recursal/Fanatic-Fandom huggingface dataset:
23: Parasite

**23: Parasite** is the twentythird level of the game.

## Description

"The density of this slippery substrate varies with height, making cells collect in the center. Some species is a read living here but can you get another one living here for at least 500h without using phagocytes?"

## Substrate

No light, but some nutrients and phagocytes going to the middle of the center.

### Substrate Settings

* Maximum cell count: 1000
* Petri dish diameter: 1.0 mm
* Substrate viscosity: 0
* Nutrient rate: 10.750
* Nutrient chunk size: 0.150
* Salinity: 0.300

## Solution

This only consists of 4 modes. In here, you are gonna make a wall hanger. Well, How do you do it?

Just make M1 a lipocyte with adhesin and keep adhesin off. It will split to M2 glueocyte and M3 lipocyte with max nutrient priority.

M2 will split M2 and M3 lipocyte with max connections 1 with max nutirent priority. M3 will split into M3 and M1 with keep adhesin off with max connections 2 and max nutrient priority plus adhesin. Now place it on the wall and it can slowly reproduce. You can also put it on somewhere.

## Trivia

* This is the first level featuring the gravity feature.

 Other
Cubical Flagellacilio

## Description

Cubical Flagellacillos (Bactericilliate Cubicuis) is a major species of Flagellacillo which have evolved to be wide and cubical. They are peaceful but aimless. They do not suck nutrients in. They swipe debris around their bodies. Cubical Flagellacilios evolved to have a mirror body, causing it to become square-like. All though similar to a Smart Flagellacilio, they do not have stereocytes and thus, not being smart. It is also said that Cubical Flagellacilios might get deformed. Cubical Flagellacilios can spin and orbit the center, slowing backing away from it.

## Scientific Classification

### Competitors

Cubical Flagellacillos have no keratinocytes, so they are exposed to alot of predators.

Like their ancestors, they do not start fights and Cubical Flagellacilios do not mind sharing their habitat. However, with predators (such as Predatory Flagellacillos), they will move fast to an other habitat where the Predator Levels are low.

This will make it hard for predators to hunt Cubical Flagellacilios.

### Reproduction

Like Flagellacillos, Cubical Flagellacilios have the ability to hatch double eggs (phagocytes) at the same time. The old ancestors might also have followers. Cubical Flagellacillos can hatch 2 eggs at the same time and regenerate their damaged or dead flagellates with their double phagocytes, depending on the amount of food it has. Cubical Flagellacilios are special but very similar to their ancestors, Flagellacilio.

### Appearance

Cubical Flagellacilios take an appearance of a Rectangle-Cubical shape, having a wide body varying green colors. Their shape is almost the same with Smart Flagellacillos, except the Cubical Flagellacillo has no stereocyte. The color is almost all the same.

### Habitat

Cubical Flagellacilios live in Ponds, Mosses, Lakes and other places with water. They live with other Bactericilliates, others without devorocytes or HCN. If it sees a predator, it will run away fast from the predator as fast as it can. Cubical Flagellacilios like nutrients, that they might live in places with a lot of nutrients. They do not mind crowds or hordes unless the crowds or hordes are armed dangerous species. Crowded with other bactericilliates, Viruses are enough to spread, so this Bactericilliate might get infected without knowing it. Sometimes, Cubical Flagellacillos can go to places without other bacteria because of too much viruses or predators.

## Dropbox

https://www.dropbox.com/s/dw6vu1gs1wu8p94/cube%20flagellacililo.substrate?dl=0

## Gallery

Bactericilliate Cubicuisa Bactericilliate Cubicuis feeding on fooda Bactericilliate Cubicuis with followersBactericilliate CubicuisBactericilliate Cubicuis
Diameter

**Diameter** is a cell stat which indicates the amount of diameter and mass that a cell has received. A cell could have mass or diameter by having nutrients inside. A cell diameter alot of mass can be big. Or if it has less diameter, it is small. It could change the weight of the cell and the diameter.

Cell mass does affect cell diameter.

By having more mass, it could increase in size.

This is a stub or is otherwise incomplete, you can help by making it bigger. You can edit this page here.
The 3 Brains

The 3 **brains**.

Not to be confused with Signal Senders,

This is a stub or is otherwise incomplete, you can help by making it bigger. You can edit this page here.

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## Brains

Those are the **brains**. The **Neurocyte**, which is the first brain. The second is The **Stereocyte**. Which could be used in almost everything.

The last one is the **senseocyte**, which could be sometimes useful.

## Functions

Those brains could be used in almost everything, including predators. They are used to control flagellocytes, Buoyocytes, Myocytes and lastly stemocytes. Those cells can be controlled by the 3 **brains. T**hey can send signals to these cells, letting them be controlled.

## Example

An example of a cell with a **brain** is a Triangeleo. It is controlled by sterocytes.

Another example is a Millipede. It has **Neurocytes**.

## Appearances

The appearances. First, we start with the **Neurocyte**.

Unlike other most **brains,** this looks like a circle which 6 seeds pointing into the nucelus. It has a perfect circle.

Next, we have the **Stereocyte**. It looks like the **Neurocyte,** except it having glueocyte-like hair on each side. They have 7 hairs for each more bigger hairs.

Now, the last one is the **Senseocyte**. It is the same but with bulky spikes all around the circle. It isn't many, but those spikes have 2 more spikes. The senseocyte has 9 spikes.

## Brain function

They are signal senders. They send signals to cells to make them control.

The **neurocyte** can repeat again and again.

For the **senseocyte** and **stereocyte**, it can detect colors or food.

When detected, it will send signal.
Cell Lab Wikia

## Welcome to the Cell Lab Wikia!

A wiki for the Android game Cell Lab by Petter Säterskog. The wiki is intended to provide information and solutions to the challenges, species and elements of the game.

### Categories:

Type https://cell-lab.fandom.com/wiki/Category:Cell Type

https://cell-lab.fandom.com/wiki/Category:Species

Click this to find a random species

## The Game

Cell lab is a free Android game made by Petter Säterskog, it is based on genome editing and evolution. In cell lab, you can create new organisms and watch them evolve. There are also challenges to test your skill at organism building. Can you do this?

* Discussions Moderator

## Cell Lab links

* https://www.youtube.com/channel/UCKw7QHCr7XV2\_NbrX3a1C4Q (YouTube channel)
* https://cell-lab.net (official website)
* https://forum.cell-lab.net (Cell Lab Forum)
* https://discord.com/invite/Y5uYJFf (Cell Lab Discord)
* https://www.reddit.com/r/CellLab (Cell Lab Reddit)

## Contribute!

You can contribute too!

Upload an image: Special:Upload

Create a page: Special:CreatePage

## Community

Official Forums: https://forum.cell-lab.net/

Official Reddit: https://www.reddit.com/r/CellLab/

Official Youtube Channel: https://www.youtube.com/channel/UCKw7QHCr7XV2\_NbrX3a1C4Q

## Did You Know?

That a Glueocyte can stick to the wall?

That there are 33 hairs on a Glueocyte?
Sheatfish

This variant doesn't eat animals.

The Sheatfish, better known as Wels Catfish, is a species of large catfish in the family Siluridae. A Sheatfish is a species of silurid which has a voracious appetite and eats alot of food. They grow very large and eat many fish, crustaceans and molluscs. Sheatfish devour anything in its path, eating away at all the food in the rivers and oceans they live in. Their great appetite and quantity of food they eat reflects onto the evolution of their size, speed and intelligence. Sheatfish are large but they are also quite sluggish and only smart enough to find certain coloured prey, which would be their preferred meal. Sheatfish are able to control pests since Water Fleas may overcrowd a plate. Since Sheatfish eat so much, they are able to control the population of Water Fleas with the benefit of gaining delicious snacks. Sheatfish are usually planktivorous, but they may also be piscivores (fish predation) and ovivores (egg predation). These giant beasts are slow and aren't so mobile as other fish. They are slow predators which take their time on latching onto prey and eating them whole. Sometimes, Sheatfish may eat their prey whole, gulping down large quantities of food into their body. Sheatfish are well-known for their incredible sizes, with some being normal-sized (like the specimen in the picture) and some becoming abnormally and almost-impossibly gigantic, with the biggest individual weighing 317 pounds. Some Sheatfish might go under the influence of a genetic abnormality, and this allows the catfish to become bigger and heavier, like some of the world-record catfish that exist today. Sheatfish are great giants, although slow, they can still grow much more larger and slower. Some species of catfish, such as the Amur Catfish, are much smaller, yet they do have an appetite similar to the Sheatfish. Since, Amur Catfish are smaller, they are more faster and mobile than Sheatfish, which are large, but come at a cost of less speed but wider mouths (meaning better feeding). Sheatfish live in the deep waters of rivers and usually disguise themself by hiding in the seabed, then sucking in their prey using their vacuum-like mouth to bring their prey to their jaws and then swallow it. A particular variation of Sheatfish evolved to have replaced their Nitrocytes with Secrocytes meaning it would be easier to trick prey and eat it, but it would come at the disadvantage of breathing difficulties, making gulps of air much more necessary. Sheatfish are also good at hiding and relaxing in dark, cold holes that they dig. Sheatfish mate
25: Mosh pit

**25: Mosh pit** is the seventeenth level of the game.

This is the 200th article on cell lab.

Happy 200th article!

## Description

"Can you make an organism quickly take over this crowded substrate?"

A crowded susbtrate.

## Solution

This only consists of 2 modes.

Let M1 phagocyte split into M2 ciliocyte and M3 phagocyte with adhesin on. Child 2 angle is 45 degrees. M2 won't split, and M2 has left movement speed and right movement speed max. M3 splits M3 phagocyte and M1 phagocyte. Now place it on the substrate. It should slowly reproduce to 300 cells.

## Trivia

* First level that has a filled substrate.

* It is a level with premade species.

* The level has 4 goals.

 Other
Challenge Solutions/37: Noncommutative viruses

This page contains player-made solutions of 37: Noncommutative viruses.

## PotatoDoesCode's solution

In Noncommutative viruses there is a lipocyte and around it, 6 differently colored virocytes. You have to get the combination right in order to get the right thing. Looking into each and everyone of the virocytes's genomes might be hard, so how do we do this? We simply do the combination of red, green, blue, yellow, purple, and then cyan. What you should see is you get a smart swimmer serpentine! Make sure to get the virocytes out of it's way; we don't want to infect it any further. It will take a little while, but what should've happened was that you completed the challenge!
Challenge Solutions/29: Floaters III

This page contains player-made solutions of 29: Floaters III.

## PotatoDoesCode's solution

   Floaters III is like Floaters II, except with no nitrates and some density gradient. Here, we can basically use the Floaters II solution to solve this challenge, obviously making sure to add nitrocytes in the genome. Before you follow along, I recommend you read the Floaters II solution so you can then edit onto it. Now, let's start designing! First, make M1's child 2 be M7 instead of M3. Have M3 be an nitrocyte with a split angle of 90 degrees. Make it's child 1 M3 and it's child 2 M8. M3 is the buoyocyte so we won't need to worry about it, but M8 should be a nitrocyte that can't split. Next, make sure M4's (the other form) child 2 be M9. Have M9 be a nitrocyte once again and make it split into M10 and M6 making sure to also set its split angle to 90 degrees. Make sure M10 is a nitrocyte that can't split. Finally, insert M1 into the plate! You should see that your genome is capable of reproducing even with the extremly low substrate nitrates. Incubate for some time, and what should happen is that the petri dish is now populated, and you completed the challenge!
Floral Moss

Floral Moss (Muscus flos) is a species of moss that inhabits the Plant Aquarium. They are related to Riverbed Moss, but they are different. Floral Moss has more brightly-coloured leaves and they are also more yellow in appearance. Their most notable different is that they have two large pink flowers. Their pale pink flowers are a great food source for predators, but once they are gone, they cannot regenerate their lost flowers. Each of the flowers have a Gamete, which if fused with another, can allow the Floral Moss to reproduce and create a new genetic copy of itself. Floral Moss can have a variety of coloured flowers and since the flowers reproduce based on genetic material, different coloured flowers can produce hybrid offspring with some colour from one parent, and another colour from another parents, introducing lots of variety to the way their flowers can grow. Like their relative, they also have Glueocyte false roots, which stick them onto the ground and keeps from being exposed above the river bed. Their flowers are a great resource for hungry predators which may specifically eat their flowers only and not the moss itself.
Cell Stacking Glitch

The **Cell Stacking Glitch** is a glitch that occurs when the 1000 cell limit is reached in a very large Petri dish. It causes cells to split into two layers, one being the normal, and the other completely intangible. Cells placed will sometimes be placed in either layer. This is not random; the causes are just undetermined as they do seem to change.

## Effects

Cell Layering: This is the main effect, explained above. Cells have no determined physics and can sometimes switch between layers, usually intangible to normal, especially when a cell is placed.

Telepathy: Cells that are clearly not connected can still transfer materials, usually connected between layers.

Phantom Cells: If you infect most of the normal cells and kill them with Cyanide, they will sometimes eject phantom cells that have no physical properties whatsoever. The chloroplasts in phantom photocytes will be rounded, absent near the nucleus, and stationary.

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## Side Effects

This glitch has no lasting side effects, but unless you sterilize it will stay glitched even if you kill some of the cells.
Petter Säterskog

Petter Säterskog is the developper behind Cell Lab. Petter graduated in september of 2017 from Leiden University in the Netherlands and has a Ph.D. in Theoretical Physics. He is also known to have studied Astronomy and Engineering Physics both in Chalmers university of technology in Gothenburg.

Petter has published several scientific papers in topics ranging from theoretical physics, to quantumn physics although he is most known for having single-handedly written the game Cell Lab from 2014 to 2018.
Signal Senders

Not to be confused with The 3 brains,

This is a stub or is otherwise incomplete, you can help by making it bigger. You can edit this page here.

Signal senders are things that can control things.

## Description

They are signal senders, such as the 3 brains.

The 3 brains has the signal sender function.

Such as the Stereocyte, Senseocyte, and lastly the Neurocyte.

## Function

Signal senders can be used to control cells.

When something detects an object, it will send the signal.

It is mainly used in Stereocytes and Senseocytes.

## What has this

The 3 brains, also known as the:

Stereocyte

Senseocyte

Neurocyte

Those have the signal sender things.

## Controlling

It can control cells.

Those signal senders could be used in almost everything.

It includes predators.

They are used to control flagellocytes, Buoyocytes, Myocytes and lastly stemocytes. Those cells can be controlled by the signal senders. **T**hey can send signals to these cells, letting them be controlled.
Genome Editor

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The **Genome Editor** is used for creating your genomes for cells.

## Genome editor settings

These settings allow you to access different modes and save/load genomes.

 **Save** | Button
 **Edit mode** | Selector
*The radio button "Initial" can be used to change what mode your cell starts in."*

## Mode Settings

*This does two things:*
* *The daughter cells stay together*
* *They can transport nutrients between them.*

 **Prioritize** | Checkbox
*This can be used to make sure that cells in an organism that have low nutrient priority will not give away their very last nutrients and die.*
 **Cell type** | Selector
*The types and their functions are:*
***Phagocyte**: These cells get chemical energy from eating particles in the environment.*
***Flagellocyte**: These cells have flagella that propel them.*
***Photocyte**: These cells convert sunlight to chemical energy.*
***Devorocyte**: These cells suck nutrients from other cells upon touching them.*
***Lipocyte**: These cells store energy chemically in lipids.*
***Keratinocyte**: These cells protect themselves and directly connected cells from hostile cells.*
***Buoyocyte**: These cells have a bubble of a fluid of tunable density.*
***Glueocyte**: These cells make adhesin connections to other cells or the environment upon touch.*
***Virocyte**: These cells inserts a copy of their own genomes into other cells upon touching them.*
***Nitrocyte**: These cells fixate atmospheric N2 to NH3.*
***Myocyte**: These are muscle cells that can contract, bend and lift other cells as a response to signal substances.*
***Neurocyte**: These cells can regulate signal molecule concentrations.*
***Senseocyte**: These cells can smell the concentration of substances in its environment.*
***Stereocyte**: These cells can can sense their left-right gradient of smells in the environment.*
***Secrocyte**: These cells can emit substances to its environment.*
***Stemocyte**: These cells can change into other modes when certain signal substance concentrations are high or low.*
***Gamete**: These cells can fuse with other compatible gametes to form new cells with a random combination of the two gametes genomes.*
 **Initial** | Radio Button
*What mode is initial is not important for the organism in the wild, it is just a means of choosing what mode cells should initially be in when shown in the preview window or placed under the microscope.*
*When a cell in copied from the microscope to the genome editor (top choice in "Load"-button menu) the mode the cell was in will be taken as the initial."*

## Daughter Cell Settings

These settings affect the daughter cells when the mother cell splits.

## Cell-Type-Specific Additional Settings

These settings are exclusive to certain cell types.

The Phagocyte, Photocyte, Devorocyte, Lipocyte, Keratinocyte, Glueocyte, and Nitrocyte do not have additional settings.
Challenge Solutions

This page is for showing the ways of solving some of Cell Lab's challenges. If you ever get stuck on a challenge, try using a solution from here. Each solution is 100% guaranteed to work for the challenge they solve, if you follow them correctly.

* 18: Infestation
* 22: Floaters II
* 23: Parasite
* 25: Mosh pit
* 27: Sterilization II
* 29: Floaters III
* 37: Noncommutative viruses
* 40: Digestion
* 44: Paleogenetics
* 49: Nervous
* 59: Move it!
* 62: Avoidance
* Scarce Conditions I, II, and III
* Desert I and II

 Other
PC version

This article is about an upcoming feature; please do not add any unconfirmed data.

**Cell Lab PC** is the computer version of Cell Lab. This version is very different from its mobile counterpart and will have better simulations and new features.

It's supposed to be released on Steam. But since Steam Greenlight has retired, it is no longer available. Entries and progress are available at the Cell Lab website. The last entry log was published on the 29th of January, 2022.

## New features

**Dynamic light and pigments**. Dynamic light is an upgrade of the way light works in the game. Instead of being everywhere in the petri dish, it will now be cast from the walls of the dish at an angle, which will probably be configurable. The light will act like rays; cells that block its path will cast shadows that affect the amount of light photocytes will receive when in it. Not absorbed light will remain in the shadows. Photocytes will receive new properties. They can now have one of three different pigments: chlorophyll A, chlorophyll B, or melanin. The first two will have different absorption spectra, and the optimal one will depend on the spectrum of light.

**UV light**. A UV light concept was being tested, where cells would have to use melanin to protect themselves from UV light. The melanin would cost a lot of energy, increasing the chances of a cell dying. Swimmers with UV protection, for example, would need a lot of food and a high salinity amount. The idea is probably removed and won't be in the release due to it being frustrating to code, and it didn't really create interesting ecosystems.

**Water surface**. Density and viscosity are 0 above it, resulting in organisms floating on the surface.

## Gallery

Genome editorSubstrateNew cell typePhotocytes casting shadowsWater surface (dark half of the petri dish)
Soil bit

## Description

   A **soil bit** is a non-live organism which can keep a shape of a Soil. It consists of 2 cells, a photocyte and a keratinocyte. These soil bits are strong. The Adhesin could also provide a hard grip. And it can't be poisoned/destroyed by lipase, HCN, and Devorocytes. It also requires light, which is used in most soil. It can come in diffrent shapes and sizes. It is almost nearly impossible to destroy soil bits, due to their amount of weak spots, mainly zero. There are alot of variants of soils, The Poisoned Soil, the Non Protected Soil, and the Hard Soil.
Hybridization of species

This is a stub or is otherwise incomplete, you can help by making it bigger. You can edit this page here.

This article is a tutorial.

You make hybrids by making an unused mode a gamete, then make it initial and make the Mode after Fertilization the Egg/Starting Cell of the species. Then, do the same to other species and combine it. This combines the genome of two species, and breeds them.
Standard Predator

## Predator

* Classic predator
* Offical predator

**Predators** are any flagellates within the class **Predator**. Their main distinguishing characteristic is they can prey on other organisms like the non-keratin Flagellates.

All of the predators evolved from the Flagellates, a very simple organism, so they have Flagellocytes as tails and/or "limbs", but the predators' heads are Devorocytes.

And as the name says, it's dangerous

## Classification

 Main Article: Standard Predator/Classification

## Cell stats

### Intellegence

They are very smart enough to hunt prey down.

### Attack

It can hunt prey down. They can't eat keratinocyte cells

### Stealth

They can be in any colors, red, green or other. They could attract other predators if their color is the same as the sense color.

### Defence

They have only one keratinocyte which can protect all cells, excluding the egg.

## Cell Class

### Power

12

In order to classify cells, go here.

## Gallery

A stereopreda pettis with an egg.Three stereopreda pettis are preying together on lipocytes.
The Cell Lab Team

The cell lab team is a youtuber in youtube.

### Description

Cell Lab simulates organisms living on petri dishes and requires thinking, experimenting, and creativity to complete challenges and develop new species. The channel offers Walkthroughs, solutions, experimental species, and user-created challenges to explore the world of Cell Lab.

### Stats

#### Newest video

##### Date of new video

Sep. 13. 2018

**Colors**

#### Related channels

Petter Säterskog

Bart Wisialowski
Tardigrade

**Tardigrades** are living species in the Moss Aquarium. They have eight feet to move. They mainly live in Moss Aquarium habitats, and gravity habitats. Their myocytes are capable of regenerating their feet. They are grey in color, and is protected but some parts are vulnerable to predators. They mostly have a lot of buoyocytes to float up.
Virus Lake

In order to classify cells, go here.

A virus lake is a protective organism which is dangerous. It consists of 2 cells, a photocyte and a keratinocyte.

It splits devorocytes as a protective mechanism. Its closest relative is the Paleogenetics lake along with the HCN lake.

## Devorocyte evolution

It starts with a photocyte, then it splits into 2 devorocytes.

## Movement

By spllitting the devorocytes, it can move very slowly.
Starfish

A resting Starfish

Starfish are a species of echinoderm which are smart and they are in the same Class as Sea Urchins and Sea Cucumbers. Starfishes cannot physically move across the substrate, but they are able to move their arms to try and collect food. These Starfish use their five arms to try and grab nutrients, filtering out the salty water and eating the nutrients dissolved in the waters they live in. They don't move, but they are smart creatures which can sense food. As well as having Photocytes as a food source, their Phagocytes collect the nutrients, which are directed by the Myocytes which is given signals by the Stereocytes. This helps the Starfish gain the maximum amount of food, while still being able to survive and thrive in the open ocean. Although these Starfish may be smart, they do not have any defense mechanism to fight or ward off predators. As well as being great food scavengers, they are also a great food source for hungry predators who decide to settle on Starfish meat.
Greenfish

## Description

A Greenfish scavenging for food.

The Greenfish is a variation of a standard smart swimmer that feed on the nutrients on the petri-dish. Greenfish have a dark

## Cell stats

### Defence

Super low, but has some defense.

green colour and a more lighter green in the middle of their bodies.

These swimmers have Lipocyte eggs and they will hatch once it gets enough nutrients from the parent. Once it obtains enough lipids to hatch, it detaches itself from the parent and grows into another Greenfish. Greenfish are very weak as they only have few cells but they are great prey for predators as they have nutrient-rich bodies which has alot of food stored inside.

Since they have no keratinocytes, these smart swimmers are vulnerable to any attack, whether if its a devorocyte, glueocyte, or a secrocyte predator. Their structure is basic and it helps for these species to multiply fast. Greenfish are special because they can spit poisonous secrocytes at predators. They spit cyanide as a way of defence to poison predators and kill them.

## Preference

Greenfish can survive in any habitat where it doesn't have:

1. Too dry that the swimmer can't even move
2. No nutrients
3. Many predators that can hunt them
4. Mutations and high Substrate Viscosity

## Stages of Life

1. It starts life as a white lipocyte egg.
2. The egg splits and the body starts forming.
3. The body and the head is created.
4. .The flagellocytes on both sides of the body form and it is an adult.
5. An egg is created on the back of the Greenfish.

## Trivia

* This species is so basic that it can only sense food on the petri dish.
Tutorial III

The third tutorial of the game.

## Introduction the to Genetic Design

An introduction to genetic design so it can teach you how it works.

## Estimated time

30 minutes to 50 minutes

This tutorial will guide you through how to design a basic swimming and reproducing organism. First go to genome editor and make sure that mode M1 is of type Phagocyte and makes adhesin when it splits. Then set tte preview time to 0.8 h.

### Step 2

Setting cell genration 1

Nice work!

Remember that you can press the Make adhesin text to understand what that property is. Now you should see two indentical cells attached to each other. They are both in mode M1 since the inital cell in mode M1 currently splits into two cells of the same mode. Now we want to modify this so that the left cell is in mode M2 and the right is in mode M3. We do this by mode M1:

Set child 1: mode to M2

Set child 2: mode to M3

### Step 3

Excellent!

Now you should see two cells of diffrent colors. We want te left cell to propel our organism and the right cell to provide it with energy. Make sure mode M3 is a Phagocyte. Then edit mode M2 and make it a flagellocyte.

#### Solution:

Select M2 in the edit mode by clicking on it and set the cell type to flagellocyte.

### Step 4

Great! You now have a swimmer! You can try that it actually swims in the microscope. It can not reproduce yet though. We want the Phagocyte in te front to split off a spore that can develop into a new swimmer. We thus do not want the Flagellocyte to ever split so go to mode M2 and set thhe split mass to max.

### Step 5

Great!

Now you can turn up the preview time to 2.0 h. We see a spore splits off from the mode M3 cell. We want this spore to be of the inital mode M1 so the life cycle is closed. Edit mode M3 and set Child 2 to be mode of M1.

### Step 6

Save your work

Perfect! Your swimmer should be done now! You can try it out in the microscope. It is a good idea to save this genome for future use in the challenges.

## Trivia

This is the tutorial that has the least most amount of steps.

## Description

Follow the instruction in the pop-up dialogs.
Self-Protective-Ring-Flower

The Self-Protective-Ring-Flower is a genome that is presented in the "Infestation" level. It reproduces very fast and effectively but after 2 generations it reaches cell limit. It is almost defensive on the outside, but defenseless in the inside.

## Reproductive Cycle

Their reproductive cycle may be a little unbalanced. The process begins with 8 Photocytes surrounded by Keratinocytes. The Keratinocyte wall is eventually destroyed by the growing Photocytes, which have evolved into basic swimmers. The fundamental Swimmers then revert to Photocytes, forming another Keratinocyte wall with a Photocyte. When the Self-Protective-Ring-Flower (SPRF) breaks, instead of repeating the cycle, it is unable to complete the cycle again because it has reached the maximum cell limit.

## Elimination

To eliminate these species, use a microscope to zoom in on a small hole in the crowded Photocytes. Insert a Devorocyte into one of the holes, and it will reproduce within. Don't change the genome; simply insert it into one of the possible placement holes. Repeat with the remaining SPRFs until they are all dead.
Settings (tab)

The cell lab settings of the game.

Type: multiple choices

Spanish

Korean

Poland

Russian

This will keep your device from going to sleep while running long simulatIons. Remember to plug in your charger!

#### Uses

For long simulations like creating a beehive.

### Ask before leaving lab

Type: Checkbox

This will ask you before leaving the lab. Useful if you missclicked.

#### Pop-up

Leaving experimental species in the open is against the lab policy!

### Ask before sterilize and reload

Type: Checkbox

This will avoid you sterilizing your substrate if you misclicked.

#### Pop-up

Reload current substrate

Killing too many cells might result in another chat with the ethic committee...

### Lock genome preview

Type: Checkbox

This will lock your camera in the genome preview.

### Show cell type

Type: checkbox

When enabled, this will indicate cell type abbreviations next to mode settings in the genome editor.

### Microscope slow motion

Type: checkbox

The slower simulation is not exactly equivalent to the normal speed simulation. This option can add a new temperature in to the temperature changer.

### Log substrate statstics to file

Type: Multiple chices

No logging note that logging slows the simulation and can take up much space.

#### List

No logging

Every 12 min

Every 1 h

Every 5 h

Every 25 h

Every 125 h

Every 625 h

## Audio

### Music

Type: checkbox

It disables the audio of the music.

### Sound effects

Type: checkbox

It disables the audio of the sound effects.

## Graphics

### Anti aliasing

Type: Multiple choices

Note that any setting other than " None " will slow down the rendering speed significantly on many devices.

#### List

None

1.5 x 1.5 Super sampling

2 x 2 super sampling

3 x 3 super sampling

4 x 4 super sampling
Virocyte

Virocyte is a cell type unlocked after completing challenge 30: Harsh Conditions.

## Description

The Virocyte is a cell with stick-like protrusions. It has the ability to infect unprotected cells by touching them. When infecting another cell, it will pick the mode specified in its *Virus copy from* setting, and copy it to the genome of the cell being infected. The Virocyte will also copy the modes that this selected mode would split to, and also the ones that *those* modes would split to.

It's a high consumption cell with **2 ng/h** of Energy Usage Coefficient.

## Cell-specific settings

Virus copy from X: The mode the virus copies from.

## Trivia

* Virocytes used to have another option called "Virus copy to", which just changes the destination mode of the genome copy.
Paleobranchia (Suborder)

Paleobranchia, meaning Old gills is a diverse suborder with all non-neotonic and small Gilled Swimmers.
It has many containing tiny-cave dwelling Proto-Breather Swimmers to massive Gilled Snake Swimmers.

The graph of all hybrids
Containg Gilled Snakes, Cotton-Gilled Swimmers, Gilled Sandfishes, Fox-Eared Salamanders, Cave Gilled Swimmers, Gilled Smart Swimmers, Bull Swimmers, Gilled Bitter Flies, and finally Proto-Breather Swimmers, most of them are not neotonic and are smaller than most salamnders. However, paleobranchians could make hybrids. At all times, Paleobranchians could not make hybrids with other true salamanders. At all Paleobranchians, the first ancestor known was the Proto-Breather swimmer. All paleobranchians are gilled, and are smart.
Paleobranchia contains more than 3 species of gilled swimmers. It also has 2 genera, which are called Paleobranchius and Psuedoranula.

## Download

It contains from old paleobranchians to new.

https://www.dropbox.com/s/pkly8fw85oonr25/paleobranchians.substrate?dl=0

It also contains a horned gilled swimmer, a Megalogill swimmer, the original gilled swimmer, a Secured Bull Swimmer, and the Original Fox-Eared Salamander.
The Crowd Generator

The Crowd Generator is a huge organism made by photocytes making flagellocytes.

When something gets into it's way, it will push it repeatdly.

It lives in a 3.0 MM petri dish.

It has 50 photocytes.

The total cells in it has:

It is very huge, annd is good at defending.

It takes a hard time pushing the cell, but a good thing.

## Cell stats

### Defence

256

Those flagellocytes move into the right, creating a fire pattern shape.

876 - 50 Is equal into 826.

The time they die is 14 seconds, making them move for about 0.6 MM.
14: Sunlight II

**14: Sunlight II** is the fourteenth level of the game.

## Description

*The light source is now moving faster. Your goal is to design cells that can multiply up to 500 cells with this itinerant light source.*

## Substrate

* Same as level 9 with faster rotating light source.

## Solution

* →
* Hint
* Spoiler

Click a Tab to reveal the Hint.

Your cells can never swim fast enough to keep up with the sun. Instead, accumulate energy when it is abundant for use during dark times.

Make a long worm consisting of both Photocytes and Lipocytes. One way is to have:

Mode 1: Photocyte, split to 2,3
Mode 2: Lipocyte, will not split
Mode 3: Photocyte, split to 1,1

Make adhesin for all of them.

 Other
Wide smart swimmer

Wide smart swimmers hunt for food. They have two sterocytes to steer for food.

They are perfect for predators because they have no keratinocyte, and they have 6 cells and they eat food.

Long smart swimmers eat food to survive.

They are also like the Tiny Swimmer, but has dual stereocytes.

They are non-predators.

### Classication (custom names bc why not)

**Class Non-predatoria**

* **Superorder Hallunonpredatoria: 2 (or more) Sterocyte non-predators**

* Order Non-Steropredatoria: 1 Sterocyte-Nonpredators
	+ Order Non-Inculusnonpredatoria: Non-smart nonpredators

* Family Steronenopredatorus: 1 flagellated non-predator

* Family Steerononpredatorcus: Myocyte flaggelated non-predator

* Family Sterononpreda: 2 (or more) flagellated non-predator

* Genus non-steropreda: 1 Sterocyte predator
* Genus Nonomulti-steropreda: 2 (or more) Sterocyte non-predators

## Scientific Classification

### Species

Long smart swimmer

   In order to classify cells, go here.
Shelled Ant

Shelled Ants are a type of ant that consumes food.
The Shelled ant was created by Hitori Rui3.
It's quite heavy.
It is a subspecies of the Long smart swimmer.
It has 3 stereocytes so it is very smart. The 2 stereocytes on the back aim for food, while the front avoids walls. They do not work together.

## How Does It Work?

It all begins with a lipocyte egg.
Then, the Shelled Ant transforms into a predator in the absence of Devorocytes.
Then it develops a shell.

## Skills

* It has the ability to steer using Flagellocytes.
* It can use a specialized Stereocyte to steer for food.

* This ant is a worker ant.
* The ant has significant weight.

## Distribution

It may dwell in areas where there is a lot of food. Large areas also count because overpopulation is bad for Shelled Ants.

## Trivia

* It is encased in a shell.
* It is classified as a heavy organism.
* Unlike other ants, it doesn’t have 2 forms, only a worker.

## In the Real World

They eat other food in real life as well.

## Miscellaneous

It is gigantic so it pushes algae rapidly.
The shell is the size of 7 cells, making it the largest part in the Shelled Ant body.
V74

**v74** is the latest version of the Cell Lab fifth update, and one of six versions available for download on the official Cell Lab website.

## Differences

### From v103

#### General

* The cell boost and cell removal tools didn't exist.
* Coated food didn't exist.
* The *Nitrates* substrate setting was a checkbox rather than a slider, and was instead named *Substrate with nitrates*.
* Mobile food didn't exist.
* There was not an option to log substrate statistics to file.

#### Cells

* Gamete and Ciliocyte didn't exist in v74.
* The maximum amount of modes in a genome was 20 rather than 40.
* Virocytes still had the *Virus copy to* option.
* The *Adhesin stiffness* setting had a maximum value of 1.0 instead of 35.0.
* The *Cytoskeleton*, *Adhesin length*, and *Max connections* settings didn't exist.
* The *Prioritize* setting was instead named *Stay alive*.
* Advanced genome settings didn't require the completion of Slippery Slope to unlock.
* Stereocyte and Senseocyte were only able to sense food and other cells, and its output setting was limited at -30.00 and 30.00 instead of -60.00 and 60.00.
* Neurocyte's period setting in the oscillation preset had limits of 1.00 h and 7.00 h instead of 0.25 h and 9.25 h.
* Secrocyte were only able to secrete food smell and HCN, which was termed "cyanide" at the time.
* Only signal substances can be used in cell programming.

#### Challenges

* Colors, Breeding, Breeding II, Scavenger, Mosh pit, Moss IVF, Maze, Noncommutative viruses, Digestion, Digestion II, Digestion III, Population Bottleneck, Adaptation, Paleogenetics, Flat Earth, Food delivery, Move it!, and Nanobot didn't exist in v74.
* On the other hand, Tip the Balance II existed in v74 but is no longer present in v103.
* The difficulty labels were Easy, Difficult, and Very difficult instead of Undergrad, Phd, Mad scientist, and Superhuman AI.
* The button to reset the challenge simply had "Reset" written on it.

##### Macrophages II

* You were able to place 30 cells instead of just one.
* The goal was to get 600 cells instead of 650.

##### Coexistence

* The goal was to get 600 cells instead of maintaining 400 cells for 50 h.

##### Balloons

* The goal was to get 250 cells instead of 200.

##### Friction

* You were able to place 10 cells instead of just 4.

##### Nervous

* The required amount of initial cells was 700 instead of 680.

##### Scarce Conditions

* Completion was required to unlock Secrocyte and further challenges.

### From v62

TBA

 External links
Protease

This is a stub or is otherwise incomplete, you can help by making it bigger. You can edit this page here.

Protease is one of the chemical substance secretable by the Secrocyte. When it touches two connected cells simultaneously, it will break the adhesin connection between them. Keratinocytes do not protect against the effects of protease.

Protease is often the main (if not only) way of killing fully-protected organisms.
Stone coral

Stone corals are predatory corals. Instead of using HCN they use devorocytes.

**Stone Corals** are very small plants, related to the Angler Coral.

## Description

Stone corals are corals that live in deep waters with fishes. Each two devorocytes are on each sides and has four devorocytes. Stone Corals used to have fore branches which are the same but extended. Stone corals are very fragile and they are mostly just pure fat. This make them big and thick. Stone corals are sold as exotic pets because of how dangerous they are. They are fed by fishes. They are a species without any Nitrocytes because breathing the lake water where they live would be a bad idea.

## Habitat

Stone Corals live in places with prey around, or light. Even without light they still survive with prey and can be in dense overpopulated groups. They will die if they don't live in overpopulated schools.

## Evolution

Stone Corals most likely lived as a angler coral, single. There was overpopulation, and eventually they grew devorocytes and secrocytes. It grew a fore tumor with an extra food smelling branch but was later removed by evolution.

## Cell stats

### Stealth

Attracts prey using food-smelling secrocytes.

## Anatomy

Stone Corals consist of 2 forms in its anatomy, Top and down.

The Top form however has two side devorocytes, making it quad devorocytes. It has a food smelling secrocyte on it.

Next, the fore branch has a keratinocyte and a glueocyte (along with the photocyte). Moving on to the down form, it is just pure keratinocytes and myocytes.

## Gallery

A **Stone coral**.2 red-striped swimmers falling for the bait.
Photoflower

Photoflowers known as Lux Follium are species of sea flower found in mainly aquariums, or ocean floors. Photoflowers (Lux folium) are a species of algae which has the shape of a flower. Its photocytes are pink, like petals and its Gamete in the centre can reproduce, meaning more Photoflowers can be produced. However ancestors of Lux Folium have be found to be extinct, kept in the Cell Lab Species Muesum, it is exactly like it's ancestor, except it de-evolved due to aging of stem. Stem are too unsupportable they gave up to get destroyed.

## Mating

It mates by force. Photoflowers may mate if in touch of it's mate. It is rare for them to mate, but if with a broken petal, it can mate. This is due to choosement. Losing a petal affect it's health. So, it will come along then find a mate. Next, when they mate they produce a sapling, which in fact, grows into an adult photoflower. It reproduces not by roots, but it's self
Movers

Movers are type of cells that can move.

## What has this

The flagellocyte and the myocyte and buoyocyte has this. They are one of the cells that can move.

They are the only cells.

Myocytes can contract and retract.

Flagellocytes can propel itself.

Buoyocytes can float up and down.

## Function

They have the function to move.

They can move anywhere.
Wide Flagellacilio

This is a stub or is otherwise incomplete, you can help by making it bigger. You can edit this page here.

**Don't edit this page. More information will be added.**

## Description

**Bactericilliate Lataoris (Wide Flagellacilio)**, meaning Broad-Mouthed in Latin, is a species of Bactericilliate which had also evolved like B. Intelligentia, to be smart and grow a brain. It is closely related to Flagellacilios and Phago-Cilios, but they are not descendants of Flagellacilios, rather a completely different species that was able to become smart but differentiated, adapting to have grown a broader mouth.

### Aggression

Wide Flagellacilios can sometimes turn on each other and start becoming very aggressive, bashing into other Wide Flagellacilios, angering them. They fight for food and territory and sometimes they can start some serious fights with fatal consequences. When two of these 'bulls' engage in a battle, their Ciliocyte mouths collide with each other as they try to push the rival away from them. This battle lasts for a long time and when it ends, one of the fighters would have lost, with a fatal injury with them. When two Wide Flagellacilios engage in battle, they try to break the adhesin connecting the two Ciliocytes, which can lead to difficulties with collecting food, as the broken Ciliocytes would now be considered 'useless'.
Taxonomic Rules

The Cell Lab wiki is open to all species and creations, but there are some rules to follow when making a page for your species!

1. Check first. Has someone else posted the same thing?

2. Differences. Please do not post a color variation as another species.

3. Kingdoms. Don't make your own kingdom unless it is something completely different.

4. Author. The author should go to the genus, while the first name (e.g. Examplia Examplus, Examplia is the first name) goes to the Family. (Optional)

5. Images. Please do a screenshot, not a photo of a screen!

6. Inappropiate species are not tolerated.

7. Please name the species in order to make it easier to find.

Those are the rules. Please follow them. If a species page does not follow the rules, it will probably just get edited but in the case of not following rule 1, 6 and 2, the page will get deleted. For rule 5, the image will get deleted and maybe replaced. And in rule 7, it will rename the species. Have fun posting species. Don't forget to add the Species category.
Ring and Spike Swimmers/Keratin-Ring Swimmer

## Description

Keratin-Ring Swimmer, also known as Ring Swimmer, is a species that lives alongside Smell Spike Swimmers. The side keratinocytes are referred to as "Shoulders." Except for the Stereocyte, they protect practically every cell to which they are attached. It consists of six cells. S2 signal is used by the Ring Swimmer's Stereocyte. They have Keratinocytes because they developed to cohabit with Smell Spike Swimmers. It possesses a stereocyte that hatches Smell Spike Swimmers and is fairly thick. They are not closely related to any other species. They are slow and hefty, yet they can survive in harsh settings. They have "body armor" to protect themselves from other predators. Ring swimmers thrive in places where there is a lot of food. The species' cells are completely blue, with the exception of the egg. They are kind of large since they have 6 cells.

A Keratin-Ring Swimmer.