By ordering the digits, you can make 4*3*2*1 = 24 different numbers. By using mathematical operations that are already defined (addition, power, trigonometric functions etc), you can make many more - at least millions. If you then include functions that you define, the answer is infinitely many.
89,999 different numbers i guess
4
Three different ways.
Using all 13 squares, and not counting different orientations, only one.
If the only operation is addition, then 3.
By ordering the digits, you can make 4*3*2*1 = 24 different numbers. By using mathematical operations that are already defined (addition, power, trigonometric functions etc), you can make many more - at least millions. If you then include functions that you define, the answer is infinitely many.
AactactionaimammoammunitionanantantiatatomauctioncamcancantcatcautioncoincomacommacommitcommoncommunionconcotcutIiconI'minintoioniotaitmamanmatmintmommoonmootmotionmountmunitionnationnitnoonnotnotionnounoatomitononionontotantintinttontonicunctionunionunitunto
89,999 different numbers i guess
13
4
The company KEMET makes many different products. They make products for 8 different industries. In addition they also make battery production equipment, EMI filters, and Transformers.
Oh, dude, you can make 38 using addition in like infinite ways. You can do 1+37, 2+36, 3+35... you get the idea. It's like a never-ending party of numbers adding up to 38. So, go wild and mix and match those numbers however you want!
Three different ways.
3
8
Viscose is a wood cellulose that helps to make many different products. It is cheap to use and very flexible, making it the perfect addition to many products.