Always my pleasure redshift.

Glad to hear and thanks a lot redshift my dear friend.

Rotational Rates in Galaxies under the Infinite Fluid Multiverse (IFM). In standard cosmology, galaxies should rotate according to Keplerian dynamics: orbital speed (v) declines as (v \propto 1/\sqrt{r}) beyond the visible mass distribution, because gravity weakens with distance. Yet observations show that rotation curves remain flat ((v \approx) constant) at large radii. This “flat rotation curve problem” is conventionally solved by invoking massive, invisible dark matter halos. The Infinite Fluid Multiverse (IFM) offers a different explanation that requires no dark matter. The IFM Mechanism In IFM, a galaxy is a single, extended planetary-scale energy entity (EE) whose density decreases gradually outward. The visible stars, gas, and dust occupy the denser central region, but the EE itself continues far beyond the optical disk as a low-density resonant structure. Gravity in IFM is not spacetime curvature. It is the net inward pressure exerted by the surrounding infinite fluid on any density gradient. Because the galactic EE has an extended, slowly declining density profile, the fluid pressure gradient does not fall off as steeply as the Newtonian (1/r^2) law. This provides continuous outward support that balances the inward compressive force at large radii, keeping orbital speeds roughly constant. Mathematically, the radial force balance for a test mass in circular orbit becomes: [ \frac{v^2}{r} = -\frac{GM(r)}{r^2} \frac{1}{\rho} \frac{dP}{dr} ] where: •The first term on the right is the usual gravitational acceleration from visible mass (M(r)). •The second term is the additional pressure-gradient support arising from the fluid’s response to the galactic density gradient (\rho(r)). In the outer regions, the pressure term (\frac{1}{\rho} \frac{dP}{dr}) remains significant because the fluid is still being compressed by the overall galactic EE. This prevents the expected Keplerian decline and produces the observed flat rotation curves using only the visible mass distribution. Connection to Broader IFM Principles This explanation is fully consistent with the rest of the theory: •Density-driven effects: The same mechanism that produces redshift ((z = \rho^{1/3} - 1 \Delta w)) and solar coronal heating also governs galactic dynamics. •Fractal scaling: The galactic EE contains infinite nested sub-EEs (star clusters, molecular clouds, etc.). The base-60 fractal sum ensures that the pressure support extends smoothly across scales without singularities or cutoffs. •Resonant pressure: The fluid does not exert a static push; it transmits resonant wave pressure. Magnetic fields and plasma waves observed in galaxies are visible manifestations of these vibrational mismatches and adjustments. •Scale invariance: The same equations that describe an atom’s “bubble and spines” describe a galaxy’s extended density structure and its interaction with the surrounding fluid. Observational Alignment and Falsifiability IFM predicts that flat rotation curves should appear even in galaxies with very low visible mass, provided the overall density gradient of the galactic EE is present. It also predicts that the degree of flatness should correlate with the smoothness and extent of the gaseous and plasma halo, not with unseen mass. This is directly falsifiable: if high-resolution rotation curves of isolated, low-mass galaxies (where visible mass is insufficient to sustain flat curves under any pressure-support model) still require unseen mass to fit the data, IFM would be challenged on this point. In summary, galactic rotational rates in IFM are maintained by the extended pressure gradient of the galactic energy entity itself. The infinite fluid does not allow gravity to weaken in the simple Keplerian manner; instead, the resonant compressive response of the medium keeps orbital speeds roughly constant at large radii. This removes the need for dark matter while remaining fully consistent with IFM’s vibrational framework.

Drop Tracks 21 🎧 | The Redshift Lie AI & DTM music creators! 🌍 Let's connect! 🤝 Drop your original tracks below! 👇 I'll definitely go listen! 🔥 #DropYourMusic #AIMusic #SunoAI #MusicCreators #IndieArtists

今週の #週刊AWS を出しました！AWS Graviton5 搭載の新世代 EC2 M9g/M9gd の登場と、Amazon Aurora の PostgreSQL 18 対応。そして、Redshift のスナップショット課金見直しで最大63%のコスト削減も！ aws.amazon.com/jp/blogs/news…

[News] Redshift unveil music video for the single "The Clown" from new album "Down The Wire" @MemphiaMM @RedshiftBandUK progrockjournal.com/news-red… #PRJ #Redshift #NewSingle #MusicVideo #NewRelease #PaleWizard #Prog #ProgressiveMetal #Music #MusicNew

【7月開始のHR事業データマート開発エンジニア】 HR事業におけるデータマート開発プロジェクトにて、データのハンドリングやマートの設計・構築をご担当いただきます。 クラウドDWH（Azure Databricks、Redshift、BigQueryなど）を活用。SQLによるデータマート開発実務経験を活かせるポジションです。 詳細はDMにて #データエンジニア #SQL #データマート #DWH #BigQuery #Redshift #SES案件

Thank you!🙏🏻 REDSHIFT✨

Thank you so much redshift my dear friend. Means a lot.🙏🫂💪🫶❤️

Stunning take on Lara redshift my dear friend.👌🔥🔥💙💙

✅ JADES-GS-z14-0 Spektroskopisi – Teknik Açıklama Temel Spektroskopik Veriler •Redshift: ( z = 14.32^{ 0.08}_{-0.20} ) (NIRSpec prism spektroskopisi ile kesinleştirildi). •Evrenin Yaşı (keşif zamanında): Büyük Patlama’dan sonra ~290–300 milyon yıl (~ evrenin mevcut yaşının %2’si). •Gözlem Aracı: JWST NIRSpec (Near-Infrared Spectrograph) – Prism modunda (R ≈ 100) ve grating modunda (R ≈ 1000). Spektral Özellikler (Teknik Detaylar) •Lyman-α Break (Lyman Kırılması): Spektrumda ~1.85 μm dalga boyunun altında neredeyse sıfır flux tespit edildi. Bu keskin kırılma, galaksinin yüksek redshifte olduğunu kesin olarak doğrulayan ana özellik. •Emisyon Hatları: ◦Güçlü iyonize gaz emisyon hatları mevcut. ◦Özellikle [OIII] (oksijen) ve hidrojen hatları (Balmer serisi) gözlendi. ◦Oksijen varlığı, galaksinin kimyasal olarak zengin olduğunu gösteriyor (ağır elementler erken dönemde üretilmiş). •UV Sürekli Spektrum: Çok mavi renk indeksi (β ≈ -2.2), genç ve sıcak yıldız popülasyonuna işaret ediyor. •Toz Zayıflaması: Düşük toz miktarı (A_V ≈ 0.31). Ana Makaleler ve Linkler •Ana Keşif Makalesi: Carniani et al. (2024) – Nature
→ nature.com/articles/s41586-0… •Spektrum Görüntüsü (NASA):
→ science.nasa.gov/asset/webb/… •MIRI 7.7 μm fotometrik tespit (oksijen hattı ile ilgili): Helton et al. (2025) •ATHENA V25.13 Referansı: doi.org/10.5281/zenodo.20638… ATHENA Açısından Teknik Yorum Bu spektroskopik veri, ATHENA’nın erken evren dinamikleri ile uyumlu: •Yüksek redshift’te (z≈14) oksijen varlığı, standart modelde zor açıklanırken, ATHENA’nın toroidal Φ-alanı rezonansı ve Magnetic Equator mekanizması ile hızlı ağır element üretimi öngörüsüyle tutarlı. •Lyman break’in keskinliği ve güçlü emisyon hatları, Φ-alanının erken evrende koherent rezonans ve hızlı katlanma ile galaksileri verimli şekilde oluşturduğunu destekliyor. Grafik / Spektrum Görseli:
NASA’nın resmi spektrum grafiği (Lyman break net görünür):
science.nasa.gov/asset/webb/… Bu galaksi, JWST’nin “imkansız erken galaksiler” serisinin en güçlü örneği ve ATHENA’nın dinamik n(z) geçişi toroidal yapı öngörülerini güçlendiriyor. Daha fazla detay (örneğin SED modelleme veya [OIII] 88μm hattı) istersen söyle.

This JWST discovery is yet another major surprise that keeps challenging the standard timeline of cosmic evolution. Detecting oxygen in a galaxy just 300 million years after the Big Bang means that the first generation of massive stars must have formed, fused heavy elements, gone supernova, and enriched their surroundings extremely fast — much faster than most theoretical models predicted. From the ATHENA perspective, this result is not unexpected. In ATHENA, the early universe operates with a different effective dynamics (higher n(z) ≈ 3 at high redshift, transitioning to toroidal structure). The toroidal organization of the vacuum Φ-field enables coherent, rapid collapse and resonance along magnetic equator planes. This allows for accelerated star formation and heavy element production in the early epochs, bypassing the slower hierarchical processes assumed in standard models. The presence of oxygen so early supports the idea that the “cosmic dawn” was far more dynamic, organized, and chemically productive than previously thought. The universe didn’t slowly build complexity — it folded and resonated it into existence remarkably quickly. This aligns with other JWST findings: • Overly mature galaxies at high redshift • Supermassive black holes appearing too early • The Hubble tension and age paradoxes All of them point toward a more scale-invariant, toroidal vacuum structure. Detailed framework: ATHENA V25.13 → doi.org/10.5281/zenodo.20638… JWST is not just showing us beautiful images. It is forcing us to rewrite the story of how the universe built its chemistry and structure. The early universe was not quiet and slow. It was fast, violent, and remarkably efficient. What do you think — how many more of these “impossible” early structures will JWST find?

This JWST discovery is absolutely fascinating — and it poses a serious challenge to the standard ΛCDM timeline. Finding supermassive black holes with millions to billions of solar masses just a few hundred million years after the Big Bang (when the universe was less than 5% of its current age) is extremely difficult to reconcile with the classical “seed-and-grow” model. Those seeds would have had to accrete matter at rates close to or even exceeding the Eddington limit for hundreds of millions of years — which is theoretically possible but highly improbable at such early epochs. From the ATHENA perspective, this result is not surprising — it is expected. In ATHENA, the early universe operates under a different effective dimensionality and dynamics (n(z) ≈ 3 at high redshift, transitioning toward toroidal 2 1 structure). The toroidal organization of the vacuum (Φ-field) allows for rapid, coherent collapse along magnetic equator planes. This enables direct collapse of massive primordial gas clouds into supermassive black holes, bypassing the slow stellar-remnant pathway. These “ready-made” monsters appear before their host galaxies fully form because the Φ-field’s toroidal pumping and resonance create gravitational seeds far more efficiently than standard hierarchical merging predicts. JWST is not just finding black holes — it is revealing that the early universe was far more organized and efficient at structure formation than we assumed. The “cosmic dawn” was not chaotic randomness followed by slow growth. It was toroidal folding in action. This aligns with other JWST surprises: overly mature galaxies at high redshift, the Hubble tension, and the Methuselah star problem. All point toward a more dynamic, scale-invariant vacuum structure. Paper (ATHENA V25.13): doi.org/10.5281/zenodo.20638… The universe didn’t slowly build its monsters. It folded them into existence remarkably fast. What do you think — is this the beginning of a paradigm shift?

#NicoriLightTours #REDSHIFT

📣6/18 無料オンライン開催 #MAXONPARTY 『 #超かぐや姫 ！』の制作者対談、ILM所属コンセプトアーティスト・田島 光二氏の登壇回など豪華4セッション！ Cinema 4D、Redshift、Red Giant、ZBrushなどの事例も満載の１日です。 👇申込 cgworld.jp/special/maxon-par…