@universal.things1 TikTok: 248.6K Follower heute

248.6K

Follower

3.2M

Likes gesamt

5.7M

Ø Aufrufe

Videos

153

Folgt

6.3K

Favorisiert

23.8%

Engagement

Wachstum & Prognose

−200

Follower / 6d

Likes gesamt / 6d

248.4K

7-Tage-Prognose (Follower)

247.6K

30-Tage-Prognose (Follower)

−200 Follower in den letzten 6 Tagen. Prognose: 248.4K Follower in 7 Tagen, 247.6K in 30 Tagen (3.2M Likes).

TikTok-Follower pro Tag

Am 2026-09-22 hatte 💎UNIVERSAL STUFF💎 248.7K TikTok-Follower (−100 gegenüber dem Vortag).

Datum	Follower	Änderung
2026-09-22	248.7K	−100
2026-09-21	248.8K	+0
2026-09-20	248.8K	+0
2026-09-19	248.8K	+0
2026-09-18	248.8K	−100
2026-09-17	248.9K	+0

Geschätzte Einnahmen

Geschätzter Preis pro gesponserten Beitrag: $1.2K bis $6.2K, ausgehend von etwa 5 bis 25 US-Dollar pro 1.000 Follower. Das ist eine Schätzung nach Reichweite, kein gemeldetes Einkommen.

Entwicklung im Zeitverlauf

Follower

Wird geladen…

Likes gesamt

Wird geladen…

Ø Aufrufe

Wird geladen…

Reichweite %

Wird geladen…

Zuletzt aktualisiert: 2026-10-03 18:19 UTC

TikTok-Profil

Neueste Videos

Astrophysics…..#physics #astrophysics #sun #moon #space #day #night

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Astrophysics…..#physics #astrophysics #sun #moon #space #day #night

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#onthisday #physics #fyp

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#physics

River Geomorphology When a dam is constructed, the river doesn't simply slow down... it begins to transform. Sediments that once moved freely are trapped and start accumulating behind the structure. Upstream, deposition increases, gradually reshaping the riverbed over time. Downstream, the water becomes clearer, yet more erosive in nature. The natural balance between sedimentation and erosion is disrupted. What was once a dynamic, self-regulating system becomes controlled... but permanently altered.#river #water #geomorphology

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River Geomorphology When a dam is constructed, the river doesn't simply slow down... it begins to transform. Sediments that once moved freely are trapped and start accumulating behind the structure. Upstream, deposition increases, gradually reshaping the riverbed over time. Downstream, the water becomes clearer, yet more erosive in nature. The natural balance between sedimentation and erosion is disrupted. What was once a dynamic, self-regulating system becomes controlled... but permanently altered.#river #water #geomorphology

A plain sheet of paper bends and collapses easily because it has very little structural stiffness. However, when the paper is folded or creased, its strength increases dramatically. The folds create ridges that function like miniature support beams, spreading forces more evenly and resisting deformation. These geometric changes make the paper more rigid, allowing it to support far greater loads. Engineers apply the same concept in architecture and design. Features such as arches, corrugations, and I-beams use shape and geometry to enhance strength, transforming simple materials into durable and efficient structures. This is not a single formal theory, but rather an application of several principles in structural engineering and mechanics: Structural Rigidity – A structure becomes harder to bend when its geometry changes from a flat surface to a folded or curved one. Second Moment of Area – Folding increases the distribution of material away from the center, greatly improving stiffness without adding more material. Buckling – Flat sheets buckle easily, while folds and corrugations help prevent this failure mode. Structural Engineering – Engineers exploit geometry—using arches, trusses, corrugation, and beams—to maximize strength and efficiency. A common everyday example is Corrugated Cardboard. The wavy inner layer makes cardboard much stronger than a simple flat sheet of paper, even though it uses almost the same material. #physics #engineering #structure

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A plain sheet of paper bends and collapses easily because it has very little structural stiffness. However, when the paper is folded or creased, its strength increases dramatically. The folds create ridges that function like miniature support beams, spreading forces more evenly and resisting deformation. These geometric changes make the paper more rigid, allowing it to support far greater loads. Engineers apply the same concept in architecture and design. Features such as arches, corrugations, and I-beams use shape and geometry to enhance strength, transforming simple materials into durable and efficient structures. This is not a single formal theory, but rather an application of several principles in structural engineering and mechanics: Structural Rigidity – A structure becomes harder to bend when its geometry changes from a flat surface to a folded or curved one. Second Moment of Area – Folding increases the distribution of material away from the center, greatly improving stiffness without adding more material. Buckling – Flat sheets buckle easily, while folds and corrugations help prevent this failure mode. Structural Engineering – Engineers exploit geometry—using arches, trusses, corrugation, and beams—to maximize strength and efficiency. A common everyday example is Corrugated Cardboard. The wavy inner layer makes cardboard much stronger than a simple flat sheet of paper, even though it uses almost the same material. #physics #engineering #structure