fschieber/wit-captions huggingface dataset:
Diagrama dunha reacción catalítica, mostrando o nivel de enerxía en cada etapa da reacción. Normalmente, o substrato necesita dunha cantidade elevada de enerxía para conseguir chegar ao estado de transición, decaendo despois ata un produto final. O enzima estabiliza o estado de transición, reducindo o valor de enerxía necesario para que se formen os produtos. A liña en vermello (continua) representa a reacción en ausencia de catalizador; a azul (a trazos), en presenza de enzima. S: nivel de enerxía do(s) substrato(s); P: nivel de enerxía do(s) produto(s); G: enerxía de Gibbs; R: coordenada de reacción (sentidos de progresión da reacción); ΔG'º: enerxía libre patrón bioquímica; ΔG‡: enerxía de activación (S-P: do(s) substrato(s); P-S: do(s) produto(s)).
Diagram ukazuje vzťah medzi definíciami slabého/silného a implicitného/explicitného ateizmu. Explicitne silní/pozitívni/tvrdí ateisti (fialová množina vpravo) tvrdia, že prehlásenie "minimálne jedno božstvo/boh existuje" je nepravdivé. Explicitne slabí/negatívni/mäkkí ateisti (modrá množina vpravo) odmietajú vieru v to alebo sa jej vyhýbajú, že akékoľvek božstvá/bohovia existujú, no zároveň sú bez postoja, že "minimálne jedno božstvo/boh existuje" je nepravdivé tvrdenie. Implicitne slabí/negatívni ateisti (modrá množina vľavo), podľa autorov ako George H. Smith, sú ľudia (malé deti a niektorí agnostici), ktorí neveria v božstvo/boha ale explicitne takúto vieru neodmietajú. (Veľkosti množín nezodpovedajú relatívnej sile jednotlivých skupín v populácii.)
Stern-Volmer-Plot für die dynamische Fluoreszenzlöschung. Es wurde der Term  
  
    
      
        (
        
          F
          
            0
          
        
        
          /
        
        F
        )
      
    
    {\displaystyle (F_{0}/F)}
  
 (rot dargestellt) und der Term 
  
    
      
        (
        
          τ
          
            0
          
        
        
          /
        
        τ
        )
      
    
    {\displaystyle (\tau _{0}/\tau )}
  
 (blau dargestellt) gegen die Konzentration 
  
    
      
        
          [
          Q
          ]
        
      
    
    {\displaystyle \mathrm {[Q]} }
  
 des Quenchers aufgetragen. Bei der dynamischen Fluoreszenzlöschung sind die beiden Verläufe genau gleich.
Stern-Volmer-Plot for dynamic Quenching
Secuencia del xen AMY1. El proyeutu Xenoma Humanu (Craig Venter, Francis Collins) remató nel añu 2000 mediu sieglu d'afayos empecipiaos pol descubrimientu de la estructura del ADN (Francis Crick y James D. Watson, Molecular Structure of Nucleic Acids: A Structure for Deoxyribose Nucleic Acid, 1953) y el códigu xenéticu (Severo Ochoa, Arthur Kornberg, Marshall Nirenberg, Har Gobind Khorana, Robert W. Holley, etc.) El gran númberu d'equipos de científicos implicaos fai imposible establecer una "paternidá" esclusiva de nengún de los pasos d'esti procesu, como asocede en cualesquier otru campu de la "gran ciencia" a partir del sieglu XX: en realidá la ciencia y la teunoloxía son productos sociales, suxetos a les interrellaciones y tornes del complexu CTS.
English: Screen shot of the AMY1 gene from www.arabidopsis.org [1] The file being viewed is in the public domain. [2]
Geozentrische Winkel in der Äquatorebene: 
  
    
      
        a
      
    
    {\displaystyle a}
  
 ist die Rektaszension der Schattenachse, 
  
    
      
        λ
      
    
    {\displaystyle \lambda }
  
 der Längengrad des Beobachters, 
  
    
      
        
          θ
          
            0
          
        
      
    
    {\displaystyle \theta _{0}}
  
 die auf Greenwich bezogene Sternzeit, 
  
    
      
        μ
      
    
    {\displaystyle \mu }
  
 der Stundenwinkel der Schattenachse (bereits um 
  
    
      
        Δ
        T
      
    
    {\displaystyle \Delta T}
  
 korrigiert) und 
  
    
      
        θ
      
    
    {\displaystyle \theta }
  
 der Stundenwinkel des Beobachters gegenüber der Schattenachse
L'homme dans l'ombre à gauche est Francisco de Goya (2).
(1) Charles de Bourbon (1788–1855) ; (3) Futur Ferdinand VII d'Espagne (1784–1833) ; (4) Marie-Josèphe d'Espagne (1744–1801), sœur de Charles IV ; (5) Future femme de Ferdinand, alors inconnue à l'époque ; (6) Marie-Isabelle d'Espagne (1789–1848) ; (7) Marie-Louise de Bourbon-Parme (1751–1819) ; (8) François de Paule (1794–1848); (9) Charles IV (1748–1819) ; (10) Antoine Pascal de Bourbon, frère du roi (1755–1817) ; (11) Charlotte-Joachime d'Espagne (1775–1830, infante du Portugal dont seule une partie de la tête est visible) ; (12) Louis Ier d'Étrurie (1773–1803) et (14) sa femme Marie Louise (1782–1824), tenant dans ses bras (13) son fils Charles Louis (1799–1883), futur duc de Parme[18],[19].
Kaaretüüpe ja nende konstrueerimiskäik visandlikult. Horisontaalne punktiirjoon tähistab lähtejoont, vertikaalne kaare kõrgust. Punane ringike tähistab ringjoone keskpunkti, punane peenike joon raadiust. 1 – ümarkaar, 2,3 – segmentkaar, 4 – teravkaar, 5 – kõrgendatud teravkaar e lantsettkaar, 6, 7, 8 – korvkaar, 9 – tuudorkaar, 10, 11 – ebasümmeetriline ümarkaar, 12 – hoburaudkaar, 13 – kiilkaar, 14 – hoburaud-teravkaar, 16 – rippkaar e draperiikaar, 17 – karniiskaar, 18 – kiilkaar e eesliselgkaar, 19 – õlgkaar, 21,22,23 – hulksiirkaar e lehvikkaar, 27 – ümarkaarest tuletatud kolmiksiirkaar, 28 – teravkaarest tuletatud kolmiksiirkaar, 29 – eesliselgkaarest tuletatud kolmiksiirkaar (ümberjoonistus Meyers Konversationslexikoni joonise järgi, umbes 1885)
Deutsch: Konstruktionsskizzen für verschiedene Bogenformen
A disposição geográfica dos raiones do oblast de Iaroslavl (depois de nome de raion fica, entre parêntesis, nome de centro de raion respetivo): 1 - Bolchesselsky (Bolchoie Selo), 2 - Borissoglebsky (Borissoglebsky), 3 - Breitovsky (Breitovo), 4 - Gavrilov-Iamsky (Gavrilov-Iam), 5 - Danilovsky (Danilov), 6 - Liubimsky (Liubim), 7 - Michkinsky (Michkin), 8 - Nekouzsky (Novi Nekouz), 9 - Nekrassovsky (Nekrassovskoie), 10 - Pervomaissky (Prechistoie), 11 - Pereslavsky (Pereslavl-Zalessky), 12 - Pochekhonsky (Pochekhonie), 13 - Rostovsky (Rostov), 14 - Rybinsky (Rybinsk), 15 - Tutaevsky (Tutaev), 16 - Uglitchsky (Uglitch), Iaroslavsky (Iaroslavl). Notas: 1) as linhas curvas azuis são a parte do rio Volga; 2) a mancha azul é a parte da Albufeira de Rybinsk.
English: Administrative divisions of Yaroslavl Oblast Русский: Административное деление Ярославской области
El rey Alfonso XIII, en el centro y de espaldas, conversa con el general Antonio Dabán Vallejo, miembro del Cuadrilátero. A la derecha mirando a la cámara y con un casco en la mano, el general Francisco Gómez-Jordana Sousa, miembro del Directorio militar, en representación de la IV Región Militar. En el centro en segundo plano, el general Federico Berenguer Fusté, miembro del Cuadrilátero y hermano del general Dámaso Berenguer, inculpado en el expediente Picasso. El general Primo de Rivera aparece a la derecha en segundo plano conversando con el general José Cavalcanti de Alburquerque, fundador del Cuadrilátero. A la izquierda, observando la conversación que mantienen el rey y el general Dabán, el general Leopoldo Saro Marín, miembro del Cuadrilátero.
For documentary purposes the German Federal Archive often retained the original image captions, which may be erroneous, biased, obsolete or politically extreme. Zur Abdankung des Königs von Spanien! König Alfons von Spanien im Gespräch mit Generälen auf der Terrasse seines Schlosses in Madrid kurz vor seiner Abdankung.
Mudança projetada na temperatura média sazonal do ar na superfície do final do século XX (média 1971-2000) para o século XXI médio (2051-2060). [11] O painel esquerdo mostra alterações nas médias sazonais de junho a julho-agosto (JJA) e o painel direito mostra as alterações em dezembro-janeiro-fevereiro (DJF).  A mudança é uma resposta ao aumento das concentrações atmosféricas de gases de efeito estufa e aerossóis com base em uma estimativa "no meio da estrada" de emissões futuras ( cenário de emissões SRES A1B).  O aquecimento é projetado para ser maior nos continentes do que nos oceanos, e é maior em altas latitudes do Hemisfério Norte durante o inverno no Hemisfério Norte (DJF)  (Crédito: Laboratório de Dinâmica de Fluidos Geofísicos da NOAA). [12]
English: Description is based on NOAA (2007) public-domain source: GFDL CM2.1 model-simulated change in seasonal mean surface air temperature from the late 20th century (1971-2000 average) to the middle 21st century (2051-2060). The left panel shows changes for June July August (JJA) seasonal averages, and the right panel shows changes for December January February (DJF). The change is in response to increasing atmospheric concentrations of greenhouse gases and aerosols based on a "middle of the road" estimate of future emissions. Future emissions are based on the "A1B" emissions scenario, taken from the Special Report on Emissions Scenarios. Warming is projected to be larger over continents than oceans, and is largest at high latitudes of the Northern Hemisphere during Northern Hemisphere winter (DJF).The term “global warming” is commonly used to refer to surface air temperature changes that are a response to increasing atmospheric greenhouse gas (GHG) concentrations. However, the warming is not expected to be uniform over the globe, nor is it expected to be the same during all seasons of the year. Computer model simulations conducted at NOAA’s Geophysical Fluid Dynamics Laboratory (GFDL) and elsewhere project that GHG induced warming will be more rapid over land masses than over oceans. In the image, red colors indicate greater warming over the continents. White and blue-green colors mark areas with the least warming or slight cooling, found mostly over oceans. Additionally, the greatest warming is expected during the winter over northern North America and north-central Asia.The map on the left of summer (June, July, August JJA) temperatures projects warming of around +1 to +3 °F over most ocean areas, and +1 to +9 over most land areas. The map on the right of winter (December, January, February DJF) temperatures projects greatest warming at polar latitudes, of around +9 to +16 °F. The DJF map also shows warming of around 0 to +3 °F over most of the Pacific and Atlantic oceans.References: https://web.archive.org/web/20090506082504/https://www.gfdl.noaa.gov/patterns-of-greenhouse-warming-ar4 NOAA, January 2007: GFDL Climate Modeling Research Highlights: Patterns of greenhouse warming (PDF), vol. 1, no. 6, revision 2/2/2007, 8:50.08 AM. The National Oceanic and Atmospheric Administration (NOAA) Geophysical Fluid Dynamics Laboratory (GFDL) - Princeton, NJ, USA
Cerebro humano. Arterias centrales, vista anterior-mediosagital.
1:Hipotálamo. 2:Tálamo. 3:Mesencéfalo. 4:Protuberancia. 5:Médula espinal.
Las «arterias centrales» que se originan en el círculo arterial se disponen en cuatro grupos:
Anteromedial - desde la arteria cerebral anterior (de la que las venas cerebrales anteriores son satélites) y la arteria comunicante anterior del cerebro.
Posteromedial (también llamado talamoperforante) - desde las porciones comunicante posterior y medial de las arterias cerebrales posteriores.
Posterolateral (también llamado talamogeniculado) - desde la porción lateral de las arterias cerebrales posteriores.
Anterolateral (también llamado estriado lateral o lenticuloestriado) - emergiendo desde la arteria cerebral media.
Human brain - central arteries - anterior-midsagittal view Hypothalamus Thalamus Mesencephalon Pons Medulla oblongata The small “Central Arteries” which take origin from the Arterial Circle are arranged in four groups: Anteromedial – from the anterior cerebral and anterior communicating arteries. Posteromedial – (also called thalamoperforating) from the posterior communicating and medial portion of the posterior cerebral arteries. Posterolateral – (also called thalamogeniculate) from the lateral portion of the posterior cerebral arteries. Anterolateral – (also called lateral striate or lenticulostriate) arising from the middle cerebral artery. (font: arial black, size: 12)
Mar Nero (frammento), mar Caspio, lago d'Aral: Il Caspio si è generato dal mar Sarmatico o Paratetide, anticamente situato ad est del Mediterraneo; una volta creatasi una separazione tra questi due enormi specchi d'acqua, la Paratetide rimase senza sbocco verso gli oceani e cominciò a rimpicciolirsi fino al punto di dividersi in tre specchi d'acqua principali: il mar Nero, il mar Caspio e il lago d'Aral,[3][7] tutti e tre con tendenza a regredire a causa dell'evaporazione; ma mentre il livello del mar Nero si è ripreso circa settemila anni fa a causa della ritrovata connessione con il Mediterraneo, il Caspio rimase un mare chiuso e continuò a fasi alterne la tendenza al declino, per cui oggi la sua superficie si trova chiaramente al di sotto del mare.
This is a map of the Caspian Sea including a small locator map. The drainage basin of the Caspian Sea is in yellow. The map is based on USGS and Digital Chart of the World data. Note the Aral Sea boundaries are circa 1960, not current boundaries.
The 200+ GWd/TU of burnup fuel-cycle,[58]  proposed in the 1990s Integral fast reactor(IFR) concept (color), an animation of the pyroprocessing technology is also available.[59]  As opposed to the standard practice worldwide of PUREX separation, plutonium is not separated on its own in this pilot-scale, reprocessing cycle, rather all actinides are "electro-won" or "refined" from the "true waste" of fission products in spent fuel. The plutonium therefore instead comes over mixed with all the gamma and alpha emitting actinides, species that "self-protect" in numerous possible theft scenarios. For a reactor to operate on a full loading of this mixed actinide fuel, Fast neutron-spectrum reactors are without exception, the only variant considered possible.
English: Integral Fast Reactor: concept
Софонісба Ангіссола. «Лючія з її сестрами Європою і Мінервою за грою в шахи». Оригінал  картини знаходиться в колекції Національного музею в м. Познань. Картина написана маслом  італійською художницею Софонисбою Ангисчиоли (1527 - 1623 роки). На картині три сестри Софонисби і їх старша прислуга. З лівої сторони сидить Лучія (теж художниця) з правої сторони Минерва.  Дівчинка, яка стоїть за столиком наймолодша сестра- Євгенія. Картина називається "Партія шахмат." До 1824 року картина знаходилася в колекції Луи Бонапарта,  поки  її не купив граф А. Рачинський у Парижі. Це одне із  найкрасивіших витворів мистецтва на тему шахової гри. ( Література: Ежи Гижицкий, "С шахматами через века  и страны" SPORT I TURYSTYKA - WARSZAWA 1970,   Стор. 269, 277 - 278)
Lucia (left), Minerva (right) and Europa (middle) Anguissola playing chess.
How Dì 帝 was drawn according to the scholar Pankenier, by connecting the stars γ, β, and 5 of the Ursa Minor (of which the former two are part of the scoop of the Little Dipper) and  ζ, ε, and δ of the Ursa Major (and Big Dipper). Amongst the graphemes containing Dì there are 締 dì ("appropriately conjoined" and verbally "to do", "to form"), 諦 dì ("careful", "attentive", or verbally "to look into", "to examine"), and 蒂 dì ("calyx", or the "footstalk" that holds a fruit or an inflorescence, which falls and produces other life).[43][44] The scholar Didier, otherwise, says that by connecting stars within the same cluster ancient priests-astronomers drew 口 Dīng, the original form of the word Dì itself, which would represent the supreme God as a square.[45]
В отсутствие дополнительных внешних сил частица, обращающаяся вокруг центрального тела под действием ньютоновской силы гравитации, постоянно движется по одному и тому же эллипсу. Присутствие возмущений (например, гравитационного действия других планет) изменяет траекторию частицы, которую можно считать эллипсом, но с постоянно изменяющимися параметрами. Вращение этого эллипса называется прецессией орбиты и может быть измерено с высокой точностью, а также предсказано теоретически, исходя из известных величин и направлений возмущающих сил. Хотя теория гравитации Ньютона может объяснить 99,26 % наблюдаемого смещения перигелия Меркурия, остаток величиной примерно 40" в столетие не может быть объяснён в её рамках, как это было открыто Леверье в 1859 году.
Made by me on 18 January 2008 using Blender. A gradually precessing elliptical orbit, such as might result from a 1/r3 force, as occurs in general relativity.
Figure 3. Some simple planar filter structures are shown in the first column. The second column shows the open-wire equivalent circuit for these structures. The third column is a semi-lumped element approximation where the elements marked K or J are impedance or admittance transformers respectively. The fourth column shows a lumped-element approximation making the further assumption that the impedance transformers are λ/4 transformers. A short-circuit stub in parallel with the main line.An open-circuit stub in parallel with the main line.A short-circuit line coupled to the main line.Coupled short-circuited lines.Coupled open-circuited lines. Stripline via key.svg represents a strap through the board making connection with the ground plane underneath.
1945-12-27 보도의 진상. 같은 날 조선일보, 서울 신문도 동아일보와 같은 내용의 보도를 했으며, 이는 UP, AP 등 미국 통신사의 기사를 합동통신을 통해 받아 전재한 것이다.[10] 워싱턴 타임스 헤럴드(1954년 워싱턴 포스트에 합병됨)는 1945년 12월 26일자 7면에 UP 기사를 전재한 ‘May Grant Korea Freedom’이라는 기사를 통해 “미국의 번스 국무장관이 소련의 신탁통치안을 반대하고 한국의 즉시 독립을 주장하라는 훈령을 받고 러시아로 떠난 것으로 알려졌다”고 보도했다.[11][12] 좌익들도 처음엔 신탁통치에 강력히 반대했으므로 소련이 신탁통치안을 주장했다는 보도가 반탁운동을 촉발했다는 주장도 말이 되지 않고, 실제로는 미군정은 신탁통치안에 소극적이었던 반면 소련은 이를 강하게 추진하려고 했으므로 이 내용 자체가 오보라고 보기도 어렵다.=> 이러한 의견도 있지만, 실제로 미국은 얄타회담에서부터 꾸준히 50년, 30년의, 식민지배에 가까운 신탁통치안을 주장했었고 소련은 5년, 또는 10년을 벗어나지 않는 신탁통치안알 주장했었다. 따라서 애초에 동아일보의 보도는 오보가 맞고, 이로 인해 극심한 탁치정국이 유래되는 건 역사적인 사실이다. 이때 미국이 장기간의 신탁통치을 주장한 것은 당시 독립 직후 대다수의 독립운동가들과 민족주의자 및 민중의 지지를 받았던 인물들이 사회주의 사상에 접해 있었고, 그와 반대로 우익 이사들의 대부분은 친일파 또는 민중의 지지를 받지 못한 지주계층이었기 때문이라는 의견도 존재한다.
한국어: 1945년 12월 27일자 동아일보에 모스크바 3상회의에서 미국은 한국의 즉시 독립을 주장하고, 소련이 신탁통치를 주장했다는 기사가 났고, KBS ‘미디어포커스’는 2003년 12월 방송에서 동아일보의 소련이 신탁통치를 주장했다는 보도가 격렬한 반탁운동을 촉발시켰다고 주장했다. 하지만 같은 날 같은 내용의 기사가 조선일보와 좌익 성향의 서울 신문에도 보도된 것이 확인된다 (위 이미지). 이러한 보도는 UP 및 AP 등 미국 통신사 발 기사를 국내 언론이 합동통신을 통해 받아 실은 것에 불과하며, 미국의 워싱턴 타임스 헤럴드(워싱턴 포스트 전신)도 1945년 12월 26일자 7면에 UP 기사를 전재한 ‘May Grant Korea Freedom’이라는 기사를 통해 “미국의 번스 국무장관이 소련의 신탁통치안을 반대하고 한국의 즉시 독립을 주장하라는 훈령을 받고 러시아로 떠난 것으로 알려졌다”고 보도했다. 당시에는 좌익도 반탁을 주장하고 있었으므로 소련이 신탁통치를 주장했다는 보도가 반탁을 촉발한 것이 아니라, 신탁통치를 결정한 것 자체에 대해 좌우익 모두 반대한 것이 분명하다. 나중에 소련의 지시를 받은 좌익들이 찬탁으로 돌아선 것이다. 국내에서 미군정과 달리 신탁통치를 적극 주장한 소련의 행동으로 보아 이 기사가 오보라고 보기도 힘들다. 참고자료 : <광복 5년사 쟁점 재조명><1부>(17) 삼상회의 보도 동아일보 2004-12-12 / <모스크바 3상회의 60주년> 좌익 '찬탁돌변' 남북분단 불러 동아일보 2005-12-29
Conceptual overview of HGT inference methods. (1) Parametric methods infer HGT by computing a statistic, here GC content, for a sliding window and comparing it to the typical range over the entire genome, here indicated between the two red horizontal lines. Regions with atypical values are inferred as having been horizontally transferred. (2) Phylogenetic approaches rely on the differences between genes and species tree evolution that result from HGT. Explicit phylogenetic methods reconstruct gene trees and infer the HGT events likely to have resulted into that particular gene tree. Implicit phylogenetic methods bypass gene tree reconstruction, e.g., by looking at discrepancies between pairwise distances between genes and their corresponding species.
Skisse som viser skovler (de buede strekene fra senter til periferi) med hastighetstriangler for en pumpe (a) og en turbin (b). Indeksene 1 og 2 indikerer henholdsvis innløp og utløp av fluidet og på samme måte er r1 radius ved innløp og r2 radius ved utløp. 
  
    
      
        ω
      
    
    {\displaystyle \omega }
  
 er vinkelhastigheten [rad/s] og pilen viser rotasjonsretningen. Videre indikerer u periferihastigheten, w er relativ hastighet og c er absolutt hastighet. Om en observatør står på et rotorblad vil han oppfatte at fluidet har en hastighet i forhold til rotoren, nemlig den relative hastigheten w. En observatør som står utenfor rotoren vil oppfatte fluidets absolutte hastigheten c. Forholdet mellom disse hastighetene er w = c - u.
闭合曲面
  
    
      
        
          S
        
      
    
    {\displaystyle \mathbb {S} }
  
是由闭合曲面
  
    
      
        
          
            S
          
          
            1
          
        
      
    
    {\displaystyle \mathbb {S} _{1}}
  
与闭合曲面
  
    
      
        
          
            S
          
          
            2
          
        
      
    
    {\displaystyle \mathbb {S} _{2}}
  
共同组成。点P处于曲面
  
    
      
        
          
            S
          
          
            1
          
        
      
    
    {\displaystyle \mathbb {S} _{1}}
  
之内，曲面
  
    
      
        
          
            S
          
          
            2
          
        
      
    
    {\displaystyle \mathbb {S} _{2}}
  
之外。
ಹಲವಾರು ಮರೀಚಿಕೆಯ ಪ್ರತಿಬಿಂಬಗಳನ್ನು ಒಂದೇ ಆರೇ ನಿಮಿಷದಲ್ಲೇ ಸ್ಥಳದಲ್ಲಿ ತೆಗೆದಿದ್ದು,ಅನುಕ್ರಮವಾಗಿ ತೋರಿಸಿಲ್ಲದಿ ಅಪರ್ ಮೊಸ್ಟ್ ಇನ್ ಸೆಟ್ ಫ್ರೇಮ್ ಶೊ ಆನ್ ಇನ್ ಫಿರಿಯರ್ ಮಿರೇಜ್ ಆಫ್ ದಿ ಫಾರಲ್ಲನ್ ಐಲೆಂಡ್ಸ್ದಿ ಸೆಕೆಂಡ್ ಇನ್ ಸೆಟ್ ಫ್ರೇಮ್ ಈಸ್ ದಿ ಫಾರಾಲಾನ್ ಐಲೆಂಡ್ಸ್ ಉಯಿತ್ ಎ ಗ್ರೀನ್ ಫ್ಲಾಶ್ ಆನ್ ದಿ ಲೆಫ್ಟ್ -ಹ್ಯಾಂಡ್ ಸೈಡ್. ದಿ ಟು ಲೊವರ್ ಫ್ರೇಮ್ಸ್ ಅಂಡ್ ದಿ ಮೇನ್ ಫ್ರೇಮ್ ಆಲ್ ಶೊ ಸುಪಿರಿಯರ್ ಮಿರೇಜಿಸ್ ಆಫ್ ದಿ ಫಾರಾಲಾನ್ ಐಲೆಂಡ್ಸ್ .ಇನ್ ಧೀಸ್ ಥ್ರೀ ಫ್ರೇಮ್ಸ್ ದಿ ಸುಪಿರಿಯರ್ ಮಿರೇಜ್ ಇವಾಲ್ವ್ಸ್ ಫ್ರಾಮ್ ಎ 3-ಇಮೇಜ್ ಮಿರೇಜ್ (ಆನ್ ಇನ್ವರ್ಟೈಡ್ ಇಮೇಜ್ ಬಿಟ್ವೀನ್ ಟು ಎರೆಕ್ಟ್ ಒನ್ಸ್ )ಟು ಎ-5ರ್ ಇಮೇಜ್ ಮಿರೇಜ್ ,ಅಂಡ್ ದೆನ್ ಬ್ಯಾಕ್ ಟು ಎ 2-ಇಮೇಜ್ ಮಿರೇಜ್ .ಇಂತಹ ಪ್ರದರ್ಶನವು ಫಾಟಾ ಮೊರ್ಗಾನಾದೊಂದಿಗೆ ಹೊಂದಾಣಿಕೆಯಾಗಿದೆ.ಎಲ್ಲಾ ಫ್ರೇಮ್ ಗಳು ಆದರೆ ಮೇಲಿನದು ಒಂದು ಸುಮಾರು ಸಮುದ್ರ ಮಟ್ಟದಿ6ದ 50-70 ಅಡಿ ಎತ್ತರದಿಂದ ಚಿತ್ರಿಸಲಾಗಿದೆ.ಮೇಲಿನ ಛಾಯಾಚಿತ್ರವು ಸಮುದ್ರ ಮಟ್ಟದಿಂದ ಚಿತ್ರ ಸೆರೆ ಹಿಡಿಯಲಾಗಿದೆ.
English: The upper frame is inferior mirage of Farallon Islands, the second frame is no miraged Farallon Islands with green flash on the left hand side. The two lower frames and the main frame is Superior Mirage of Farallon Islands. The superior mirage was going from 3-image mirage (Inverted image between erect ones) to 5-image mirage and to 2-image mirage. Such display is consistent with Fata Morgana. All frames except the upper one were photographed from about 50-70 feet above sea level. The upper frame was photographed from the sea level. The interval between the first and the last frames of the superior mirage was 6 minutes.
Az egyiptomiak vallásában az íbisz (madár) fejű Thot, az írnokok, a tudósok és az orvosok istene volt az ábrázolásokon, aki a veszélyt megelőzi. Az íbiszmadarat ritkán a gyógyszerészeti tudományok szimbolizálására használták. A Magyar Gyógyszerésztudományi Társaság 1928-tól az íbiszmadár szimbólumot használta mind a pecsétjén, mind a folyóiratának címlapján. A választott szimbólumot így indokolták: „a gyógyászat egyiptomi istenének, az íbiszfejű »Ph-ar-maki«-nak képét ábrázolja, kezében papyrustekerccsel. Állítólag ezen Ph-ar-maki-tól származik a pharmacia szó is s így ez jelképezi magát a gyógyszerészetet, a papyrustekercs pedig a tudományosságot.” A szimbólumot átvette a Gyógyszerészet című szaklap is, amelynek címlapját 1977–1985 között díszítette