fschieber/wit-captions huggingface dataset:
La vocación de San Mateo, por Caravaggio, 1599. En los Evangelios Jesús aparece frecuentemente desafiando las convenciones sociales judías de su época al tratar con "pecadores", como son los recaudadores de impuestos (Zaqueo, Mateo -también llamado Leví-). Vio a un hombre llamado Mateo, sentado en la oficina de los tributos, y le dijo: ¡Sígueme! Y levantándose, le siguió. Y sucedió que estando El sentado a la mesa en la casa, he aquí, muchos recaudadores de impuestos y pecadores llegaron y se sentaron a la mesa con Jesús y sus discípulos. Y cuando vieron esto, los fariseos dijeron a sus discípulos: ¿Por qué come vuestro Maestro con los recaudadores de impuestos y pecadores? Al oír El esto, dijo: Los que están sanos no tienen necesidad de médico, sino los que están enfermos. Mas id, y aprended lo que significa: “Misericordia quiero y no sacrificio”; porque no he venido a llamar a justos, sino a pecadores. Entonces se le acercaron los discípulos de Juan, diciendo: ¿Por qué nosotros y los fariseos ayunamos, pero tus discípulos no ayunan? Y Jesús les dijo: ¿Acaso los acompañantes del novio pueden estar de luto mientras el novio está con ellos? Pero vendrán días cuando el novio les será quitado, y entonces ayunarán (Mateo 9:9-15).[38]​
Amplitudenverhältnis 
  
    
      
        A
        (
        ω
        )
        
          /
        
        
          A
          
            E
          
        
      
    
    {\displaystyle A(\omega )/A_{\text{E}}}
  
 in Abhängigkeit von der Lehrschen Dämpfung, aufgetragen gegen das Frequenzverhältnis 
  
    
      
        ω
        
          /
        
        
          ω
          
            0
          
        
      
    
    {\displaystyle \omega /\omega _{0}}
  
. Die Schnittpunkte der gepunkteten Linie mit den Resonanzkurven zeigen die Lage der Resonanzfrequenzen 
  
    
      
        
          ω
          
            
              R
            
          
        
      
    
    {\displaystyle \omega _{\mathrm {R} }}
  
 bei 
  
    
      
        
          ω
          
            
              R
            
          
        
        
          /
        
        
          ω
          
            0
          
        
        =
        
          
            1
            −
            2
            
              D
              
                2
              
            
          
        
      
    
    {\displaystyle \omega _{\mathrm {R} }/\omega _{0}={\sqrt {1-2D^{2}}}}
  
.
In 1950 werd de bouw van de eigen windtunnel voltooid, de eerste die ooit gebouwd werd voor een motorfietsfabrikant. De windtunnel (die nog steeds functioneert) bestaat uit drie compartimenten: De enorme inlaattrechter met een diameter van 8,20 meter, de testkamer met een diameter van 2,60 meter en de uitlaatkamer, waar een grote 310 pk elektromotor in hangt met drie propellers met een variabele spoed. De totale lengte van het bouwwerk is 28,5 meter.    {{{2}}}   Dankzij deze windtunnel werd Moto Guzzi toonaangevend in de ontwikkeling van stroomlijnkuipen in de jaren vijftig. Uiteindelijk resulteerde dat in de enorme, uit aluminium geklopte druppelstroomlijn, die een zeer lage luchtweerstand opleverde, maar de handelbaarheid van de machines niet ten goede kwam. Op snelle circuits speelde dat geen grote rol, maar omdat het wereldkampioenschap wegrace ook op bochtige circuits werd uitgevochten, was men gedwongen ook lichtere stroomlijnen, zoals de vogelbekstroomlijn en uiteindelijk de dolfijnkuip te ontwikkelen. Maar ook bij deze ontwikkelingen kon Moto Guzzi gebruikmaken van de windtunnel. In 1958, toen de Moto Guzzi 500cc-achtcilinder op het punt stond door te breken, werd het gebruik van druppelstroomlijnen door de FIM verboden.
Français : Soufflerie de Mandello (Moto Guzzi)
An example of a 3D, space-filling model of a very complex macromolecule, a protein, the cell membrane-spanning β2 adrenoreceptor, a G protein-coupled receptor, in this image, viewed as if looking down onto the extracellular surface. The electrostatic potential surface was applied to a model with atom positions determined by crystallography (PDB code 2RH1); the electrostatic surface was computed using Adaptive Poisson-Boltzmann Solver (APBS) freeware.[3] It is again shaded blue for electropositive areas to red for electronegative areas. Somewhat apparent, in stick representation in yellow, red and blue, in a groove at the top of the receptor, is a small molecule ligand bound to it, the agent carazolol, a partial inverse agonist which, through this binding, antagonizes binding of the normal ligand, the neurotransmitter/hormone epinephrine. In response to binding epinephrine, this receptor, in conjunction with an L-type calcium channel, mediates physiologic responses such as smooth muscle relaxation and bronchodilation. All of such binding interactions and the function of the receptor in signal transduction are mediated by electrostatic effects, and in modern structure work they are often studied using similar space filling models.
English: The human beta-2 adrenergic receptor, a G protein-coupled receptor, shown looking down on the extracellular surface. The electrostatic surface of the protein (calculated using APBS) is shown with regions of negative charge in red and regions of positive charge in blue. The partial inverse agonist carazolol is shown as gray sticks. Rendered using PyMol from PDB ID 2RH1.
Me malem nulädik, notodots balugik kanons bepenön suemodis komplitik. Magod at jonon magi sekäta: 
  
    
      
        
          f
          (
          x
          ,
          y
          )
          =
          cos
          ⁡
          
            [
            
              y
              arccos
              ⁡
              
                (
                
                  sin
                  ⁡
                  
                    |
                  
                  x
                  
                    |
                  
                
                )
              
              +
              x
              arcsin
              ⁡
              
                (
                
                  cos
                  ⁡
                  
                    |
                  
                  y
                  
                    |
                  
                
                )
              
            
            ]
          
        
      
    
    {\displaystyle \scriptstyle f(x,y)=\cos \left[y\arccos \left(\sin |x|\right)+x\arcsin \left(\cos |y|\right)\right]}
  
; köl lä pün alik (x, y) pafümeton fa völad sekäta s(x,y). Gredaked binon se -10 jü +10 su xabs bofik: x e y.
z = cos [ y · cos( sin x ) + x · sin( cos y ) ] for -10 < x < 10, -10 < y < 10, -1 < z < 1 By User:Agentsoo.
USGS combined Topo and relief map image of the Kittanning Point promontory looming above and overshadowing the valley and streams below, directly west and above the confluence of Kittanning Run (denoted by the yellow circle labeled 'A') and Glenwhite Run (the major right branch stream to the north of the reservoirs). Foot travelers could follow either large stream or the smaller stream in the Kittanning Gap (lower down, at image right), or one of the several gaps of the Allegheny (to the south of this view) which were exploited by the Allegheny Portage Railroad or the Penn Central Railroad. Mule trains of Trappers could take steeper ravines than westward migrating white settlers with animal power towed vehicles such as Wagons and carts.Each 'gap of the Allegheny Front' was one likely road for Amerindian and fur traders foot traffic to cross the Allegheny Front into the Allegheny Valley and reach the native settlement at Kittanning Village or beyond. Various gaps climb faster (steeper) or slower to the highland 700–900 feet (210–270 m) above.The terrains above the front are part of the Appalachian Plateau, which presents as a larger-than-county sized region of low hills and small creeks, topped by the eastern continental divide.
English: --MIxed Mode View, topology and Satellite terrain USGS National Map viewer showing Kittanning Run, Pennsylvania—one creek among several creating the gaps in the Allegheny—that is in the Allegheny Front. -- The bubble location shown is along the westbound railroad between Altoona —the tunnels at under the drainage divides at Gallitzin & Tunnelhill.
A diagrammatic representation of the movements of calcium ions into and out of the blood plasma (the central square labeled  PLASMA Ca2+) in an adult in calcium balance:  The widths of the red arrows indicating movement into and out of the plasma are roughly in proportion to the daily amounts of calcium moved in the indicated directions. The size of the central square in not in proportion to the size of the diagrammatic bone, which represents the calcium present in the skeleton, and contains about 25,000 mmol (or 1 kg) of calcium compared to the 9 mmol (360 mg) dissolved in the blood plasma. The differently colored narrow arrows indicate where the specified hormones act, and their effects (“+” means stimulates; “-“ means inhibits) when their plasma levels are high. PTH is parathyroid hormone, 1,25 OH VIT D3 is calcitriol or 1,25 dihydroxyvitamin D3, and CALCITONIN is a hormone secreted by the thyroid gland when the plasma ionized calcium level is high or rising. The diagram does not show the extremely small amounts of calcium that move into and out of the cells of the body, nor does it indicate the calcium that is bound to the extracellular proteins (in particular the plasma proteins) or to plasma phosphate.[11][12][13][14][15]
English: Calcium balance in the human body, showing the movement of calcium ions from the plasma (central square) in and out of the various body compartments. The red arrows are roughly in proportion to the quantities moved in and out of the plasma per day. The influence of the various hormones (indicated by means of narrow arrows with + and - signs near their target organs) indicate the effects of high plasma concentrations of these hormones. Low concentrations have the opposite effect.
Wappen der Stefenstons, wie von Tristram Risdon in seinem Notebook (um 1630) erwähnt: Schwarz, ein Winkel zwischen drei rechten Händen, zur Faust geballt und in jeder eine Börse (soll Feuerstein oder Stein sein) silber. Risdon war sich nicht sicher und setzte ein Fragezeichen hinter das Wort „Börse“. Diese scheinen redende Wappen zu sein; die greifende Hand bedeutet Besitz und wenn die Hand den Namen „Steven“ erhält, bedeutet dies „Stevens Stein“ (engl.: Stevenstone). Wenn man dem Geist der Bilderrätsel folgt, so ist das Dargestellte umso akzeptabler, je absurder es ist. George Rolle († 1552), der Käufer des Anwesens aus dem 16. Jahrhundert, über nahm dieses Motiv als Helmkleinod, auf eine Elle verlängert, wie man es im Bibliotheksraum in Stevenson House von John Rolle Walter († 1779) aufgebaut sehen kann. John Rolle, 1. Baron Rolle, († 1842) tauschte den Stein gegen eine sprechende Pergamentrolle, wie man es auf dem bunten Glasfenster im Haupttreppenhaus von Bicton House sehen kann, und das Denkmal von Samuel Rolle (1669–1735) aus Hudscott in der Kirche von Chittlehampton zeigt einen Stab. Die Plakette des Zerstörers der Hunt-Klasse HMS Stevenstone, der nach der Fuchsjagd der Rolles benannt ist, zeigt in der Hand ein Jagdhorn.
English: Canting arms of de Stevenstone family, lords of the manor of Stevenstone, in the parish of St Giles in the Wood, near Great Torrington, Devon: Argent, a chevron between three hands grasping a flintstone sable ("Steven's stone", possessive indicated by a grasping fist) These arms were quartered by Monck (Carew's Scroll of Arms, no.537) of nearby Potheridge in the parish of Merton, of which family was the Duke of Albemarle
Промежуточная стадия распада струи жидкости. Показаны радиусы кривизны 
  
    
      
        
          R
          
            z
          
        
      
    
    {\displaystyle R_{z}}
  
 волнистости в направлении перпендикулярном оси 
  
    
      
        z
      
    
    {\displaystyle z}
  
. Радиус струи в зависимости от 
  
    
      
        z
      
    
    {\displaystyle z}
  
: 
  
    
      
        R
        (
        z
        )
        =
        
          R
          
            0
          
        
        +
        
          A
          
            k
          
        
        cos
        ⁡
        (
        k
        z
        )
      
    
    {\displaystyle R(z)=R_{0}+A_{k}\cos(kz)}
  
, где 
  
    
      
        
          R
          
            0
          
        
      
    
    {\displaystyle R_{0}}
  
 — исходный радиус невозмущенного потока, 
  
    
      
        
          A
          
            k
          
        
      
    
    {\displaystyle A_{k}}
  
 — амплитуда возмущения, 
  
    
      
        z
      
    
    {\displaystyle z}
  
 — расстояние по оси потока, и 
  
    
      
        k
      
    
    {\displaystyle k}
  
 — волновое число сужений вдоль струи.
the driving heat flow 
  
    
      
        
          
            
              
                Q
                ˙
              
            
          
          
            1
          
        
      
    
    {\displaystyle {\dot {Q}}_{1}}
  
 at intermediate temperature level 
  
    
      
        
          T
          
            1
          
        
      
    
    {\displaystyle T_{1}}
  
 will be split in  the revalued heat flow 
  
    
      
        
          
            
              
                Q
                ˙
              
            
          
          
            2
          
        
      
    
    {\displaystyle {\dot {Q}}_{2}}
  
 at high temperature level 
  
    
      
        
          T
          
            2
          
        
      
    
    {\displaystyle T_{2}}
  
 and in rejected heat flow 
  
    
      
        
          
            
              
                Q
                ˙
              
            
          
          
            0
          
        
      
    
    {\displaystyle {\dot {Q}}_{0}}
  
 at low temperature level 
  
    
      
        
          T
          
            0
          
        
      
    
    {\displaystyle T_{0}}
English: the driving heat flow Q_1 at intermediate temperature level T_1 will be split in the revalued heat flow Q_2 at high temperature level T_2 and in rejected heat flow Q_0 at low temperature level T_0
Territorios de Carlos V (fuera del mapa, el imperio ultramarino):      Herencia castellana (de su abuela materna, Isabel la Católica, muerta en 1504); ejerce el reinado de forma efectiva desde 1518, aunque la reina titular siguió siendo su madre, Juana la Loca, muerta en 1555. De los enclaves africanos, Argel se perdido en 1530, y Túnez no fue conquistado hasta 1535.      Herencia aragonesa (de su abuelo materno, Fernando el Católico, muerto en 1516), incluyendo las islas mediterráneas y el sur de Italia; no así el Ducado de Milán, conquistado en 1521, en su condición de feudo imperial.      Herencia borgoñona (de su abuela paterna, María de Borgoña, muerta en 1482, a través de su padre, Felipe el Hermoso, muerto en 1506); excepto Frisia, Utrecht, Groninga y otros pequeños territorios de los Países Bajos septentrionales, adquiridos en distintos momentos del reinado de Carlos.      Herencia austríaca (de su abuelo paterno, Maximiliano I de Habsburgo, muerto en 1519). En 1521 cede el gobierno del territorio a su hermano Fernando I de Habsburgo, que desde 1526 era también rey de Hungría.      Sacro Imperio Romano Germánico (por elección, en 1520). El poder efectivo no era ejercido por el Emperador, sino por los príncipes locales.
English: Map of the empire of Roman Emperor Charles V, as king of Spain Charles I.    Castille    Aragon    Burgundian possessions    Austrian hereditary lands    Holy Roman Empire Deutsch: Herrschaftsbereich Karls V.    Kastilien    Besitzungen Aragons    Burgundische Besitzungen    Österreichische Erblande    Heiliges Römisches Reich Français : Possessions de l'Empereur des Romains Charles Quint, roi d'Espagne, sous le nom de Charles Ier.    Castille    Aragon    Possessions bourguignonnes    Héritage de territoires autrichiens    Saint-Empire romain Español: Posesiones de Carlos V, emperador del Sacro Imperio Romano Germánico, que reinó en los reinos hispánicos como Carlos I.    Castilla    Aragón    Posesiones borgoñones    Herencias de territorios austríacos    Sacro Imperio Romano Nederlands: Kaart van het Heilige Roomse Rijk en de erflanden van keizer Karel V, als koning van Spanje Karel I.
Ruchetae caput ad stellas Centauri advenit, cum 
  
    
      
        Δ
        t
        =
        4.0
        
          c.a.
        
        
          /
        
        0.95
        
          c
        
        =
        4.21
        
          a
        
      
    
    {\displaystyle \Delta t=4.0{\text{c.a.}}/0.95{\text{c}}=4.21{\text{a}}}
  
. Apud ruchetam horologia autem sola ingrediuntur 
  
    
      
        Δ
        
          t
          ′
        
        =
        Δ
        t
        
          /
        
        γ
        =
        4.21
        
          a.
        
        
          /
        
        3.20
        =
        1.32
        
          a.
        
      
    
    {\displaystyle \Delta t'=\Delta t/\gamma =4.21{\text{a.}}/3.20=1.32{\text{a.}}}
  
. Nunc ad ruchetae caput, igitur, horologium indicat tempus 
  
    
      
        1.32
        
          a.
        
      
    
    {\displaystyle 1.32{\text{a.}}}
  
, quamquam ad tergum tempus 
  
    
      
        3.80
        
          a.
        
        +
        1.32
        
          a.
        
        =
        4.21
        
          a.
        
      
    
    {\displaystyle 3.80{\text{a.}}+1.32{\text{a.}}=4.21{\text{a.}}}
  
.
Twinparadox/from the twin's perspective, pic3
Struktura intermedijera glioksilatnog ciklusa prikazana koristeći Fišerove projekcije, levo, i poligonalne modele, desno. Dvougljenični molekul acetil u aktiviranoj formi acetil-KoA (AcoA), na vrhu, kondenzuje se sa četvorougljeničnim molekulom oksaloacetata (OxA) i formira se citrat (Cit). Sledeći intermedijeri su, respektivno, cis-akonitat (CisA) i izocitrat (IsoC), iz kojih nastaju sukcinat (Suc) i glioksilat (Glx). Zadnji kondenzat sa dvougljeničnim molekulom iz još jednog acetil-KoA, proizvodi malat (Mal), sa regeneracijom oksaloacetata. Enzimi koji učestvuju u ovom putu korespondiraju citratnoj sintazi (1), akonitazi (2), izocitratnoj lijazi (3), malatnoj sintazi (4) i malatnoj dehidrogenazi (5). Iz dva molekula acetil-KoA se formira jedan molekul sukcinata, što se može koristiti za sintezu ugljenih hidrata. Sukcinat se može prevesti u oksaloacetat reakcijama ciklusa limunske kiseline (sukcinat – fumarat – malat – oksaloacetat), što nije prikazano ovde. Koenzimi (CoA-SH, NAD+, NADH + H+) su izostavljeni u ovim reprezentacijama. Produkcije NADH iz oksidovanih formi koenzima su predstavljene kao oslobađanje 
  
    
      
        
          2
          
          H
        
      
    
    {\displaystyle {\ce {2H}}}
  
.
English: Glyolylate cycle components using Fischer representation comparing to polygonal model. The last form is easier and faster to read and write, and shows with clarity each change of the intermediates in the reactions.
Figure 1: Phase plane trajectory of a system being stabilized by a sliding mode controller. After the initial reaching phase, the system states "slides" along the line 
  
    
      
        s
        =
        0
      
    
    {\displaystyle s=0}
  
. The particular 
  
    
      
        s
        =
        0
      
    
    {\displaystyle s=0}
  
 surface is chosen because it has desirable reduced-order dynamics when constrained to it. In this case, the 
  
    
      
        s
        =
        
          x
          
            1
          
        
        +
        
          
            
              
                x
                ˙
              
            
          
          
            1
          
        
        =
        0
      
    
    {\displaystyle s=x_{1}+{\dot {x}}_{1}=0}
  
 surface corresponds to the first-order LTI system 
  
    
      
        
          
            
              
                x
                ˙
              
            
          
          
            1
          
        
        =
        −
        
          x
          
            1
          
        
      
    
    {\displaystyle {\dot {x}}_{1}=-x_{1}}
  
, which has an exponentially stable origin.
Séquence de tir du Minuteman III avec MIRV :
 1. Le premier étage de propulsion (A) fait sortir le missile de son silo.
 2. Environ 60 secondes après le lancement, le deuxième étage de propulsion (B) s'allume, forçant le premier à se détacher. Également, le capot protégeant les charges est éjecté. Avant la séparation, tous les étages du missile ont la même vitesse. Après la séparation, les derniers étages ont toujours cette vitesse acquise.
 3. Environ 120 secondes après le lancement, le troisième étage (C) s'allume, forçant le deuxième étage de propulsion à se séparer. Avant la séparation, tous les étages du missile ont la même vitesse. Après la séparation, les derniers étages ont toujours cette vitesse acquise.
 4. Environ 180 secondes après le lancement, le « bus » (D) se sépare en allumant son moteur. Avant la séparation, tous les étages du missile ont la même vitesse. Après la séparation, le bus a toujours cette vitesse acquise.
 5. Le « bus » corrige la trajectoire et prépare le déploiement des véhicules de rentrée ((en) RV).
 6. Les RV et les leurres sont déployés.
 7. Les RV et les leurres rentrent dans l'atmosphère à haute vitesse, les ogives sont armées en vol.
 8. Les ogives explosent, soit au sol ou dans les airs.
The search for point 
  
    
      
        
          
            x
          
          
            L
          
        
      
    
    {\displaystyle \mathbf {x} _{L}}
  
's match is restricted to the line 
  
    
      
        
          
            
              
                
                  e
                
                
                  R
                
              
              
                
                  x
                
                
                  R
                
              
            
            ¯
          
        
      
    
    {\displaystyle {\overline {\mathbf {e} _{R}\mathbf {x} _{R}}}}
  
in the right image. Since the images are not rectified, the line 
  
    
      
        
          
            
              
                
                  e
                
                
                  R
                
              
              
                
                  x
                
                
                  R
                
              
            
            ¯
          
        
      
    
    {\displaystyle {\overline {\mathbf {e} _{R}\mathbf {x} _{R}}}}
  
 is slanted. After rectification it would be horizontal.
Oberer Teil: Betrachtung eines Gegenstands (senkrechter Pfeil) ohne Lupe. Die Strahlen (blau) von der Spitze und Basis des Gegenstand (letztere nicht eingezeichnet) treffen im Winkel 
  
    
      
        φ
      
    
    {\displaystyle \varphi }
  
 (phi) ins Auge ein. Der Abstand 
  
    
      
        d
      
    
    {\displaystyle d}
  
 darf hier nicht kleiner als der Nahpunkt des Betrachters sein. 
 Unterer Teil: Betrachtung des gleichen Gegenstands mit einer Lupe (senkrechter Doppelpfeil). Der Abstand zwischen Gegenstand und Lupe entspricht der Brennweite 
  
    
      
        f
      
    
    {\displaystyle f}
  
 (der Gegenstand könnte auch näher an die Lupe herangeführt werden – dann wären die der Lupe ausfallenden Strahlen nicht parallel). Im dargestellten Fall der parallel ausfallenden Strahlen erscheint dem Betrachter das virtuelle Bild unendlich entfernt. Der Winkel 
  
    
      
        φ
      
    
    {\displaystyle \varphi }
  
 ist mit Lupe größer als ohne. Dies macht den vergrößernden Effekt der Lupe aus (siehe unten). Der vergrößernde Effekt (Winkel 
  
    
      
        φ
      
    
    {\displaystyle \varphi }
  
) ist dabei völlig unabhängig von der Entfernung des Betrachters zur Lupe.
The ray diagram illustrating the magnifying ability of a lens.