# Normalised Base Stats

#### X-Act

##### np: Biffy Clyro - Shock Shock
THIS HAS BEEN UPLOADED TO SITE. www.smogon.com/dp/articles/normalized_stats

1. Introduction

"Given the same EVs, does a 150 base Attack Pokemon using Brick Break deal more damage than a 75 base Attack Pokemon using Focus Punch?"
"Given the same EVs, is a Pokemon with 100 base HP and 80 base Defense (for example Azumarill) more defensive than one with 80 base HP and 100 base Defense (for example Meganium)?"

You may be surprised to discover that the answer to both of the above questions is "no". The reason for this answer will be explained in this article, using the relatively new idea of normalised base stats.

Before starting, all Pokemon mentioned in this article will be assumed to be at Level 100 and have 31 IVs in every stat.

2. The Deception of Base Stats

As we all know, all Pokemon have a set of base stats. These base stats are responsible for Cloyster's physical durability, for Electrode's amazing speed and for Alakazam's very powerful special attacks. No matter what a Cloyster's EVs and nature are, it will always have a very good physical defense, as its base Defense is a whopping 180.

However, the base stats of a Pokemon do not truly reflect the actual stats that the Pokemon will end up having, especially when that Pokemon is at Level 100 and has 31 IV in every stat.

Consider Electivire as an example. Say we want to check if an Electivire with a neutral nature and no EVs that uses Thunderpunch (having 75 base power) will deal more damage than if it uses Thunderbolt (having 95 base power), assuming it is attacking a Pokemon with equal Defense and Special Defense stats. Electivire has 123 base Attack and 95 base Special Attack. One might think that since 123×75 = 9225 and 95×95 = 9025, then Thunderpunch would deal more damage. However, the actual Attack and Special Attack stats of such an Electivire would be 282 and 226 respectively. So the damage formula would actually need to multiply 282 by 75 and 226 by 95 to check the damage dealt. Since 282×75 = 21150 and 226×95 = 21470, we see that Thunderbolt would actually deal more damage than Thunderpunch against Pokemon having equal defense and special defense.

The HP base stat has a further property that is sometimes overlooked. The formula for the Pokemon's actual HP is different than that for the other stats. This makes a Pokemon with 80 base HP and 70 base Defense have a different physical durability than a 70 base HP and 80 base Defense Pokemon, even though one might assume that they would have the same physical defense overall.

The speed base stat is the only bona fide base stat. You would always expect a 91 base Speed Pokemon outspeeding a 90 base Speed one, given the same EVs and nature.

We would thus like to have a simple mechanism to change the base stats into more truthful values for us to be able to perform quick calculations on the fly about that Pokemon. And this is where the normalised base stats come in.

3. Normalising the Attacking Base Stats

To normalise the Attack and Special Attack base stats, the procedure is very simple: add 18 to them. This would make the statistical damage calculation mimic the damage calculation of when the Pokemon has 0 EVs and a neutral nature.

Speaking of statistical damage, it is defined simply as follows:

Statistical Damage = Normalised Base (Special) Attack × Move Power

In our previous Electivire example, its normalised Attack base stat thus becomes 123+18 = 141 and its normalised Special Attack base stat becomes 95+18 = 113. Let's check the Thunderpunch versus Thunderbolt dilemma again using these new normalised base stats. For Thunderpunch, the statistical damage would be 141×75 = 10575. For Thunderbolt, it would be 113×95 = 10735. Thus, we see (correctly) that Thunderbolt would deal more damage... it would deal 1.5% more damage than Thunderpunch. (10735÷10575 = 1.015)

The avid Thunderpunch Electivire lovers among you are probably saying that this calculation is both unfair and useless, since we are assuming 0 EVs in Attack and Special Attack, which will probably never be the case in a competitive Electivire. So is there a mechanism to factor in a Pokemon's EVs using these normalised base stats? Yes, there is.

If the Pokemon has 252 EVs in that stat, add 32 to its normalised base stat, or add 50 to its base stat. This roughly translates to adding 1 to the normalised base stat for every 8 EVs you put in the stat.

Okay, so say our Electivire has 252 EVs in Attack. Its normalised base Attack stat would become 141+32 = 173. And now the statistical damage would be 173x75 = 12975, amply outdamaging Thunderbolt with 0 EVs in Special Attack (it deals 20.9% more damage).

If Electivire has 252 EVs in Special Attack as well, its normalised base Special Attack stat would become 113+32 = 145. The statistical damage would be 145×95 = 13775, which does more damage than Thunderpunch again (by 6.2%).

If you want to factor in natures, stat boosts, STAB, or any other multipliers in your calculations, you can do this by simply multiplying the statistical damage by the usual multiplier (1.1 for a boosting nature, 0.9 for a hindering nature, 1.5 for STAB, etc.).

So an Adamant Electivire with 252 EVs in Attack would have a statistical damage of 12975×1.1 = 14272.5, which beats Thunderbolt with 252 EVs in Special Attack and a neutral nature (by dealing 3.6% more damage).

Let's give a second example. Recall that, in the introduction, we posed the following question:

"Given the same EVs, does a 150 base Attack Pokemon using Brick Break deal more damage than a 75 base Attack Pokemon using Focus Punch?"

Let's answer it using normalised base stats.

150 base Attack, 75 move power: 168×75 = 12600. (150+18 = 168)
75 base Attack, 150 move power: 93×150 = 13950. (75+18 = 93)

So the 75 base Attack Pokemon using Focus Punch would deal 10.7% more damage if both Pokemon have 0 EVs in Attack. (13950/12600 = 1.107) This will also be the case whatever the EVs are. (Actually, the more EVs you put in the calculation, the bigger the percentage increase in damage becomes. For 252 EVs, the second Pokemon ends up dealing 25% more damage than the first one.)

4. Normalising the Defense Base Stats

Normalising the Defense and Special Defense base stats is done in exactly the same way as for the Attack and Special Attack base stats. Here is a short summary:

Normalised Base (Special) Defense = Base (Special) Defense + 18

If you have 252 EVs in the stat, add 32 to the normalised base stat (or add 50 to the base stat).

We shall see the use of normalised defense base stats shortly.

5. Normalising the HP Base Stat

The HP base stat is normalised in a different way than the other base stats. Instead of adding 18 to it straight away, we must first divide the HP base stat by 4, and then add 18.

Normalised Base HP = Base HP ÷ 4 + 18

Also, if you have 252 EVs in HP, add 7 to the normalised HP base stat (or add 25 to the base HP stat divided by 4). This can be understood as adding 1 to the normalised HP base stat for every 36 EVs you put in HP.

The reason why the HP stat is normalised differently is that the formula for the actual HP is different than that used for the other stats.

6. Statistical Defense and Special Defense

As we saw before, a 100 base HP Pokemon having 80 base Defense does not have the same physical defense as an 80 base HP Pokemon having 100 base Defense. However, using the normalised HP and Defense stats, we can know which of the two is better. This is done by calculating the statistical defense, which has a very simple formula:

Statistical (Special) Defense = Normalised Base HP × Normalised Base (Special) Defense

A Pokemon with higher statistical defense will be dealt less physical damage than another Pokemon with a lower statistical defense.
As an example, let's consider the second question posed in our introduction.

"Given the same EVs, is a Pokemon with 100 base HP and 80 base Defense more defensive than one with 80 base HP and 100 base Defense?"

A Pokemon with 100 base HP and 80 base Defense with 0 EVs will have a normalised base HP of (100÷4)+18 = 43 and a normalised base Defense of 80+18 = 98. Thus, the statistical defense would be 43×98 = 4214.

A Pokemon with 80 base HP and 100 base Defense with 0 EVs will have a normalised base HP of (80÷4)+18 = 38 and a normalised base Defense of 100+18 = 118. Thus, the statistical defense would be 38×118 = 4484.

Thus, the second Pokemon will have overall more defense than the first one. The first Pokemon will actually be dealt 6.4% more damage than the second one. (4484÷4214 = 1.064)

Let's see what happens if both HP and Defense have 252 EVs.

The 100 base HP and 80 base Defense Pokemon with 252 EVs in both stats will have a normalised base HP of 43+7 = 50 and a normalised base Defense of 98+32 = 130. Thus, the statistical defense would be 50×130 = 6500.

The 80 base HP and 100 base Defense with 252 EVs in both stats will have a normalised base HP of 38+7 = 45 and a normalised base Defense of 118+32 = 150. Thus, the statistical defense would be 45×150 = 6750.

So, again, the second Pokemon will have overall more defense than the first one, since the first Pokemon will be dealt 3.8% more damage than the second one. (6750÷6500 = 1.038)

If the defense or special defense stat has any modifiers (nature, stat boosts, etc.), they can be multiplied normally to the normalised base (special) defense stat.

7. Crude Percentage Damage Calculation

The statistical damage and statistical defense can also be used for a crude damage calculator. This allows us to calculate damage using just the base stats of the Pokemon, without having to calculate the actual stats of the Pokemon in question.

Maximum Percentage Damage = Statistical Damage × 10.5 ÷ Statistical (Special) Defense
Minimum Percentage Damage = Statistical Damage × 9 ÷ Statistical (Special) Defense

Let's do a sample damage calculation: Garchomp with 252 Attack EVs using Earthquake against Slowbro with no EVs in Defenses.

Garchomp has 130 base Attack. Slowbro has 95 base HP and 110 base Defense.

Statistical Damage = 180×100×1.5 = 27000. (130+18+32 = 180, ×1.5 is for STAB)
Statistical Defense = (95÷4+18)×128 = 41.75×128 = 5344.

Therefore,

Maximum percentage damage = 27000×10.5÷5344 = 53.1%.
Minimum percentage damage = 27000×9÷5344 = 45.5%.

The real values are 53.8% and 45.6% respectively, which, as one can readily verify, are very close to the values calculated using the approximate method using normalised base stats.

This section will explain from where the equations for the normalised base stats were derived, and hence may be skipped upon first reading.

The equation for the actual stat of a Level 100 Pokemon having 31 EVs in all stats is the following:

Stat = (Base Stat × 2 + 31 + Num + floor(EV ÷ 4)) × Nature

where Num = 110 if the stat is HP, and 5 otherwise.

This means that for the stats other than HP, assuming a neutral nature:

Stat with 0 EVs = 2 × Base Stat + 36 = 2 × (Base Stat + 18)
Stat with 252 EVs = 2 × Base Stat + 99 = 2 × (Base Stat + 49.5)

To calculate the statistical damage, we multiply the attack or special attack stat by the move power. However, since the stat is always twice a number, the statistical damage will always end up as being twice a number as well. Hence, the normalised stats can be defined as being half the actual stats for simplicity purposes (rounding 49.5 up to 50):

Normalised Stat with 0 EVs = Base Stat + 18
Normalised Stat with 252 EVs = Base Stat + 50

For the HP stats, we write them down in this way first:

HP Stat with 0 EVs = 2 × Base HP + 141 = 8 × (Base HP ÷ 4 + 17.625)
HP Stat with 252 EVs = 2 × Base HP + 204 = 8 × (Base HP ÷ 4 + 25.5)

Since the statistical defense is equal to the HP and Defense stats multiplied by each other, we again can use one eighth of the HP stat multiplied by half the Defense stat instead, and the statistical defense will always be one sixteenth of what it should be. Hence, we can define the normalised HP stat as being one eighth of the real HP stat, rounding the numbers from 17.625 to 18 and from 25.5 to 25. This is simple since we still end up adding 18 for the 0 EV normalised HP. Thus:

Normalised HP with 0 EVs = Base HP ÷ 4 + 18
Normalised HP with 252 EVs = Base HP ÷ 4 + 25

9. Summary

Here is a short summary of all the formulae given in this article:

Normalised Base Stat = Base Stat + 18 if the stat is not HP

Normalised Base HP = Base HP ÷ 4 + 18

Normalised Base Stat with 252 EVs = Normalised Base Stat + 32 if the stat is not HP

Normalised Base HP with 252 EVs = Normalised Base HP + 7

Statistical Damage = Normalised Base (Special) Attack × Move Power

Statistical (Special) Defense = Normalised Base HP × Normalised Base (Special) Defense

Maximum Percentage Damage = Statistical Damage × 10.5 ÷ Statistical (Special) Defense

Minimum Percentage Damage = Statistical Damage × 9 ÷ Statistical (Special) Defense

As one can see, the above formulae are all relatively straightforward (especially compared to the actual Stats formula and Damage formula).

The statistical damage can be used as is to compare the damage dealt by different Pokemon using various moves, from just their base stats.

The statistical defense or special defense can be used as is to compare the physical or special sturdiness, or lack of, of different Pokemon from just their base stats.

#### Thorns

Very useful, now I know what move to pick when I'm using my mixed attackers =)

#### LickThePaint

x2 or x4.
Great work man, should help a lot of people (Myself included:D)

#### 092

That's not changing the calculations. That's the calculations for changing it. Where would you put the .25X, .5X, 2x, 4x at in that.

#### X-Act

##### np: Biffy Clyro - Shock Shock
In the statistical damage.

#### twilightwolf90

Ack! lol...

I was creating a Java applet for maximizing the HP * (Special) Defense calculations with EV's in both defenses...

I will incorporate the new calculations into the applet... thank you X-Act.

Should I post here when the applet is done?

#### X-Act

##### np: Biffy Clyro - Shock Shock
My article in no way does it mention how to maximise the HP x Defense calculation. And furthermore, the calculations I use are very good approximations, but are not exact... I just used an easier method of calculating things which mimic almost exactly what happens in the game. It doesn't find the _exact_ calculations, though. So your applet would still be interesting in a standalone article, since I'm assuming you're using the exact formulae.

However, wouldn't your applet do exactly the same thing as my Defense EVs applet that maximises the defenses of Pokemon?

#### twilightwolf90

I looked at the Statisitical Defense formula and thought that the goal of defense should be to maximize that value. So, my applet uses a modified form of the HP*(Sp) Def formula used commonly instead of the one you use... which is probably better anyway. Well... at least I can test mine against yours. :D

Should I use the normalized or the old HP*(Sp) Def formula?

#### Dragontamer

Hmm, interesting. You think I should write up a program to set the normalized stats for all the pokemon? I can post the list here when I'm done. (it wouldn't be hard. I'd just have to manipulate the program I already have for Defense tiers into this formula)

#### chaos

Owner
this is kinda cool, and i'd like to eventually put it on the site. can you add some insight to why the magic number seems to be 18?

#### david stone

##### Fast-moving, smart, sexy and alarming.
The formula for stats (other than HP) is:

([(2 * Base + IV + EV / 4) * Level / 100] + 5) * Nature = Stat

When the level is 100, and IV is 31, the EV is 0, and the nature is neutral, that becomes:

2 * Base + 36 = Stat

Now we're basically trying to solve for the Base stat here.

Base = Stat / 2 - 18

Now because the comparison is between two different stats, both of which will have this division by 2, the essentially do not matter (they cancel out). The reason for this is because you only care about their relative strengths. (100 / 2) is still twice as big as (50 / 2), even though you divided both of the numbers.

#### Brain

(formulas taken from veekun)

atk = (base * 2 + IV + effort / 4) * level / 100 + 5
= (base * 2 + 31 + effort / 4) * 100 / 100 + 5
= base * 2 + effort/4 + 36
= 2*(base + effort/8 + 18)

We can drop the 2* because we just want to compare the statistical attack and we know that power*atk is already proportional to damage times something that's constant w.r.t. defense, stab, type effectiveness, etc.

For hp, we have:

hp = (base * 2 + IV + effort / 4) * level / 100 + 10 + level
= (base * 2 + 31 + effort / 4) * 100 / 100 + 10 + 100
= base * 2 + effort/4 + 141
= 2*(base + effort/8 + 70.5)
= 8*(base/4 + effort/32 + 17.75)

So the hp stat is approx. base/4 + 18 + effort/32 (which is 7.96 if effort=255, I'd rather round up that one)

#### X-Act

##### np: Biffy Clyro - Shock Shock
Basically it's for the reasons Obi and Brain said.

Also, max effort is actually 252. So for HP, the maximum HP stat would become 2*HP + 31 + 110 + 63 = 2*HP + 204. Dividing this by 8, it becomes HP/4 + 25.5.

So it's an open question whether to add 7 or add 8 to HP, since 25.5 is exactly half way.

This also happens for the other stats, btw. For Atk, say, we would have 2*HP + 31 + 5 + 63 = 2*Atk + 99. Dividing this by 2, it becomes Atk + 49.5.

So again it's an open question whether to add 31 or add 32 to the other stats when you have 252 EVs.

What I did to try to balance things out was to round up 49.5 to 50, but round down 25.5 to 25, since 49.5 x 25.5 = 1262.25, while 50x25 = 1250, which is similar. Also, since 50 is twice 25, it is more easily remembered somehow, lol.

I would like to point out again that the normalised stats calculations are not exact. They are just simpler calculations that produce extremely good approximations, however.

@twilightwolf90: Using the exact formula is obviously better, so use that. However, I have a feeling that your applet will end up doing exactly the same thing as my defense EVs applet. :(

@Dragontamer: If you want, yes. However, be aware that the normalised stats (stat + 18 and HP/4 + 18) mimic the Pokemon having absolutely no EVs, which wouldn't be very interesting in my opinion, since all competitive Pokemon have EVs. You could make a chart with these 0 EV normalised stats and then add up all the normalised stats for each Pokemon, creating a better hierarchy of Pokemon based on their normalised stat totals instead of just their base stat totals, since the normalised stats mimic the actual stats better.

#### Time Mage

Ah, awesome job. While I already had an idea of the differences (specifically, the "80 HP 100 Def vs 100 HP 80 Def" difference, because of how HP is calculated), having such an easy and accurate method of comparing them is a huge addition.

Thanks!

#### chaos

Owner
-I- know why the number is 18, I was asking if we could put it in the article

#### X-Act

##### np: Biffy Clyro - Shock Shock
Okay, then. I'll put it in the article.

EDIT: Done. Should I explain the x10.5 and x9 for the max and min damage as well?

#### X-Act

##### np: Biffy Clyro - Shock Shock
chaos said:
this is kinda cool, and i'd like to eventually put it on the site.
I converted this to HTML. Should I put it in the SCMS, and, if so, under what filename?

#### chaos

Owner
could you PM it to me? I'd like to look over it and I haven't decided where on the SCMS it should go.