Ants don’t actually “drink” — they use a highly specialized feeding system. In this article, discover how ant mouthparts work, including the glossa, labium, maxillae and mandibles, and how ants absorb liquid food, filter particles and transport nutrients through their unique two-stomach system. Learn how feeding, digestion and trophallaxis function inside an ant colony — and what this means for antkeeping and proper nutrition.
Ants and their symbiotic relationships are among the most fascinating examples of cooperation and conflict in nature. From mutualism to parasitism, ants interact with a wide range of species—including aphids, fungi, bacteria, and even other ants—forming complex ecological networks.
In mutualistic relationships, ants protect aphids in exchange for honeydew, defend acacia trees that provide food and shelter, and cultivate fungus as a primary food source. Some species, such as Camponotus, even rely on internal bacteria to produce essential nutrients, highlighting the depth of ant symbiosis.
However, not all interactions are beneficial. Many organisms exploit ants through mimicry and deception. Butterfly larvae, beetles, and spiders infiltrate ant colonies to steal food or prey on brood, blurring the line between mutualism and parasitism.
Ants themselves also engage in social parasitism. Slave-making ants raid other colonies to capture workers, while parasitic queens invade nests, eliminate the resident queen, and take control of the colony. In some cases, such as superparasitism, multiple parasitic layers exist within the same system.
One of the most extreme examples of parasitism is the Cordyceps fungus, which infects ants and manipulates their behavior to spread its spores. This phenomenon demonstrates how evolution can produce highly specialized and dramatic survival strategies.
Overall, ant symbiosis is not limited to simple categories like mutualism or parasitism. Instead, it forms a dynamic spectrum of interactions that shape ecosystems and reveal the extraordinary adaptability of ants.
What happens when an ant develops the wrong way? In some colonies, these unusual individuals—often called “monster ants”—emerge with oversized features and strange proportions. But rather than being a failure, these biological accidents can become unexpected advantages for the colony.
Discover Polyrhachis armata, a spiny tree-dwelling ant that weaves silk nests in the canopy using larvae as living silk tools.
Linnaelu ei tee mitte ainult inimestele stressi - see muudab ka sipelgate käitumist! 🐜
Berliini Freie Ülikooli uus uuring näitab, et linnas elavad sipelgad on toidu suhtes palju vähem valivamad kui nende maapiirkondade sipelgad, kes joovad rõõmuga nõrku suhkrulahuseid, mida maapiirkondades elavad sipelgad ignoreeriksid. Teadlased usuvad, et selline üllatav käitumine võib olla tingitud linnastressist, nagu kuumus, saaste ja toidu nappus.
Kas sipelgad võivad saada ökosüsteemi tervise bioindikaatoriks? Avastage, kuidas pisikesed linnas elavad sipelgad paljastavad suuri tõdesid elu kohta linnas.
Pesastruktuurid, välisskeletid ja kehaosad selgitatud
Kuningannad, töötajad, isased ja sipelgakolooniate sotsiaalne struktuur
Sipelgate elutsükkel, toitumine ja ökoloogilised suhted
Kõik, mida pead teadma Paraponera clavata ehk “kuuli-sipelga” kohta”
(Vihje: see ei ole see, keda te arvate) Kas sipelgakuninganna juhib kolooniat? Sipelgakolooniatel ei ole ühte juhti, nagu inimesed kujutavad ette - kuninganna ei käsuta ega kontrolli oma töölisi. Selle asemel toimivad sipelgaühiskonnad hajutatud intelligentsuse kaudu, kus kollektiivne käitumine tuleneb lihtsatest individuaalsetest tegevustest ja keemilisest suhtlusest. Selline detsentraliseeritud süsteem võimaldab kolooniatel teha keerulisi otsuseid, kohaneda väljakutsetega ja toimida tõhusalt ilma hierarhilise juhtimisstruktuurita, määratledes uuesti, mida “organisatsioon” looduses tähendab.









