explain xkcd - User contributions [en]

Talk:2880: Sheet Bend

2024-02-18T16:13:39Z

172.69.58.201:

Why is this called a "sheet" bend? [[User:SystemParadox|SystemParadox]] ([[User talk:SystemParadox|talk]]) 21:17, 12 January 2024 (UTC)
:I don't know the full answer but it's a sailing thing: the 'sheet' is the rope you pull in or let out to control the position of the sail. I guess bend describes the category of knot. [[Special:Contributions/172.70.90.48|172.70.90.48]] 21:23, 12 January 2024 (UTC)
::NO NO NO. The sheet is the sail. [[User:JohnB|JohnB]] ([[User talk:JohnB|talk]]) 21:36, 12 January 2024 (UTC)
:::It is the rope - {{w|Sheet (sailing)}}. "In sailing, a sheet is a line (rope, cable or chain) used to control the movable corner(s) (clews) of a sail." [[Special:Contributions/172.71.242.5|172.71.242.5]] 21:56, 12 January 2024 (UTC)
::::Huh. Dueling Wikipedia articles. The Sheet_bend article has a definition section that says the term "sheet bend" derives from its use bending ropes to sails (sheets). But the Sheet_(sailing) article says a sheet is a line used to control the movable corner(s) of a sail. [[User:JohnB|JohnB]] ([[User talk:JohnB|talk]]) 23:08, 12 January 2024 (UTC)
:::::A sail is never, and was never, properly called a "sheet", since at least the 13th century. The Wikipedia explanation of the name is misleading. According to https://www.etymonline.com/word/sheet, it's "shortened from Old English sceatline "sheet-line," from sceata "lower part of sail," originally "piece of cloth," from same Proto-Germanic source as sheet (n.1)." [[User:Jlearman|Jlearman]] ([[User talk:Jlearman|talk]]) 17:44, 13 January 2024 (UTC)
:::::: When I took a sailing class as a kid they used the word “sheet”, I think it was the lines connected to the sails used for adjusting them? [[Special:Contributions/108.162.245.82|108.162.245.82]] 19:46, 13 January 2024 (UTC)
* Sheet is used to adjust/trim a sail and a halyard is used to raise/lower sails. Sheet '''only''' refers to a rope, ''not'' the sail. Standing rigging are the ropes which supports masts including shrouds and stays. Running rigging adjusts the position of sails and spars including halyards, braces, sheets and vangs. Sheets are used to control clews (movable corners of sails).
** A sheet bend joins two ropes. '''Not''' fabric to rope. The following comment, for example, is incorrect.
::The sheet bend is named for its ability to to secure a sail, or sheet. You fold over the corner of the sail and that's one of your "ropes". The sheet bend is generally used as a knot for tying a large, inflexible rope (or rope-like object) to a smaller, more flexible rope.[[Special:Contributions/172.69.70.22|172.69.70.22]] 22:30, 12 January 2024 (UTC)
::I would take the Ashley Book of Knots as authoritative. Sheet Bend is the first knot in the book, and is always (in modern terms) rope-to-rope, not to sail. It is one of the basic knots. https://en.wikipedia.org/wiki/The_Ashley_Book_of_Knots https://en.wikipedia.org/wiki/Sheet_bend
::{{unsigned|PRR|04:04, 13 January 2024}} 
:::But what dispute are you taking TABoK's authority on? Two things can have the same name in different contexts (or namespaces). And does Ashley use anything other than ropes exclusively in the whole book? [[Special:Contributions/108.162.241.170|108.162.241.170]] 14:42, 14 January 2024 (UTC)
:I added a link to the wikipedia entry, it explains the name. [[User:Barmar|Barmar]] ([[User talk:Barmar|talk]]) 21:25, 12 January 2024 (UTC)
:Because it's a sheet way to connect cables?[[Special:Contributions/172.70.90.137|172.70.90.137]] 09:58, 15 January 2024 (UTC)

Presumably the "different loads" title text is a pun between electrical load and mechanical stress on the knot? [[User:Jim-at-home|Jim-at-home]] ([[User talk:Jim-at-home|talk]]) 21:56, 12 January 2024 (UTC)

“silver being joined to silver and gold being joined to gold within the insulating white cable” is not the conventional way to join cables.
Unless you are joining one cable to itself (like a Möbius strip), you have ''two'' cables with insulation.
And usually you use non-cursed connectors, where you first remove the insulation at the end of the cable and then crimp or solder the conductors to metal parts of the connector; or solder the conductors and then add a different type of insulation for protection; or use screw terminals;...
Only with insulation displacement connectors you keep using all the insulation of the two cables.
And finally, conductors are usually copper ''or'' aluminum, and very rarely silver ''and'' gold. --[[Special:Contributions/162.158.94.141|162.158.94.141]] 08:45, 13 January 2024 (UTC)
:I think the gold and silver is just color coded for the reader. Not that they are meant to indicate that the conductors are made from this material. Apart from that you comment sounds like you know what you are talking about. So please improve the explanation if you can. --[[User:Kynde|Kynde]] ([[User talk:Kynde|talk]]) 10:58, 13 January 2024 (UTC)

::: I changed it to gold- and silver-colored. It was obvious to me that it was the colours used in the comic that were being referenced, but fixed for the avoidance of doubt. The join being made within the one cable was clearly an error though. [[Special:Contributions/172.70.85.161|172.70.85.161]] 22:13, 13 January 2024 (UTC)

:: cables often have the signal parts copper-colored (described gold atm) and they are obviously copper, and the outer ground more the color of steel or something, not sure what metal it is, but it’s easy to solder like copper or silver is, not aluminum which is very hard to solder. usually gold and silver are used at the contacts of a connector, not inside a wire, i don’t know who would ever make that mistake. [[Special:Contributions/108.162.245.83|108.162.245.83]] 19:49, 13 January 2024 (UTC)
:::"''more the color of steel or something, not sure what metal it is, but it’s easy to solder like copper or silver''" Traditionally tinned copper. Tinned not just for identification, or easier soldering, but because early rubber insulation actively rotted copper and tinning slowed the damage. Many sorts of damage, why much copper today is silvery. [[User:PRR|PRR]] ([[User talk:PRR|talk]]) 04:16, 14 January 2024 (UTC)
::: Not wishing to spoil it, but the series finale of {{w|Cabin Pressure (radio series)|a certain radio comedy}} reveals... ah well, that's the spoiler (in the article, if you read that far down... rather than just listen to it if you haven't heard about it already but now think you like the premise). [[Special:Contributions/172.69.79.188|172.69.79.188]] 21:01, 13 January 2024 (UTC)

Okay I looked at the wikipedia article and the knot depicted in the comic looks like a right handed one. I still don't know why it's called right handed, or why the left handed one is insecure.[[Special:Contributions/198.41.236.207|198.41.236.207]] 11:46, 13 January 2024 (UTC)
:It's not. Ropes and heavier ropes (called cables) are commonly made by twisting smaller ropes together, the twist direction (terminologically the 'lay' of the rope, (s-laid or z-laid)) is the main thing (that I know about) that can make chirality (handedness) of knots important to their strength. Electrical cables and wires aren't usually expected to have any tensile strength, and their tensile components aren't usually twisted in a way that would affect their strength. (Sorry for all the parentheticals.) [[Special:Contributions/108.162.241.130|108.162.241.130]] 14:56, 14 January 2024 (UTC)
::As I understand it (at least in knots that I'm familiar with), it's not chirality (like stereo isomers) but cis-/trans-ness (e.g. isomers which have active groups pointing in different directions across a double-bond).
::If the left cable came into the right's loops on on the bottom, dove under the two loops of the RH cable, over the conductor then under then over to have the loose end emerge where the offscreen-length currently comes in, then it'd be electrically the same but any tension would pull more off-axis and the knot could 'capsize' into an unwanted form (topologically similar, but with different relative loops.
::If you did that but ''also'' rethreaded the RH length to come up through the LH's loop (as now), but then passed over the top, down behind the two LH bits (free and loose end) to go back over the (lower) LH, under itself then over the (upper) LH, to dangle free, it would be a chiral inversion and (as you say) probably not greatly affected by the cable's own rotational symmetry.
::Re-rethread the LH loop as it was, and you'd get a chiral alternative to the first 'capsizable' change.
::Proper mathematically-inclined knot-theorists probably have better terms to use for both chiral and cis-trans transforms (as well as functional sub-mirroring such as the difference between reef and granny). There will already be terms known amongst practical knot-practioners such as sailors and other riggers, but (at least until "knot bibles" were written) they'll have been given homegrown/traditional terms that might not be particularly consistent with other knot-cultures. [[Special:Contributions/172.69.43.163|172.69.43.163]] 17:26, 14 January 2024 (UTC)
::^^^^ Addendum... Maybe [https://forum.igkt.net/index.php?topic=1551.0 this link I just found] is relevent, from a quick scan of it... Or maybe not. ~same IP/time as above .sig~

A note I nearly added in the bit about short-circuits (or, as I added, 'un'circuiting) is that the electrical behaviour of the knot is different according to which 'end' slips. If the left-side cable 'slips through' enough, then its gold and silver bits of sheath could contact (would short-circuit any current driven at that side). If the right-side cable slips out, it is in no danger of doing so for a right-driven current (it would just disconnect). That ignores the cross-talking that could occur (on one conducting line at a time, so may not matter if there's no external ground-return element, except as far as not being a proper connection any more), or ''both'' ends slipping (where one of the LHS sheaths ''might'' shuffle into a position to bridge the two RHS sheaths). But, as tied, the LHS silver (being bent in and out of the page around its crossing counterpart wire) seems unlikely to be pressed against both gold and silver, should it trivially untwine/slip through. Actual studies with actual knots might be useful. I thought I had a spare length of unterminated Cat5, nearby, but apparently (k)not... that, with some coloured permanent marker-pen marks made upon it, would probably have made a decent analogue for visual analysis of failure conditions. Maybe I'll de-plug an old cable (I've got a number of damaged USB cables I could chop, but their being thinner would change the scale and dynamics of the knot, meaning I might as well just use a scrap of twisted-pair internally-sheathed strands). – But I thought you'd like my mind's-eye analysis of the knot behaviour, before I get around to trying anything practical to this end. [[Special:Contributions/141.101.99.7|141.101.99.7]] 17:08, 13 January 2024 (UTC) (<- ex Cub-/Boy-/Venture-Scout, but never got any Knot ''Un''tying badge... that brief stint with escapology aside... ;) )

This comic contained material familiar to a hobby engineer that was cast critically and derogatorily (e.g. “sheety” bend) throughout the explanation. I edited a lot of it. I’ve seen this happen repeatedly in other explanations. I don’t edit most of them. [[Special:Contributions/172.71.150.155|172.71.150.155]] 18:41, 13 January 2024 (UTC) 

"this is a scenario commonly encountered by hobby engineers from the last millenium"
"commonly"? Can any hobbyist engineers from the last millennium attest? Also, this sounds ageist - is it ageist? [[Special:Contributions/172.70.86.166|172.70.86.166]] 21:56, 13 January 2024 (UTC)
:Well, I definitely did electrics/electronics pre-millenium. I'm not at all unhappy with the idea with the possibility of an occasional 'bodge job' connection having happened (e.g. tying a cable in a simple knot, in suitable cases, to add mechanical resistance to any further tendency for a cable to be tugged out of a grommit-hole and the core conducting wires being tugged out of whatever terminal/patch-block they need to be connected to - or, more likely, pulling the core copper strands beyond their tensile limits).
:Although (while I respected the ''idea'' of this being based upon a repair-bodge), I don't see this as a "this wire was damaged, this is how the two ends are reconnected", but rather as a deliberate cable termination method (like adding moulded plugs/etc) which could then be mated end-to-end with another similarly terminated cable. (Like using a gender-changer 'double-socket' between two phono-ended lengths of cable, or using a {{w|File:BNC Tee connector, with Ethernet cable connected-92166.jpg|BNC T-connector just to join two lengths of networking cable}} but without the need for the extra connector ''and'' adding intrinsic tensile resistance - though actually not as much as the BNC 'bayonet' version already does...)
:If I was writing this from scratch, I'd actually remove all the 'repair' aspect of it, TBH. It looks more like a deliberate patch-type cable (1x2core) manufactured to be directly and hermaphroditically compatible with any other such cable, tied together without the need for tools (screwdrivers, crimpers, punch-downs, etc) ''and'' untied as and when required (at least as easily as any similar rope-knot can be undone, which isn't always a given if mishandled and overtightened).
:I'd also be looking at various knots and working out which (if any) could support ''more'' than two contact-patches/sleavings per cable, for three-core or more-core connections between any two such cables. The geometry of the knots would define roughly where (and how long) the external contact-sleaves would need to be (presumably identical for both cables) such that they made appropriate connections between the two halves (cross-overs could be allowed, but that'd have to be down to the IEEE specifications of how to detect/interpret RX/TX assymetry at the end devices, etc). But then I'd also be writing a vastly more complicated alternate explanation. Perhaps just remove the bodge-job implications, someone? Clearly it's not an end-user bodge. Though it could be a manufacturer/industry bodge (such as using an 8P8C connector for essentially 6P4C purposes). [[Special:Contributions/172.69.79.138|172.69.79.138]] 00:53, 14 January 2024 (UTC)
I use the reader app in inverted color mode, so I could not for the life of me figure out what all the discussion about silver and gold was about. Also, can I just comment on how the conductive sleeves are magically flexible? I wonder if they are braided. Even then, this would severely limit how tight the knot could be pulled. [[Special:Contributions/162.158.154.238|162.158.154.238]] 13:26, 14 January 2024 (UTC)
:I initially imagined either a particularly ductile 'foil' or, as you say, braided (like an STP cable's 'S' layer), though the failure modes of both (tearing or fraying) are potentially problematic. Perhaps a conductive polymer of similar mechanical flexibility to the non-conductive regular sheath. The attachment of respetive core to the outer seems to me the most intensive process.
:I once jury-rigged two cameras on a length of CAT5, using two pairs each for power/signal. One camera was around half way along the cable from where it was commonly terminated, but rather than than cutting the cable entirely and reconnecting the 'onwards' TPs (or threading a half-used full cable and a half-used part-length through the false ceilings/etc) I made a careful slit in the outer insulation (and shielding foil/braid, whatever it had), pulled the two chosen pairs out enough to get the necessary length of mid-cable free ends for my purposes and then snipped just those.
:It wouldn't need as much work to connect outer-conducting sheathing to an inner core. Possibly an into-insulation 'displacement' blade, but not sure how you'd guarantee the (single, and only) inner core contact, so slitting outer insulation, fishing for the chosen inner-core, piercing, twining and/or wrapping that conductive strand then reinsulating as necessary or shrink-wrapping with the 'conductive rubber' outer (preventing the slit from tearing too far open on bending). Twice, though you don't need to preserve the 'gold inner' up to or beyond the 'silver inner' tapping point.
:I would imagine (if this were a serious cable-end spec) there'd be careful balancing of robustness and flexibility of the [[2856: Materials Scientists|materials]] and construction methods in use. But handwaved away, in our 'reality'.... [[Special:Contributions/172.69.43.163|172.69.43.163]] 17:26, 14 January 2024 (UTC)
:...see {{w|Conductive elastomer}} (and some of that article's onward links) for a possible type of material to use. [[Special:Contributions/141.101.98.156|141.101.98.156]] 18:32, 14 January 2024 (UTC)

Y'know, I've read every XKCD comic. For some reason, this one makes me the most uncomfortable. I ''hate'' it. No idea why. [[User:Magicalus|Magicalus]] ([[User talk:Magicalus|talk]]) 04:46, 16 January 2024 (UTC)
;Knot category?
We've seen some recurring knot-themes, I was thinking. A quick check shows that it's not as overwhelming as I thought it was, but here's what I easily found anyway (possibly missed some, as I skimmed things).
*[[595: Android Girlfriend]] - averted, but knots are mentioned/could have been expected in the parodied scenario (probably not really so cattable).
*[[730: Circuit Diagram]] - drawn knot
*[[1572: xkcd Survey]] - mentioned as an option
*[[1762: Moving Boxes]] - written down (ambiguously)
*[[2738: Omniknot]] - full-fledged 'knotty comic'
*...this one, as above.
So it might just be the two 'proper knot-focused' comics, but (like 'birds' or 'real people' as categories) two or three others that should be considered relevant. Maybe wait until there's a third (it might take a year?), but placing the groundwork for it. Or maybe even being sufficient to prompt someone to act sooner, now that we can be sure that Knots is one of the many subjects Randall may dive into. [[Special:Contributions/141.101.99.131|141.101.99.131]] 18:52, 14 January 2024 (UTC)
:The android comic doesn't mention knots. It is only the explanation here that does. The circuit diagram may have a knot, but it is not labeled, and could be something else. Not like saying this is a comic about knots. Of course it has a relation to this comic, but the relation is more in the connector than in knots. The survey doesn't have knot mentioned in the actual comic. Knots are for sure mentioned in a word in Moving boxes, but the comic is not about knots. Which leaves only Omniknot and this one, and I think even three about knots would be too little for a category. So unless there are at least a couple more, it is way too soon to make a knot comic category. But would be fine to include a link between the two knot comics. I will do that! --[[User:Kynde|Kynde]] ([[User talk:Kynde|talk]]) 07:43, 15 January 2024 (UTC)
::(You'll note that I expicitly pre-stated each of your 'objections', already. Not sure, then, why you thought I didn't realise any of it...) As I said, I had an impression that it was a well-used trope, here, but found it less so when I checked. But definitely not an unused one. So marked it here to avoid having to necessarily recheck everything once the next one arrived (or the one after that, etc, if still not conclusive). Although it's also possible I missed other good exameples, already... ;) [[Special:Contributions/172.69.195.229|172.69.195.229]] 17:21, 15 January 2024 (UTC)

2637: Roman Numerals

2023-04-16T17:55:41Z

172.69.58.201: /* Alternative decodings */

{{comic
| number = 2637
| date = June 24, 2022
| title = Roman Numerals
| image = roman_numerals.png
| titletext = 100he100k out th1s 1nno5at4e str1ng en100o501ng 15e been 500e5e50op1ng! 1t's 6rtua100y perfe100t! ...hang on, what's a "virtuacy"?
}}

==Explanation==
Roman numerals are the system of representing numbers used during the Roman Empire. The letters I, V, X, L, C, D, and M are used to represent numbers, with each letter representing a consistent value. Specifically, I represents 1, V represents 5, X represents 10, L represents 50, C represents 100, D represents 500, and M represents 1000. One way of stating the rules for combining Roman numerals next to each other are that a Roman numeral is added to a Roman numeral of equal or lesser value just to its right (e.g., II=1+1=2 because 1≥1, and VI=5+1=6 because 5≥1{{Citation needed}}), and a Roman number is subtracted from a Roman numeral of greater value just to its right (e.g., IV=5-1=4 because 1<5, and IX=10-1=9 because 1<10). (Also, each place must be written separately, e.g., one cannot represent 49 via IL but instead must represent the tens place and ones place separately via XL IX—although the space would not be included in practice).

The modern system of representing numbers is a decimal positional notation using the numerals (0, 1, 2, 3, 4, 5, 6, 7, 8, and 9). Westerners often call this system "Arabic numerals" or "Hindu–Arabic numerals" because they were invented in India and introduced to Europe by Arabic merchants.

Thus in Roman numerals a digit always has the same absolute value but may be treated as positive or negative depending on the digit after it, whereas for Hindu-Arabic numerals, a digit's value changes by a power of 10 depending on its absolute position and is never subtracted.

Cueball's original equations in Roman Numeral form are:
<center>I + I = II</center>
<center>II + II = IV</center>
<center>IV + V = IX</center>

Translated normally into more familiar Hindu–Arabic numerals, these equations are:
<center>1 + 1 = 2</center>
<center>2 + 2 = 4</center>
<center>4 + 5 = 9</center>

But Randall/Cueball replaced each letter individually with its value in Hindu-Arabic numerals — ignoring the abovementioned rules for interpreting combined Roman numbers, instead using the rules of Roman Numerals. "I" is replaced with "1", "V" is replaced with "5", and "X" is replaced with "10". For example, for IX at the end of the last equation, "I" is replaced with "1", and "X" is replaced with "10", so "IX" becomes "110". Thus, the equations are written
<center>1 + 1 = 1 1</center>
<center>1 1 + 1 1 = 1 5</center>
<center>1 5 + 5 = 1 10</center>
where the spaces have been added for clarity.

An alternative interpretation of the third line, though not strictly in accordance with Roman numeral "rules", is
<center>15 + 5 = 20 (in decimal)</center>
<center>20 is 2 0</center>
<center>2 is 11</center>
<center>So 20 is 11 0</center>

The joke is that because Arabic numerals do not use the same rules of addition and subtraction as Roman numerals, the equations appear incorrect in both systems. The usual interpetation of 11 is 10+1, not 1+1 as it is under the rules for interpreting Roman numerals. Randall derives additional humor from the premise that Cueball seems to know Roman numerals better than Arabic numerals (as demonstrated by the fact that he translated only the symbology and not the grammar) so that he would do math in Roman numerals and have to remember to convert his equations to Arabic numerals at the end. Schoolchildren in the West have been taught to do math with Arabic numerals, not Roman numerals, for centuries.

In the title text, Randall applies the same idea of replacing Roman numerals with their values in Arabic numerals to strings of English words.

{| style="border:1px solid #ccd;"
|- style="text-align:center;"
| style="background-color:#ccd;" | 100
| he
| style="background-color:#ccd;" | 100
| k
| out
| th
| style="background-color:#ccd;" | 1
| s
|
| style="background-color:#ccd;" | 1
| nno
| style="background-color:#ccd;" | 5
| at
| style="background-color:#ccd;" | 4
| e
| str
| style="background-color:#ccd;" | 1
| ng
| en
| style="background-color:#ccd;" | 100
| o
| style="background-color:#ccd;" | 501
| ng
|
| style="background-color:#ccd;" | 15
| e
| been
|
| style="background-color:#ccd;" | 500
| e
| style="background-color:#ccd;" | 5
| e
| style="background-color:#ccd;" | 50
| op
| style="background-color:#ccd;" | 1
| ng!
|
| style="background-color:#ccd;" | 1
| t's
|
| style="background-color:#ccd;" | 6
| rtua
| style="background-color:#ccd;" | 100
| y
| perfe
| style="background-color:#ccd;" | 100
| t!
|- style="text-align:center;"
| style="background-color:#ccd;" | C
| he
| style="background-color:#ccd;" | C
| k
| out
| th
| style="background-color:#ccd;" | I
| s
|
| style="background-color:#ccd;" | I
| nno
| style="background-color:#ccd;" | V
| at
| style="background-color:#ccd;" | IV
| e
| str
| style="background-color:#ccd;" | I
| ng
| en
| style="background-color:#ccd;" | C
| o
| style="background-color:#ccd;" | DI
| ng
|
| style="background-color:#ccd;" | IV
| e
| been
|
| style="background-color:#ccd;" | D
| e
| style="background-color:#ccd;" | V
| e
| style="background-color:#ccd;" | L
| op
| style="background-color:#ccd;" | I
| ng!
|
| style="background-color:#ccd;" | I
| t's
|
| style="background-color:#ccd;" | VI
| rtua
| style="background-color:#ccd;" | LL/C
| y
| perfe
| style="background-color:#ccd;" | C
| t!
|}

The original string (with letters that would be interpreted as Roman numerals capitalized) is, "CheCk out thIs InnoVatIVe strIng enCoDIng I'Ve been DeVeLopIng! It's VIrtuaLLy perfeCt!" For the first word, "Check," C is replaced with the value of that Roman numeral in Arabic numerals, i.e., "100", in both instances of the word, which results in "100he100k". Unlike in the comic, Randall combines Roman numbers using the proper rules of addition and subtraction. For example, he replaces "IV" with "4", not "15", e.g., "innovative" becomes "1nno5at4e", not "1nno5at15e". (However, "I've" becomes "15e", not "4e", presumably because the apostrophe was removed after, not before, replacing the Roman numerals with Arabic numerals. However, there is not an obvious reason why Randall removed the apostrophe.)

Irony arises from the claim of "virtual perfection", as there are problems with this encoding.

One problem with the encoding is that the double L in "virtually" is replaced with 100. This technically obeys Roman numerals' rule of adding the value of a letter to the value of an equal-valued letter just to its right (50+50=100). However, this addition rule should not apply, since in standard Roman numerals, a single number should never have multiple Vs, multiple Ls, or multiple Ds, e.g., 100 should be represented only by C (100), not LL (50 50). This would mean that a simplistic decoding script would erroneously decode "6rtua100y" to "VIrtuaCy", not "VIrtuaLLy". Thus, this string encoding system is not actually perfect. It loses information.

Another problem with the encoding is that only a very small subset of the source text can be affected by this encoding: 7 letters of 26 letters for English (the language that the text is written in) and no non-alphabetical characters.

=== Alternative decodings ===

Until the modern codification in general use today, Roman numerals weren't standardised that much, so "LL" could have been a tolerated alternative to "C". For more on that, see {{w|Roman_numerals#Classical_Roman_numerals}}. However, having the decoding script use that alternative would not solve the problem but instead would make the decoding script replace Cs with LLs instead, e.g., "delloding sllript".

One could also separate the L's into individual numbers, to become "virtua5050y", except this produces even more problems because 5,050 is actually MMMMML and "virtuammmmmly" is definitely not an English word. (Citation: [https://en.wiktionary.org/w/index.php?go=Go&search=virtuammmmmly&title=Special%3ASearch&ns0=1 look up "virtuammmmmly" on Wiktionary.])

==Transcript==
:[Cueball writes on a wall or a whiteboard. This is what is written:]
:1+1=11
:11+11=15
:15+5=110

:[Caption below the panel:]
:Remember, Roman numerals are archaic, so always replace them with modern ones when doing math.

{{comic discussion}}

[[Category:Comics featuring Cueball]]
[[Category:Math]]

2763: Linguistics Gossip

2023-04-14T14:27:54Z

172.69.58.201: /* Explanation */

{{comic
| number = 2763
| date = April 14, 2023
| title = Linguistics Gossip
| image = linguistics_gossip_2x.png
| imagesize = 269x329px
| noexpand = true
| titletext = The E's wedding invitation definitely used the word LOVE more times than was strictly necessary.
}}

==Explanation==
{{incomplete|Created by a Æ's DIVORCE ATTORNEY - Please change this comment when editing this page. Do NOT delete this tag too soon.}}

{{w|Æ}} is the {{w|Ligature (writing)|ligature}} used to represent the Latin diphthong ae. The comic personifies letters "a" and "e", imagining that the character Æ represents a romantic relationship between the two. It then imagines a situation in which the two letters end the relationship and eventually marry other letters, giving rise to two new ligatures.

The title text plays with the idea of the personified letters using their own letters in writing as a way to reference themselves. In the comic, E's new relationship appears to be with the letter "V" (although because the letter is sideways in the ligature it is unclear, it could also be with the letter "I" which, if drawn vertically joined to E would not be an obvious ligature and so it was drawn at an angle). If indeed E's spouse is the letter V, E's wedding invitation using the word "LOVE" more times than is strictly necessary could be because E likes seeing the letters V and E next to each other.

==Transcript==
{{incomplete transcript|Do NOT delete this tag too soon.}}

{{comic discussion}}

2761: 1-to-1 Scale

2023-04-11T14:42:59Z

172.69.58.201: Changed comment tag

{{comic
| number = 2761
| date = April 10, 2023
| title = 1-to-1 Scale
| image = 1_to_1_scale_2x.png
| imagesize = 444x281px
| noexpand = true
| titletext = There's a version that shows the planets with no cropping, but it's hard to find a display that supports it.
}}

==Explanation==
{{incomplete|Created by a DISPLAY THAT SUPPORTS THE PLANETS WITH NO CROPPING - Please change this comment when editing this page. Do NOT delete this tag too soon.}}

This comic supposedly shows what each planet would look like at 1:1 scale, which would mean at real size. However, because a minuscule portion of each planet is visible on the page at that scale, it becomes comically useless at distinguishing the size or relative size of each planet, and each planet is just a differently textured straight line.

The title text remarks that it is hard to find a display that supports a version of the image without cropping. This is because a true 1:1 scale image showing each of the planets would be ridiculously large[https://solarsystem.nasa.gov/news/1164/how-big-is-the-solar-system/], larger than any monitor or display currently available on Earth (since it would be much larger than Earth).

==Transcript==
{{incomplete transcript|The main panel itself is missing explanation. Do NOT delete this tag too soon.}}

:[A frame with a central area of black 'space', bounded at various intersecting angles by eight 'straight lines' representing planetary surfaces, originating from various out-of-frame angles of 'down' and the white of some bodies obscuring some part of the others.]
:[There are labels indicating which line represents each planet.]
:[The four gas-giants' lines are simply drawn, near straight and featureless.]
:[The lines for the rocky inner-planets have variations to them, stereotypical of some part of their surface.]
:[The "Earth" line ('down' being out the top of the frame) has a profile indicating various small-scale vegetation and also features the white sillouette of an ant that may be of a realistic size for your display.]
:[Caption below the panel:]
:The solar system's planets at 1:1 scale

{{comic discussion}}
[[Category: Space]]
[[Category:Comics_with_inverted_brightness]]