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MathandBolt
Приєднався 1 лют 2019
Hey there, future math wizards! Ever wondered why math is so important? It's the secret sauce that lets you dive deep into science and engineering without getting stuck on the numbers. And guess what? This channel is here to help you master that math magic!
Whether you're tackling AP classes or navigating your first years of college, we've got your back. We're talking algebra, calculus (yep, all the way up to calc 3), applied math, and even engineering mathematics. Don't worry if you need a high school refresher - we've got those bases covered too. And for all you physics enthusiasts, we've got some math-heavy content just for you.
The best part? We're not just talking theory. We've got over 2000 problem walkthroughs waiting for you, and we're adding new ones every single day. Our goal? To make sure you've got all the practice you need to crush those exams and really get this stuff.
Let's do this!
Whether you're tackling AP classes or navigating your first years of college, we've got your back. We're talking algebra, calculus (yep, all the way up to calc 3), applied math, and even engineering mathematics. Don't worry if you need a high school refresher - we've got those bases covered too. And for all you physics enthusiasts, we've got some math-heavy content just for you.
The best part? We're not just talking theory. We've got over 2000 problem walkthroughs waiting for you, and we're adding new ones every single day. Our goal? To make sure you've got all the practice you need to crush those exams and really get this stuff.
Let's do this!
Lec | Straight Lines | Transformation of General Equation in Different Standard Form
Lec | Straight Lines | Transformation of General Equation in Different Standard Form
#coordinategeometry #straightlines
Welcome to this academic journey into the transformation of the general equation of a line into various standard forms! In this video, we delve into the following forms:
1. Point-Slope Form 📈
We start with understanding how to convert the general equation into the point-slope form, which is particularly useful when you know a point on the line and its slope.
2. Normal Form 🧮
Next, we explore the normal form, which involves the perpendicular distance from the origin to the line and the angle the normal makes with the positive x-axis.
3. Intercept Form ✂️
Finally, we cover the intercept form, which makes it easy to identify the x-intercept and y-intercept of the line.
Each transformation is meticulously explained with step-by-step examples to ensure a thorough understanding. Whether you're a student, educator, or math enthusiast, this video will enhance your comprehension of these fundamental concepts in geometry.
🔔 Don't forget to subscribe and hit the notification bell to stay updated with more educational content. Feel free to leave your questions and comments below-we love hearing from you!
========================================================
About
The mission of MathandBolt is to create a library of lectures that provide simple explanations for many complex mathematical and scientific topics.
We believe that any difficult topic can be explained in simple terms.
You can browse and watch our library of videos, and work on tons of practice problems. Whether broadening your knowledge or trying to ace a college course, MnB is there with you.
========================================================
👉 There are multiple ways you can contribute to the support of my channel 😊
➡️ Website: www.mathandbolt.com/
➡️ Subscribe to us on UA-cam: ua-cam.com/channels/5vq.html...
➡️Instagram: mathandbolt?igs...
#coordinategeometry #straightlines
Welcome to this academic journey into the transformation of the general equation of a line into various standard forms! In this video, we delve into the following forms:
1. Point-Slope Form 📈
We start with understanding how to convert the general equation into the point-slope form, which is particularly useful when you know a point on the line and its slope.
2. Normal Form 🧮
Next, we explore the normal form, which involves the perpendicular distance from the origin to the line and the angle the normal makes with the positive x-axis.
3. Intercept Form ✂️
Finally, we cover the intercept form, which makes it easy to identify the x-intercept and y-intercept of the line.
Each transformation is meticulously explained with step-by-step examples to ensure a thorough understanding. Whether you're a student, educator, or math enthusiast, this video will enhance your comprehension of these fundamental concepts in geometry.
🔔 Don't forget to subscribe and hit the notification bell to stay updated with more educational content. Feel free to leave your questions and comments below-we love hearing from you!
========================================================
About
The mission of MathandBolt is to create a library of lectures that provide simple explanations for many complex mathematical and scientific topics.
We believe that any difficult topic can be explained in simple terms.
You can browse and watch our library of videos, and work on tons of practice problems. Whether broadening your knowledge or trying to ace a college course, MnB is there with you.
========================================================
👉 There are multiple ways you can contribute to the support of my channel 😊
➡️ Website: www.mathandbolt.com/
➡️ Subscribe to us on UA-cam: ua-cam.com/channels/5vq.html...
➡️Instagram: mathandbolt?igs...
Переглядів: 5
Відео
21 | Points And Their Co-ordinates | Locus And Equation To A Locus - Worked Out Problem
Переглядів 115 годин тому
21 | Points And Their Co-ordinates | Locus And Equation To A Locus - Worked Out Problem #precalculus #coordinategeometry #appliedmathematics Hey there, folks! 👋 Welcome back to MathandBolt! 📚 In today's video, we're diving deep into the fascinating world of points, their coordinates, and the intriguing concept of locus and equations to a locus. 🧐 📌 Understanding points and their coordinates is ...
24 | Straight Lines (Co-ordinate Geometry) | General Form Of A Line - Worked Out Problem #24
Переглядів 42 години тому
24 | Straight Lines (Co-ordinate Geometry) | General Form Of A Line - Worked Out Problem #24 #coordinategeometry #straightlines 📐 Diving into the Distance Form of a Line! In this video, I'll walk you through the fascinating concept of the distance form of a line. We'll explore the equation: [\frac{{x - {x_1}}}{{\cos \theta }} = \frac{{y - {y_1}}}{{\sin \theta }} = r] I'll break down each compon...
20 | Points And Their Co-ordinates | Locus And Equation To A Locus - Worked Out Problem
Переглядів 22 години тому
20 | Points And Their Co-ordinates | Locus And Equation To A Locus - Worked Out Problem #precalculus #coordinategeometry #appliedmathematics Hey there, folks! 👋 Welcome back to MathandBolt! 📚 In today's video, we're diving deep into the fascinating world of points, their coordinates, and the intriguing concept of locus and equations to a locus. 🧐 📌 Understanding points and their coordinates is ...
23 | Straight Lines (Co-ordinate Geometry) | General Form Of A Line - Worked Out Problem #23
Переглядів 74 години тому
23 | Straight Lines (Co-ordinate Geometry) | General Form Of A Line - Worked Out Problem #23 #coordinategeometry #straightlines 📐 Diving into the Distance Form of a Line! In this video, I'll walk you through the fascinating concept of the distance form of a line. We'll explore the equation: [\frac{{x - {x_1}}}{{\cos \theta }} = \frac{{y - {y_1}}}{{\sin \theta }} = r] I'll break down each compon...
19 | Points And Their Co-ordinates | Locus And Equation To A Locus - Worked Out Problem
Переглядів 14 години тому
19 | Points And Their Co-ordinates | Locus And Equation To A Locus - Worked Out Problem #precalculus #coordinategeometry #appliedmathematics Hey there, folks! 👋 Welcome back to MathandBolt! 📚 In today's video, we're diving deep into the fascinating world of points, their coordinates, and the intriguing concept of locus and equations to a locus. 🧐 📌 Understanding points and their coordinates is ...
22 | Straight Lines (Co-ordinate Geometry) | General Form Of A Line - Worked Out Problem #22
Переглядів 107 годин тому
22 | Straight Lines (Co-ordinate Geometry) | General Form Of A Line - Worked Out Problem #22 #coordinategeometry #straightlines 📐 Diving into the Distance Form of a Line! In this video, I'll walk you through the fascinating concept of the distance form of a line. We'll explore the equation: [\frac{{x - {x_1}}}{{\cos \theta }} = \frac{{y - {y_1}}}{{\sin \theta }} = r] I'll break down each compon...
18 | Points And Their Co-ordinates | Locus And Equation To A Locus - Worked Out Problem
Переглядів 67 годин тому
18 | Points And Their Co-ordinates | Locus And Equation To A Locus - Worked Out Problem #precalculus #coordinategeometry #appliedmathematics Hey there, folks! 👋 Welcome back to MathandBolt! 📚 In today's video, we're diving deep into the fascinating world of points, their coordinates, and the intriguing concept of locus and equations to a locus. 🧐 📌 Understanding points and their coordinates is ...
21 | Straight Lines (Co-ordinate Geometry) | General Form Of A Line - Worked Out Problem #21
Переглядів 119 годин тому
21 | Straight Lines (Co-ordinate Geometry) | General Form Of A Line - Worked Out Problem #21 #coordinategeometry #straightlines 📐 Diving into the Distance Form of a Line! In this video, I'll walk you through the fascinating concept of the distance form of a line. We'll explore the equation: [\frac{{x - {x_1}}}{{\cos \theta }} = \frac{{y - {y_1}}}{{\sin \theta }} = r] I'll break down each compon...
17 | Points And Their Co-ordinates | Locus And Equation To A Locus - Worked Out Problem
Переглядів 479 годин тому
17 | Points And Their Co-ordinates | Locus And Equation To A Locus - Worked Out Problem #precalculus #coordinategeometry #appliedmathematics Hey there, folks! 👋 Welcome back to MathandBolt! 📚 In today's video, we're diving deep into the fascinating world of points, their coordinates, and the intriguing concept of locus and equations to a locus. 🧐 📌 Understanding points and their coordinates is ...
20 | Straight Lines (Co-ordinate Geometry) | General Form Of A Line - Worked Out Problem #20
Переглядів 412 годин тому
20 | Straight Lines (Co-ordinate Geometry) | General Form Of A Line - Worked Out Problem #20 #coordinategeometry #straightlines 📐 Diving into the Distance Form of a Line! In this video, I'll walk you through the fascinating concept of the distance form of a line. We'll explore the equation: [\frac{{x - {x_1}}}{{\cos \theta }} = \frac{{y - {y_1}}}{{\sin \theta }} = r] I'll break down each compon...
16 | Points And Their Co-ordinates | Locus And Equation To A Locus - Worked Out Problem
Переглядів 712 годин тому
16 | Points And Their Co-ordinates | Locus And Equation To A Locus - Worked Out Problem #precalculus #coordinategeometry #appliedmathematics Hey there, folks! 👋 Welcome back to MathandBolt! 📚 In today's video, we're diving deep into the fascinating world of points, their coordinates, and the intriguing concept of locus and equations to a locus. 🧐 📌 Understanding points and their coordinates is ...
19 | Straight Lines (Co-ordinate Geometry) | General Form Of A Line - Worked Out Problem #19
Переглядів 714 годин тому
19 | Straight Lines (Co-ordinate Geometry) | General Form Of A Line - Worked Out Problem #19 #coordinategeometry #straightlines 📐 Diving into the Distance Form of a Line! In this video, I'll walk you through the fascinating concept of the distance form of a line. We'll explore the equation: [\frac{{x - {x_1}}}{{\cos \theta }} = \frac{{y - {y_1}}}{{\sin \theta }} = r] I'll break down each compon...
15 | Points And Their Co-ordinates | Locus And Equation To A Locus - Worked Out Problem
Переглядів 714 годин тому
15 | Points And Their Co-ordinates | Locus And Equation To A Locus - Worked Out Problem #precalculus #coordinategeometry #appliedmathematics Hey there, folks! 👋 Welcome back to MathandBolt! 📚 In today's video, we're diving deep into the fascinating world of points, their coordinates, and the intriguing concept of locus and equations to a locus. 🧐 📌 Understanding points and their coordinates is ...
18 | Straight Lines (Co-ordinate Geometry) | General Form Of A Line - Worked Out Problem #18
Переглядів 516 годин тому
18 | Straight Lines (Co-ordinate Geometry) | General Form Of A Line - Worked Out Problem #18 #coordinategeometry #straightlines 📐 Diving into the Distance Form of a Line! In this video, I'll walk you through the fascinating concept of the distance form of a line. We'll explore the equation: [\frac{{x - {x_1}}}{{\cos \theta }} = \frac{{y - {y_1}}}{{\sin \theta }} = r] I'll break down each compon...
14 | Points And Their Co-ordinates | Locus And Equation To A Locus - Worked Out Problem
Переглядів 616 годин тому
14 | Points And Their Co-ordinates | Locus And Equation To A Locus - Worked Out Problem
17 | Straight Lines (Co-ordinate Geometry) | General Form Of A Line - Worked Out Problem #17
Переглядів 719 годин тому
17 | Straight Lines (Co-ordinate Geometry) | General Form Of A Line - Worked Out Problem #17
13 | Points And Their Co-ordinates | Locus And Equation To A Locus - Worked Out Problem
Переглядів 119 годин тому
13 | Points And Their Co-ordinates | Locus And Equation To A Locus - Worked Out Problem
1.12 | Sets | Introduction to Sets - Problem 12
Переглядів 619 годин тому
1.12 | Sets | Introduction to Sets - Problem 12
1.11 | Sets | Introduction to Sets - Problem 11
Переглядів 719 годин тому
1.11 | Sets | Introduction to Sets - Problem 11
1.10 | Sets | Introduction to Sets - Problem 10
Переглядів 719 годин тому
1.10 | Sets | Introduction to Sets - Problem 10
1.9 | Sets | Introduction to Sets - Problem 9
Переглядів 1119 годин тому
1.9 | Sets | Introduction to Sets - Problem 9
1.8 | Sets | Introduction to Sets - Problem 8
Переглядів 919 годин тому
1.8 | Sets | Introduction to Sets - Problem 8
1.7 | Sets | Introduction to Sets - Problem 7
Переглядів 919 годин тому
1.7 | Sets | Introduction to Sets - Problem 7
1.13 | Sets | Introduction to Sets - Problem 13
Переглядів 719 годин тому
1.13 | Sets | Introduction to Sets - Problem 13
1.14 | Sets | Introduction to Sets - Problem 14
Переглядів 1019 годин тому
1.14 | Sets | Introduction to Sets - Problem 14
1.6 | Sets | Introduction to Sets - Problem 6
Переглядів 819 годин тому
1.6 | Sets | Introduction to Sets - Problem 6
1.5 | Sets | Introduction to Sets - Problem 5
Переглядів 1419 годин тому
1.5 | Sets | Introduction to Sets - Problem 5
1.4 | Sets | Introduction to Sets - Problem 4
Переглядів 1419 годин тому
1.4 | Sets | Introduction to Sets - Problem 4
1.3 | Sets | Introduction to Sets - Problem 3
Переглядів 1119 годин тому
1.3 | Sets | Introduction to Sets - Problem 3
Solution for this problem please- Suppose x and y are two real numbers such that the rth mean between 2x and y when n arithmetic means are inserted between them in both the cases. Show that (n+1) /r - y/x = 1.
Thank you 😊 for your help
like the music :)
Looks like a job for the shoelace formula.
What app do you use to write?
Openboard
What program do you use to write?
Openboard
Good teaching sir❤❤❤ From deevige classes bangalore
Your support means a lot ✨
For grade school children who are not conversant with linear algebra, this problem can be solved graphically. A rectangle with sides parallel to the X and Y axes, bounding the given triangle, will have an area of 9x7=63. There are three triangles in the corners of this rectangle, exterior to the original triangle. These triangles will have areas of 1/2 x (9x2)=18/2, 1/2 x (5x2)=10/2, and 1/2 x (7x7)= 49/2. The original triangle then has an area of 63- (18/2 + 10/2 + 49/2) = 49/2.
Beautiful !
MathandBolt, Can we collab?
interesting
Keep it up
May we know what book are you following for this course (Classical Mechanics)?
The core of my lectures comes from the notes I used in my classical mechanics class. To dig deeper on specific topics, I also referenced Goldstein, Spiegel, and Kleppner.
this was very easy to understand.
Thanks man 👍
I'm glad we have finally worked out how to calculate the circumference of a bald head.
🙌🙌👍🏻
Is a reason for the trigonometry is confused. Thanks for demostrate the formula... 🤓
Well explained sir ,thanks ,
Well explained sir ,thanks ,
Promo sm
that was the best and must easiest proof for this formula great job
Pretty good, but it's not centrifugal, but centripetal. Also, this force points towards the center, not outwards
beautiful
Wow! This exercise was well explained and easy to understand. Please, keep it on.
Problems specking English !
What software do you use to write?
Very cool
I solved similarly to the first method The second method was genius 🔥
Pretty interesting identity Obviously the general form is tan(A+B)-tanA-tanB=tan(A+B)xtanAxtanB One thing I think you should do is do the problem with more of a general approach not just a single case of say 8x,6x,2x Still really cool video 🔥
I solved this using the trig identity and using the sinA=x,sinB=y CosA=p,cosB=q It just makes the writing less messy and at last I got sin^2 B as the final solution
... I enjoyed your clear and surprisingly simple/elegant process from L.H.S. to R.H.S. , by introducing just a sudden 1/SQRT(2) ... its simplicity is fascinating! I looked for another way and found ... ( COS8 - SIN8 )/( COS8 + SIN8 ) = TAN(37) ... also starting from L.H.S. and dividing top and bottom by COS8 ... ( 1 - TAN8 )/( 1 + TAN8 ) ... ( TAN45 - TAN8 )/( TAN45 + TAN8 ) .... applying TAN(A - B) = (TANA - TANB) / (1 + TANA*TANB) .... TAN(45 - 8) = ( TAN45 - TAN8 )/( TAN45 + TAN45*TAN8 ) ... TAN45 - TAN8 = ( TAN45 + TAN8 )*TAN(37) ... finally ( TAN45 + TAN8 )*TAN(37)/( TAN45 + TAN8 ) = TAN(37) ... the R.H.S. ... note: TAN45 = 1 , just for the record (lol) ... thank you sir for your continuing math efforts ... Jan-W
... Good day to you sir, With this trigonometric expression you have created a new representative for the number " 0 " ... quite impressive I must say (lol) ... we could also have written ... SIN(A - B) / [ COS(A - B) - SINA*SINB ] + SIN(B - C) / [ COS(B - C) - SINB*SINC ] + SIN(C - A) / [ COS(C - A) - SINC*SINA ] ... now we can observe that the quotients of the terms are not quite the tangents of their angle differences (lol) ... your presentation shows why trigonometry is always a lot of fun and interesting sir ... thank you ... best regards, Jan-W
tan56 can be converted to tan(45+11). From here it takes two steps to prove it.
Thanks for your trigonometric problem 🙏🙏🙏
Thank you for the support!
Thanks for your proof problem of trigonometry.....🙏🙏🙏
Thanks for your quality problem of trigononetry. I always wait for your problem. I will give this problem to my students. Warm regards from Indonesia. 🙏🏻🙏🏻🙏🏻
X=(4/3)
Thanks for this❤
Nice
Can you solve this for me, please Q1/ Ψ(r, 0) = (1/√7)(2ψ100 + ψ210 + ψ211 + √3ψ21,-1) ,Calculate the value of the uncertainty (ΔLxΔLy) and explain in detail. Q2/For the particle of mass m in the one dimensional box with width a, the wave function of the particle at time (t = 0) inside the box is Ψ(x) = Asin(3πx/2a)cos(πx/2a) 1- Find Ψ(x, t > 0). 2- A measurement is made of the energy. What energies can be found? What is the probability of obtaining each value of the energy?
How can I teach maths online
... At about time 2:03 ... 2X - 3 = (X - 3) * A + (X + 6) * B we could also find the values of A & B by ... (1) Set X = 3 ... cancelling A , then 6 - 3 = 9 * B , so B = 1/3 ... (2) Set X = - 6 ... cancelling B , then - 12 - 3 = - 9 * A , so A = 5/3 ... etc ... but of course this is nothing new to you sir ! thank you ... Jan-W
Since x =3 and x=-6 are removable discontinuities, I'm avoiding the substitution method for the problem.
... A good new year's day sir, I guess your presentation regarding partial fractions is completely clear to me, so I have nothing further to comment on and wish you all the best for 2024 with great instructive mathematics ahead, but above all a good HEALTH .... best regards and thank you sir, Jan-W
Thank you! Warm wishes to you as well 😇
... Good day sir, [ SEC(T) - TAN(T) ] / [ SEC(T) - TAN(T) ] + [ TAN(T) - SEC(T) ] / [ TAN(T) - SEC(T) ] = 1 + 1 = 2 , that's my work ... and now on to watching your presentation sir .... thanking you for these very effective knowledge testing exercises ... Jan-W
... Good day to you, The 3rd integral can also be solved as follows ... INT[1/(e^X + 1)]dX .... rewrite the numerator as follows ... 1 = e^X + 1 - e^X ... INT[ (e^X + 1)/(e^X + 1) - e^X/(e^X + 1) ]dX .... INT[ 1 ]dX - INT[ e^X/(e^X + 1) ]dX ... applying INT[ F'(X)/F(X) ]dX = LN I F(X) I + C on the 2nd integral ... X - LN I e^X + 1 I + C ... fascinating to see more strategies to solve the same problem ... thanking you sir for showing me a new solution path for this integral ... Best regards, Jan-W
You can copy paste LaTeX code for the equations in the comment section
... My apologies sir, I made a few stupid typos when typing my trig. work from paper to my comment on your channel, so I corrected my mistakes; while I was evaluating my result ( must be - COS^2(T)/- COS^2(T) = 1 ) I found the typos ... again my apologies ... however my result on paper was indeed 1... anyhow again thank you for your instructive reply .... Best regards, Jan-W
... Good day sir, When observing your exercise I directly think of the " UNIT CIRCLE " ... NUMERATOR : (1) SIN(180 + T) = - SIN(T) (2) COS(90 + T) = - SIN(T) (3) TAN(270 - T) = COT(T) = COS(T)/SIN(T) (4) COT(360 - T) = - COT(T) = - COS(T)/SIN(T) ... DENOMINATOR : (1) SIN(360 - T) = - SIN(T) (2) COS(360 + T) = COS(T) (3) CSC(- T) = - 1/SIN(T) (4) SIN(270 + T) = - COS(T) ... finally multiplying all NUMERATOR factors (1) to (4) ... result - COS^2(T) & DENOMINATOR factors (1) to (4) .... result - COS^2(T) ... so, NUMERATOR result / DENOMINATOR result = - COS^2(T) / - COS^2(T) = 1 ... WOWW! ... all that work for just an outcome of 1 ?! (lol) .... to confirm this result, I will watch your presentation with some tension (lol) ... thank you sir for your instructive (labour intensive) videos ... Best regards, Jan-W p.s The UNIT CIRCLE is possibly the best tool for Trigonometry in my opinion ....
Yes, the Unit Circle is indeed an elegant way to calculate trig ratios and helps in visualization. A different playlist entirely devoted to the unit circle will be made in the future. This exercise showcase one of the many different approaches one can take in finding out the result...keep up the hard work!
@@mathandbolt ... My apologies for making some crucial typos in my comment, but I corrected them; however my whole work on paper was correct ( 1 ) .... Jan-W
... Let T = Thêta ... In the given expression I recognize the identity ( A - B ) * ( A + B ) = A^2 - B^2 , where A = 1 + COT(T) & B = SEC(pi/2 + T) ... ( 1 + COT(T) )^2 - ( SEC(pi/2 + T) )^2 .... [ We know the world famous identity 1 + COT^2(T) = CSC^2(T) and COS(pi/2 + T) = - SIN(T) , so SEC(pi/2 + T) = - 1/SIN(T) ] ... then ( 1 + COT(T) )^2 = 1 + 2*COT(T) + COT^2(T) = CSC^2(T) + 2*COT(T) and ( SEC(pi/2 + T) )^2 = ( - 1/SIN(T) )^2 = 1/SIN^2(T) = CSC^2(T) ... finally CSC^2(T) + 2*COT(T) - CSC^2(T) = 2*COT(T) ... the answer I think ! And now I have to watch your presentation sir (lol) ... thank you for your efforts into instructive education ... best regards, Jan-W
Kudos!!
... Good day sir, That's exactly how I got the derivative of X^X explained via LD, and later on I read in a math textbook ... Y = X^X = e^(LN(X^X)) = e^(X*LN(X)) ... and then of course Y'= e^(X*LN(X)) * (X*LN(X))' = e^(X*LN(X)) * (1 + LN(X)) = X^X*(1 + LN(X)) ... but of course the goal of your presentation is showing Logarithmic Differentiation ... math at its best .... thank you sir for reminding me LD ... best regards, Jan-W