Does anyone know how he behaved during those noble partys?
The only time he is mentioned at a ball is when Docksons says that he won't be able to go because Lord Ruler saw him once. I don't remember him being at any balls after that.
Does anyone know how he behaved during those noble parties?
The only time he is mentioned at a ball is when Docksons says that he won't be able to go because Lord Ruler saw him once. I don't remember him being at any balls after that.
Unfortunately we have almost no information about this. The mention in TFE Ch 6 was mostly as a means of foreshadowing (see below), but from the way he acts during the climax of TFE we can guess that he likley attended sporadically (mostly to keep the Noble houses guessing) and likely stayed mostly aloof (like the higher-ranked Obligators) But, that is just supposition.
I like to imagine that he would just kind of show up randomly and everyone would panic but they would all have to act like it was no big deal, so there would be all these nobles posturing and pretending like they see TLR every day but internally they're freaking out.
That's a good point. If that was something that the lord ruler was doing on a regular basis, it would have been vitally important that Vin know that and be prepared. It's possible that Kelsier told her about it off screen and it just never happened, but I don't know.
I like to think that TLR would show up in a mask at random balls, turning off his mega-Soothing while claiming to be a Lord... uh, Shekar from some outer Dominance, and everybody would have to pretend to be fooled.
Everybody waited to see the guy get wasted, but instead they became great friends, because Rashek found he liked that could actually be himself around that guy - go hiking, jam with him while playing the flute, etc., ...Until eventually the secrets came out that tore them apart.
Though, for reference, the explanation and answer to this question needs to be as simple as it can possibly get. I have a learning disability that heavily affects my mathematics capabilities and severe Dyscalculia. This explanation here probably makes me sound pretentious, but a lot of people don't understand or they throw too many numbers at me and get frustrated when I haven't said anything before hand. I'm sorry if it does, but I'm covering all my bases lol.
One easy way to measure the "size" of a ball is how far it is from side to side. Your tennis ball example is a good one: a typical tennis ball is about 2.5 inches form side to side. And one way to measure that size is to place the ball on a table in the sunlight when the sun is nearly overhead -- close to noon.
Finally, you can wrap a string around the middle of the ball -- the very widest part, like wrapping around the equator of the earth -- and mark the string with a pen so that between the two pen-marks is exactly one trip around the ball's middle. Suppose that this comes out to be 42 inches (which might happen for a kid's kickball, for instance). If you divide the length (42 inches) by the number 3.14, you get
The number 3.14 is special -- it works no matter how large your ball is: you divide the "length around the ball" by 3.14 and you get the length across the ball. (The actual number is a tiny bit bigger than 3.14, but the difference only matters when you'll doing very precise things; 3.14 works for almost all practical purposes.)
A somewhat more complicated approach:Put tennis ball in a measuring glass. Hold it down while you fill it with water until the water is just over the ball. Note the indicated volume, call this $v_1$. Remove the ball then check the volume again, and call this new volume $v_2$. The volume of the tennis ball is the change in volume,
The curved ruler from Prym makes it possible to mark and transfer all rounded edges and curves, which are needed for cutting out garments, such as trousers, skirts, shirts and blouses. This dressmaker's ruler can be used to transfer the shape of the waist and hips and the in-seam perfectly onto the dressmaking pattern paper or directly onto the fabric. The rounded edges on sleeves, necklines and shoulders can also be transferred flawlessly with the curved ruler. The straight grid on a scale of 2.5 x 40 cm allows for perfect transfer of button-holes and seams, while the rounded, narrowing 65 cm scale is ideal for transferring all rounded shapes and curves. This makes the curved ruler the ideal companion for the dressmaker's ruler from Prym.
The v-ruler is marked in the metric system. The numbered lines mark the centimeters, with smaller millimeter marks in between. Note that almost all temari directions use the metric system. Dividing inches into 10, 12, or more parts requires too much work!
Whenever both of them fought, the area within ten million miles radius will become a forbidden area. No demon dared to enter this area for fear of getting shredded to pieces due to the shock waves generated by the fight between the two rulers.[4][5]
Fat Ball personally offered to provide Shuhang with a powerful Way of Eternal Life, mentor him in his cultivation and provide him with everything White Two can provide.[10] All these were offered without the need of Shuhang to change sides from the Seventh to the Eighth, just for his neutrality for 5,000 years.[10]
This handy shop aid is ideal for sizing spokes, ball bearings and crank cotters. To use, just hang the head of the spoke in the oblong hole and read its length on the scale. For crank cotters and ball bearings it works just like a gauge for drill bits.
The new Storm Arc Ruler. This ruler with exact holes spaced out every 1/4" inch, will make a laying out a ball much quicker and more precise using the Storm Pin Buffer System. No more fumbling with the Pro-Sect trying to hold down the "0" spot as you try and make your perfect arc.
With a standard ruler, the diameter of each tennis ball in a bag was measured, yielding a mean of = 3.2 inches and a standard deviation of = 0.1 inches. It's also been revealed that the ruler was off, thus each measurement is 0.2 inches off. Convert inches to centimeters according to the requirements using the formula inches = 2.54 cm. ............. (1)
The standard deviation is unaffected by the change in location, thus converting the same measurement to centimeters with the same standard deviation. As a result, for each tennis ball, the new standard deviation of diameter is determined as follows: σnew=0.1inch=0.12.54cm=0.254cm
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The type 3 secretion system (T3SS) and the bacterial flagellum are related pathogenicity-associated appendages found at the surface of many disease-causing bacteria. These appendages consist of long tubular structures that protrude away from the bacterial surface to interact with the host cell and/or promote motility. A proposed "ruler" protein tightly regulates the length of both the T3SS and the flagellum, but the molecular basis for this length control has remained poorly characterized and controversial. Using the Pseudomonas aeruginosa T3SS as a model system, we report the first structure of a T3SS ruler protein, revealing a "ball-and-chain" architecture, with a globular C-terminal domain (the ball) preceded by a long intrinsically disordered N-terminal polypeptide chain. The dimensions and stability of the globular domain do not support its potential passage through the inner lumen of the T3SS needle. We further demonstrate that a conserved motif at the N terminus of the ruler protein interacts with the T3SS autoprotease in the cytosolic side. Collectively, these data suggest a potential mechanism for needle length sensing by ruler proteins, whereby upon T3SS needle assembly, the ruler protein's N-terminal end is anchored on the cytosolic side, with the globular domain located on the extracellular end of the growing needle. Sequence analysis of T3SS and flagellar ruler proteins shows that this mechanism is probably conserved across systems.
Template uses 1/3 yard fabric to make a 10in fabric covered balloon ball. The ball is safe for toddlers and child play. Once a balloon is inserted, the ball bounces and can be played with outside. Chance of popping and scaring a toddler or entering an air passageway is greatly reduced. This ball is great for inside play as it is very light weight. Can also be used for weddings, family reunions and other party decorations. After the festivities, remove the balloon and pack away flat.
Take a capillary with precisely specified dimensions (inner diameter, length) and an equally precise distance given by two marks. Let a known quantity of liquid flow through this capillary and measure the time the liquid level takes to travel from one mark to the other. The measured time is an indicator for viscosity (due to the velocity of flow depending on this quantity). To obtain kinematic viscosity (v = ny), multiply the measured flow time (tf) by the so-called capillary constant (KC). This constant needs to be determined for each capillary by calibrating the capillary, i.e. by measuring a reference liquid of known viscosity.
If a flow cup is used, the principle works as described above, but instead of exact capillary dimensions, the volume of the cup and its outlet capillary need to be accurately defined. As a rule, the equations for getting viscosity from the flow time are empirically determined for each cup by way of calibration tests with viscosity reference standards.
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