant coefficient linear ODE. x^3y"+x^2y'-4xy=1+xcos(lnx)

Convert Euler-Cauchy equation to constant coefficient linear ODE. x^3y"+x^2y'-4xy=1+xcos(lnx)