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Subject: PAGINA INCEPATORILOR
Un fundas trebuie sa aiba in primul rand viteza si tehnica, unui fundas ii trebuie tehnica pentru deposedare parerea mea
De fapt apărarea şi nu tehnica e atributul principal şi care ajută la a face o deposedare.
Da in principal apararea dar tehnica cred ca ajuta mai bine la deposedare asta era de inteles ca fundasul are nevoie de aparare
tehnica ajuta sa nu sara mingea ca din coltul mesei la aparator
Din cate stiu Greg a interzis astfel de topicuri, pentru fiecare intrebare trebuie deschis un thread nou.
Are si tehnica un rol important la aparator, nu numai in fazele in care sare mingea din el.
Sunt multe faze in care aparatorul e primul la minge si e deposedat de un atacant din apropiere, de cele mai multe ori cu consecinte destul de grave.
Exemple:
1. Minge inalta, aparatorul nu respinge cu capul ci decide sa preia. In asemenea faza si contructia joaca un rol imp.
2. Alt exemplu, atacantul isi face mingea in fata, aparatorul ajunge primul la minge dar e deposedat imediat iar atacantul are drum liber catre poarta, aparatorul sufera inca de pe urma atacului.
In asemenea faze un aparator fara tehnica si constructie te face sa te lasi de joc. Eu zic ca motorul inca sufera la acest capitol, parca totusi prea multe faze imprevizibile sunt generate intr-un meci.
Pasele fundasilor te ajuta mult atunci cand asezarea nu e ff bine pusa la punct. Pentru ca daca nu creezi spatii pentru mijlocasi si mai joci si la offside, mijlocasii vor pasa de cele mai multe ori in spate. In loc sa pui in valoare mijlocasii defapt ajungi sa ai posesia cu fundasii, iar acestia daca mai si gresesc si dau mingile in aut iar te gandesti la motor.
Sunt multe faze in care aparatorul e primul la minge si e deposedat de un atacant din apropiere, de cele mai multe ori cu consecinte destul de grave.
Exemple:
1. Minge inalta, aparatorul nu respinge cu capul ci decide sa preia. In asemenea faza si contructia joaca un rol imp.
2. Alt exemplu, atacantul isi face mingea in fata, aparatorul ajunge primul la minge dar e deposedat imediat iar atacantul are drum liber catre poarta, aparatorul sufera inca de pe urma atacului.
In asemenea faze un aparator fara tehnica si constructie te face sa te lasi de joc. Eu zic ca motorul inca sufera la acest capitol, parca totusi prea multe faze imprevizibile sunt generate intr-un meci.
Pasele fundasilor te ajuta mult atunci cand asezarea nu e ff bine pusa la punct. Pentru ca daca nu creezi spatii pentru mijlocasi si mai joci si la offside, mijlocasii vor pasa de cele mai multe ori in spate. In loc sa pui in valoare mijlocasii defapt ajungi sa ai posesia cu fundasii, iar acestia daca mai si gresesc si dau mingile in aut iar te gandesti la motor.
In primul rand skill-ul de aparare al atacantului nu are acceasi putere ca a fundasului, fundasii nu isi prelungesc mingea dupa ureche, in sokker exista momentum, fenomen de care nimeni se pare ca stie, cand atacantul este deposedat, fundasul are momentum, in timp ce atacantul porneste greu de pe loc, asta se intampla si cand jocul se schimba de pe o parte pe cealalta.
Doar in cazul in care diferenta dintre atacant si fundas este de 10 trepte la viteza, atunci sunt sanse ca atacantul sa revina cu un tackling.
Fundasii nu tind sa tina mingea, daca nu intervin cu "dovleacul", automat degajeaza mingea cu piciorul.
Un atacant 3x divin cu secundare pe la 12-15 va fi intotdeauna mai bun decat un fundas 2x 17, ca si in realitate.
(edited)
Doar in cazul in care diferenta dintre atacant si fundas este de 10 trepte la viteza, atunci sunt sanse ca atacantul sa revina cu un tackling.
Fundasii nu tind sa tina mingea, daca nu intervin cu "dovleacul", automat degajeaza mingea cu piciorul.
Un atacant 3x divin cu secundare pe la 12-15 va fi intotdeauna mai bun decat un fundas 2x 17, ca si in realitate.
(edited)
aberezi cu momentum, nu lua termeni de pe piata bursiera si ii pune aici , " MOMENTUM" este un indicator de pe bursa .
Momentum is a commonly used term in sports. A team that has the momentum is on the move and is going to take some effort to stop. A team that has a lot of momentum is really on the move and is going to be hard to stop. Momentum is a physics term; it refers to the quantity of motion that an object has. A sports team that is on the move has the momentum. If an object is in motion (on the move) then it has momentum.
Momentum can be defined as "mass in motion." All objects have mass; so if an object is moving, then it has momentum - it has its mass in motion. The amount of momentum that an object has is dependent upon two variables: how much stuff is moving and how fast the stuff is moving. Momentum depends upon the variables mass and velocity. In terms of an equation, the momentum of an object is equal to the mass of the object times the velocity of the object.
Momentum = mass • velocity
In physics, the symbol for the quantity momentum is the lower case "p". Thus, the above equation can be rewritten as
p = m • v
where m is the mass and v is the velocity. The equation illustrates that momentum is directly proportional to an object's mass and directly proportional to the object's velocity.
The units for momentum would be mass units times velocity units. The standard metric unit of momentum is the kg•m/s. While the kg•m/s is the standard metric unit of momentum, there are a variety of other units that are acceptable (though not conventional) units of momentum. Examples include kg•mi/hr, kg•km/hr, and g•cm/s. In each of these examples, a mass unit is multiplied by a velocity unit to provide a momentum unit. This is consistent with the equation for momentum.
Momentum is a vector quantity. As discussed in an earlier unit, a vector quantity is a quantity that is fully described by both magnitude and direction. To fully describe the momentum of a 5-kg bowling ball moving westward at 2 m/s, you must include information about both the magnitude and the direction of the bowling ball. It is not enough to say that the ball has 10 kg•m/s of momentum; the momentum of the ball is not fully described until information about its direction is given. The direction of the momentum vector is the same as the direction of the velocity of the ball. In a previous unit, it was said that the direction of the velocity vector is the same as the direction that an object is moving. If the bowling ball is moving westward, then its momentum can be fully described by saying that it is 10 kg•m/s, westward. As a vector quantity, the momentum of an object is fully described by both magnitude and direction.
From the definition of momentum, it becomes obvious that an object has a large momentum if either its mass or its velocity is large. Both variables are of equal importance in determining the momentum of an object. Consider a Mack truck and a roller skate moving down the street at the same speed. The considerably greater mass of the Mack truck gives it a considerably greater momentum. Yet if the Mack truck were at rest, then the momentum of the least massive roller skate would be the greatest. The momentum of any object that is at rest is 0. Objects at rest do not have momentum - they do not have any "mass in motion." Both variables - mass and velocity - are important in comparing the momentum of two objects.
The momentum equation can help us to think about how a change in one of the two variables might affect the momentum of an object. Consider a 0.5-kg physics cart loaded with one 0.5-kg brick and moving with a speed of 2.0 m/s. The total mass of loaded cart is 1.0 kg and its momentum is 2.0 kg•m/s. If the cart was instead loaded with three 0.5-kg bricks, then the total mass of the loaded cart would be 2.0 kg and its momentum would be 4.0 kg•m/s. A doubling of the mass results in a doubling of the momentum.
Ti-am ingrosat asa sa iti faci idee.
Chiar nu inteleg de ce ti-am raspuns, ce rost avea sa vorbesc despre un indicator pe un manager de fotbal? :))
Momentum can be defined as "mass in motion." All objects have mass; so if an object is moving, then it has momentum - it has its mass in motion. The amount of momentum that an object has is dependent upon two variables: how much stuff is moving and how fast the stuff is moving. Momentum depends upon the variables mass and velocity. In terms of an equation, the momentum of an object is equal to the mass of the object times the velocity of the object.
Momentum = mass • velocity
In physics, the symbol for the quantity momentum is the lower case "p". Thus, the above equation can be rewritten as
p = m • v
where m is the mass and v is the velocity. The equation illustrates that momentum is directly proportional to an object's mass and directly proportional to the object's velocity.
The units for momentum would be mass units times velocity units. The standard metric unit of momentum is the kg•m/s. While the kg•m/s is the standard metric unit of momentum, there are a variety of other units that are acceptable (though not conventional) units of momentum. Examples include kg•mi/hr, kg•km/hr, and g•cm/s. In each of these examples, a mass unit is multiplied by a velocity unit to provide a momentum unit. This is consistent with the equation for momentum.
Momentum is a vector quantity. As discussed in an earlier unit, a vector quantity is a quantity that is fully described by both magnitude and direction. To fully describe the momentum of a 5-kg bowling ball moving westward at 2 m/s, you must include information about both the magnitude and the direction of the bowling ball. It is not enough to say that the ball has 10 kg•m/s of momentum; the momentum of the ball is not fully described until information about its direction is given. The direction of the momentum vector is the same as the direction of the velocity of the ball. In a previous unit, it was said that the direction of the velocity vector is the same as the direction that an object is moving. If the bowling ball is moving westward, then its momentum can be fully described by saying that it is 10 kg•m/s, westward. As a vector quantity, the momentum of an object is fully described by both magnitude and direction.
From the definition of momentum, it becomes obvious that an object has a large momentum if either its mass or its velocity is large. Both variables are of equal importance in determining the momentum of an object. Consider a Mack truck and a roller skate moving down the street at the same speed. The considerably greater mass of the Mack truck gives it a considerably greater momentum. Yet if the Mack truck were at rest, then the momentum of the least massive roller skate would be the greatest. The momentum of any object that is at rest is 0. Objects at rest do not have momentum - they do not have any "mass in motion." Both variables - mass and velocity - are important in comparing the momentum of two objects.
The momentum equation can help us to think about how a change in one of the two variables might affect the momentum of an object. Consider a 0.5-kg physics cart loaded with one 0.5-kg brick and moving with a speed of 2.0 m/s. The total mass of loaded cart is 1.0 kg and its momentum is 2.0 kg•m/s. If the cart was instead loaded with three 0.5-kg bricks, then the total mass of the loaded cart would be 2.0 kg and its momentum would be 4.0 kg•m/s. A doubling of the mass results in a doubling of the momentum.
Ti-am ingrosat asa sa iti faci idee.
Chiar nu inteleg de ce ti-am raspuns, ce rost avea sa vorbesc despre un indicator pe un manager de fotbal? :))
Am uitat, in meciurile de baraj jucatorii primesc antrenament?
Nu inteleg de ce atunci cand ti se accidenteaza un jucator mai mult de 7 zile, trebuie ca mingea sa iasa in out, ca sa se poata realiza schimbarea... Daca nu iese in out si mingea ajunge la propriul portar, el ramane in continuare pe teren si joaca pana ce mingea paraseste terenul de joc... (?)
Normal ar fi ca atunci cand mingea este prinsa de propriul portar sau chiar de portarul advers, schimbarea sa se poata face in acel moment...
Normal ar fi ca atunci cand mingea este prinsa de propriul portar sau chiar de portarul advers, schimbarea sa se poata face in acel moment...
Ai văzut în fotbalul real aşa ceva. ca o schimbare să se facă în timp ce jocul este în desfăşurare? Nu, nu e normal ce zici tu ...