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James Hamblin
Registrace 7. 06. 2011
This channel features educational videos for various undergraduate mathematics courses.
Polynomial Long Division in F[x]
This video discusses polynomial long division in F[x], a polynomial ring with coefficients over a field F.
If you need a refresher on the basic polynomial long division process, watch this video: czcams.com/video/0R4uvmz4XU4/video.html
If you need a refresher on the basic polynomial long division process, watch this video: czcams.com/video/0R4uvmz4XU4/video.html
zhlédnutí: 223
Video
Polynomial Long Division
zhlédnutí 116Před 7 měsíci
In this video, I review the basic ideas behind long division of integers and how they apply to long division of polynomials. (This is a re-upload to correct an error in the previous version.)
Review of Proof Techniques
zhlédnutí 224Před 7 měsíci
In this video, I review basic mathematical proof techniques, including: * Direct Proof * Proof by Contrapositive * Proof by Contradiction * Proof by Cases * Mathematical Induction This video is intended for students in advanced undergraduate mathematics courses and assumes that you have seen these proof techniques in a prior course.
Introduction to Probability: Examples
zhlédnutí 544Před 8 měsíci
In this video, I explain the basic concepts and terminology of probability. I also work through some basic example problems. This material is from Section 6.1 of Discrete Mathematics by Ensley and Crawley. bcs.wiley.com/he-bcs/Books?action=index&itemId=0471476021&bcsId=2803
Multivariable Calculus: Flux Line Integrals
zhlédnutí 2KPřed rokem
In this video, I work through several examples of calculating the flux of a vector field across a curve in R^2.
Decomposing a Force Vector on a Slope
zhlédnutí 563Před rokem
In this video, I work through a problem where we find the magnitude of a force exerted against gravity on a slope.
Application Problem: Components of a Resultant Vector
zhlédnutí 448Před rokem
In this video, I work through an application problem involving a plane flying through wind. We construct the resultant vector and then analyze it to find the plane's speed and bearing.
Infinite Series Examples: Divergence Test
zhlédnutí 417Před rokem
This video contains two example problems investigating how the divergence test can be used to analyze infinite series.
Using Remainder Estimates for the Integral Test
zhlédnutí 1,9KPřed rokem
(note this video was previously uploaded but the audio quality was very low) This video contains two sample problems where we use the remainder estimate for the integral test to bound error when approximating the sum of a series.
Trigonometric Integrals (OpenStax Calculus, Vol. 2, Section 3.2)
zhlédnutí 770Před rokem
This video contains solutions to sample problems from OpenStax Calculus, Volume 2, Section 3.2: Trigonometric Integrals. OpenStax Calculus Vol. 2: openstax.org/details/books/calculus-volume-2 Note: This is a corrected version of a previous video that contained an error in the solution to Problem #2.
Area Between Curves #1 (OpenStax Calculus, Vol. 2, Section 2.1)
zhlédnutí 3,4KPřed rokem
This video contains solutions to sample problems from OpenStax Calculus, Volume 2, Section 2.1: Area Between Curves. This is the first of two videos, focusing on simpler examples. OpenStax Calculus Vol. 2: openstax.org/details/books/calculus-volume-2 Note: The previous version of this video had broken audio for the last problem. The audio has been fixed in this version.
Integrals that Result in Inverse Sine
zhlédnutí 729Před rokem
This is a short video that walks you through an example of an integral that results in inverse sine.
Properties of Power Series (OpenStax Calculus, Vol. 2, Section 6.2)
zhlédnutí 724Před 2 lety
This video contains solutions to sample problems from OpenStax Calculus, Volume 2, Section 6.2: Properties of Power Series. OpenStax Calculus Vol. 2: openstax.org/details/books/calculus-volume-2
Working with Taylor Series (OpenStax Calculus, Vol. 2, Section 6.4)
zhlédnutí 506Před 2 lety
This video contains solutions to sample problems from OpenStax Calculus, Volume 2, Section 6.4: Working with Taylor Series. OpenStax Calculus Vol. 2: openstax.org/details/books/calculus-volume-2
Taylor and Maclaurin Series (OpenStax Calculus, Vol. 2, Section 6.3)
zhlédnutí 579Před 2 lety
This video contains solutions to sample problems from OpenStax Calculus, Volume 2, Section 6.3: Taylor and Maclaurin Series. OpenStax Calculus Vol. 2: openstax.org/details/books/calculus-volume-2
Power Series and Functions (OpenStax Calculus, Vol. 2, Section 6.1)
zhlédnutí 769Před 2 lety
Power Series and Functions (OpenStax Calculus, Vol. 2, Section 6.1)
Ratio Test and Series Strategies (OpenStax Calculus, Vol. 2, Section 5.6)
zhlédnutí 485Před 2 lety
Ratio Test and Series Strategies (OpenStax Calculus, Vol. 2, Section 5.6)
Alternating Series (OpenStax Calculus, Vol. 2, Section 5.5)
zhlédnutí 507Před 2 lety
Alternating Series (OpenStax Calculus, Vol. 2, Section 5.5)
Comparison Tests (OpenStax Calculus, Vol. 2, Section 5.4)
zhlédnutí 577Před 2 lety
Comparison Tests (OpenStax Calculus, Vol. 2, Section 5.4)
The Divergence and Integral Tests (OpenStax Calculus, Vol. 2, Section 5.3)
zhlédnutí 640Před 2 lety
The Divergence and Integral Tests (OpenStax Calculus, Vol. 2, Section 5.3)
Infinite Series #2 (OpenStax Calculus, Vol. 2, Section 5.2)
zhlédnutí 728Před 2 lety
Infinite Series #2 (OpenStax Calculus, Vol. 2, Section 5.2)
Infinite Series #1 (OpenStax Calculus, Vol. 2, Section 5.2)
zhlédnutí 722Před 2 lety
Infinite Series #1 (OpenStax Calculus, Vol. 2, Section 5.2)
Sequences (OpenStax Calculus, Vol. 2, Section 5.1)
zhlédnutí 1,2KPřed 2 lety
Sequences (OpenStax Calculus, Vol. 2, Section 5.1)
Basics of Differential Equations (OpenStax Calculus, Vol. 2, Section 4.1)
zhlédnutí 622Před 2 lety
Basics of Differential Equations (OpenStax Calculus, Vol. 2, Section 4.1)
Improper Integrals (OpenStax Calculus, Vol. 2, Section 3.7)
zhlédnutí 538Před 2 lety
Improper Integrals (OpenStax Calculus, Vol. 2, Section 3.7)
Numerical Integration (OpenStax Calculus, Vol. 2, Section 3.6)
zhlédnutí 391Před 2 lety
Numerical Integration (OpenStax Calculus, Vol. 2, Section 3.6)
Partial Fractions #2 (OpenStax Calculus, Vol. 2, Section 3.4)
zhlédnutí 510Před 2 lety
Partial Fractions #2 (OpenStax Calculus, Vol. 2, Section 3.4)
Partial Fractions #1 (OpenStax Calculus, Vol. 2, Section 3.4)
zhlédnutí 588Před 2 lety
Partial Fractions #1 (OpenStax Calculus, Vol. 2, Section 3.4)
Trigonometric Substitution (OpenStax Calculus, Vol. 2, Section 3.3)
zhlédnutí 568Před 2 lety
Trigonometric Substitution (OpenStax Calculus, Vol. 2, Section 3.3)
Trigonometric Integrals (OpenStax Calculus, Vol. 2, Section 3.2) [ERROR IN #2 SOLUTION]
zhlédnutí 298Před 2 lety
Trigonometric Integrals (OpenStax Calculus, Vol. 2, Section 3.2) [ERROR IN #2 SOLUTION]
You are such a good❤❤❤❤❤❤❤❤❤❤❤❤❤❤❤❤❤❤❤❤❤❤❤ teacher
Hello Mr. Hamblin, I am a student that's really benefitted from your videos! You taught me trigonometry in a way that no school year ever could! This playlist really should be made more famous, I thank God every day that I found it. Thank you for making a once daunting subject seem easier and more understandable!
I like your explanation
best video, thank you so much!
the range of a transformation is a subset of the codomain
True
Super ❤
Dude you are the man
dont choose x3 = 0 for linear dependence relation. :P
Super clear! To summarize or recap (with a slight abuse of notation) : Given an m x n matrix A with entries from the set of real numbers (more generally from a field F), a constant vector b in R^n (more generally F^n), and 0 in R^m (more generally F^m), we can define H = { x in R^n : Ax = 0 } and G = { x in R^n : Ax = b }. Then if G is nonempty, and you know in particular what an element of G is, which we will denote by the vector p, then it can be shown that G = { p } + H. The latter expression { p } + H is the set of vectors which are the sum of p and elements in H. if G is empty , then G is empty and we can say nothing further about G, and the linear system is inconsistent.
Very useful video. When you say row reduce the matrix , is it sufficient to be in 'echelon form' or does it have to be in 'reduced echelon form' which is the unique reduced matrix. also books seem to vary on echelon form, some require the pivots to be scaled to 1 while others do not require it.
Finding a pivot in the last column of an echelon matrix is inconsistent - very well said. Clearly a pivot must be non zero, otherwise it wouldn't be a pivot, so we don't need to say nonzero pivot.
Learning english was the greatest thing i have done to myself. Due to scarce learning resources (or rather videos so well made that i can be a slacker and get the idea fast and pass with little effort) i wouldnt normally have ever stood a chance in sciences. This video is so good, i have been looking for some 3 hours at resources in my language that are pretty much nonexistent and so bad in quality that you managed to explain much more in 5 minutes than all my compatriots combined in 3 hours. What a blessing. Great video.
Watched till the end, i am dazzled no way i might pass it If i fail vector calculus i get kicked out of the uni, im of a good hope now
what if i have american express credit card which have 15 digit not 16 otherwise the tutorial was boom?
so this is the 1st video of the playlist?? I feel like I am missing something!
The videos are in no particular order
@@HamblinMath that makes much more sense. Thank you so much for your prompt reply.
thanks, king🙏
At 4:21 im so confused. Can we use a coeffient matrix instead of an augment matrix? Becuz I have that equal sign or vertical line between my 2nd and 3rd column. I can’t seem to get the row reduced echelon form unless I do a coeffient matrix without that line. I’m stupid idk what I’m doing. I’m learning this for a summer class and we are going way too fast. Linear algebra in a month feels impossible
No, because the question here relates to the specific vector b. I recommend watching the "span" lecture video for addition explanations: czcams.com/video/qxRfVcJUihM/video.htmlsi=OtHWMIhJjQ5BSh92
Great stuff
Amazing
thankyouuuuuuuuu sooo muchhh for this videoooo <3<3<3
thank you so much!
More informative than several chapters/several weeks of my Abstract Algebra course using Gallian 10th ed. While a good book, there is ample room for improvement. For one, a deep dive into groups first is less helpful than an exploration of groups, rings, and fields contemporaneously.
thank you
sir you're my saviour, thanks for the videos.
Marvelous So help full for Junior/ Community College students
good video,straight to the point
🥰🥰
Best explanation ever🙌
What about Z[x] ?
Division in Z[x] is only defined when the leading coefficient of the divisor is 1 or -1, so it's not something we typically discuss
I've had trouble with this for ages, this video is no nonsense and really helped
This is amazing, I can't thank you enough. Every Green's Theorem video I've hunted down does the double integral version of GT and maybe I'm just looking in the wrong place. This is *exactly* what I needed to help me.
Allah senden razı olsun hoca bu nasıl güzel bi anlatım
This video is so helpful
Very Detailed and Explanatory. Much appreciated 💯
This is just awesome!
Nice, thanks!
This was the best video to find the bounded regions thank you s much
Genuis People are not good to teach. They think the learner knows everything. Most of the time They explain to themselves
definitely a great collection of interesting problems
amazing!
is there a difference between lowercase n and uppercase N in terms of vectors? do they represent different things?
4:57 you should have used u as well for pi and 0 and change it values
It's simple substitution, but it's ok to do the substitution explicitly if you need to.
4:21 that's what I was saying from the beginning!! To cancel x with the x
appreciated
4:21 i lost it from here
الله يسعدك يارجل ماتوقعت ان الموضوع بسيط للدرجة هذه😮😮
good video
I got tou sir
Why u don't divide from unit vector
Can any one telk why the upper limit in x2+y2=4 is zero??
You teach soo well