BR102015018617A2

BR102015018617A2 - vertical and continuous hydroelectric plant

Info

Publication number: BR102015018617A2
Application number: BR102015018617A
Authority: BR
Inventors: De Assis Alves Plácido
Original assignee: De Assis Alves Plácido
Priority date: 2015-08-04
Filing date: 2015-08-04
Publication date: 2017-02-07
Also published as: WO2017020106A1

Abstract

usina hidroeletrica verticalizada e continua (fig.01) caracterizado por produção contínua de energia elétrica a partir da cinemática dos corpos sólidos e fluídicos na mecânica e hidráulica verticalizada com a dinâmica da força da gravidade e pressão visto que no final do primeiro ciclo a água se desliga no extremo da distância vertical descendente favorecendo todas as probabilidades da força física da mesma para operar o mecanismo do complexo (fig.02) que é compreendido por geração de forca motriz geratriz e todo o sistema utiliza condições naturais numa grid dinâmica vetorial considerando a aceleração de arraste entre os elementos dispensando qualquer fonte externa do complexo para função esperada que é a produção da energia elétrica o princípio de energia limpa e contínua nesta modalidade.Vertical and continuous hydroelectric power plant (fig.01) characterized by continuous production of electrical energy from the kinematics of solid and fluidic bodies in vertical and mechanical hydraulics with the dynamics of the force of gravity and pressure since at the end of the first cycle water it turns off at the extreme of the descending vertical distance favoring all the probabilities of its physical force to operate the mechanism of the complex (fig.02) which is comprised by generating a driving force and the whole system uses natural conditions in a dynamic vector grid considering the acceleration. of drag between the elements dispensing any external source of the complex for expected function that is the production of electric energy the principle of clean and continuous energy in this mode.

Description

COMPLEXO DE USINA HIDROELÉTRICA VERTICALI2ADA E CONTINUA. 1- COMPLEXO DE USINA HIDROELÉTRICA VERTICAUZADA E CONTINUA (fig.01,1;a,1b) e caracterizado por produção continua de energia a partir da mecânica; e hidráulica verticalizada gerando circulação da água sem interrupção. 2- Utilizando a queda da água acelerada pela força da gravidade visto que no final do primeiro ciclo a água se desliga no extremo da distância vertical ascendente favorecendo toda as probabilidade da força física da mesma para gerar o mecanismo do complexo (fig.02) que e compreendido por geração de forca motriz. 3- No segundo ciclo compreendido como vertical descendente a água retoma ' reservatório através de bombeamentos distribuídos em partes do que - volume da queda da água do primeiro sistema (fig.03) essa c torno ao reservatório visa o alivio fracionário da aplicação da ft τ formando a ligação continua circulante dos dois m« - . : . r ndente. 4- 1 s naiu! dispensando qualquer fonte externa do c: - a qu dução da energia elétrica. 5- Esta agregado ao sistema sub conjuntos sendo reservatório superior ffiq.01.1b) reservatório inferior (fig.05) o primeiro alimentando o ciclo nte e o segundo o ciclo ascendente. 6- Dentro do sistema mecânico temos·, como inicio a produção de energia motriz urna turbina de impacto, (b) e condução canalizada da agua produzindo força que alimenta todo a primeira, parte mecânica que também possui dois momentos distinto (fig.06,ib) sendo· esse; primeiro ligado díretamente a um acelerador de pressão d’ãgua pg,Q7,7c*7d> composto por uma bomba perisbiltK-a gue em sua extremidade se divide em. frações (d) de condutores reduzindo o volume potencializando a. pressão de· .saída em jatos distintos em bicos injoiores (c). Esse é o final da interrupção da ligação verticalizada ascendente que observando fisicamente além: de potonnalizur a pressão auxiliar a aceleração, da queda dâ águaTormando uma sucção positiva 7- intciando a força de produção· geradora de energia temos uma turbina (fig.08) independente de ligação o eixo· do. sistema inicial pois neste a força aplicada produzirá uma rotação· potencializada' em relação ao primeiro eixo que alimentam n turbina g^rad0fia(flj|iv09} awséierelíididf:o Cicio descendente. 8- lniciado c onsc-cutívamente· o clico.ascendente temos uma iígaçâo do· primeiro sistema partilharsdo o mesmo eixo' ,â· produção mecânica do bombeamento (FigiC, !0e, K)1,1Og,10hJ esse ê 'Compreendido de frações do volume por um Virabre mposto por partes com pistões (f)z z a força de honinoamenfo, Entradas e SafdâS'· ífágua controladas por válvulas (g) de retenção sendo, que todo o líquido seja. direcionado ao reservatório O reservatório onde se· inicia; o. ciclo de retorno esta inteiramente descoriectado do primeiro ciclo descendente·. diversos em apIícacoes cie montagens em lugares de temperaturas muito baixa onde ela seria congelada e impedinao seu perfeito funcionamento.VERTICALIED AND CONTINUED HYDROELECTRIC POWER PLANT COMPLEX. 1- COMPLEX OF VERTICATED AND CONTINUOUS HYDROELECTRIC POWER PLANT (fig.01,1; a, 1b) and characterized by continuous energy production from mechanics; and vertical hydraulics generating uninterrupted water circulation. 2- Using gravity-accelerated water fall since at the end of the first cycle the water shuts off at the extreme upward vertical distance favoring all probability of its physical force to generate the mechanism of the complex (fig.02) that and comprised by driving force generation. 3- In the second cycle understood as vertical descending water recovers the reservoir by means of pumping distributed in parts of what - the volume of the water fall of the first system (fig.03) that around the reservoir aims at the fractional relief of the application of ft τ forming the continuous circulating connection of the two m. :. nentent. 4- 1 s naiu! dispensing with any external source of c: - the reduction of electric energy. 5- This subset to the subset system being the upper reservoir ffiq.01.1b) the lower reservoir (fig.05) the first feeding the next cycle and the second the ascending cycle. 6- Within the mechanical system we have, as the beginning of the motive energy production an impact turbine, (b) and piped conduction of the water producing force that feeds all the first, mechanical part that also has two distinct moments (fig.06, ib) being · this; first directly connected to a water pressure accelerator pg, Q7,7c * 7d> composed of a perisbilly pump which at its end splits into. conductor fractions (d) reducing volume enhancing the. · .pressure pressure at distinct jets at nozzles (c). This is the end of the interruption of the upright upright connection that physically observing beyond: from potonnalizur the auxiliary pressure to acceleration, from the falling of the water. Forming a positive suction 7- starting the production force. connecting the · axis. initial system because in this the applied force will produce a rotation «potentiated» in relation to the first axis that feed n the turbine g ^ rad0fia (flj | iv09} awséierelíididf: the descending cycle. The first system sharing the same axis, the mechanical production of the pumping (FigiC, 0e, K) 1,10g, 10hJ which is comprised of volume fractions by a Piston (f) zza honinoamenfo force, Intakes and Safdâs' · ï water controlled by check valves (g) whereby all liquid is directed to the reservoir The reservoir where the return cycle is initiated is completely discouraged from the first downward cycle. miscellaneous in applications in very low temperature places where it would be frozen and prevent its perfect operation.

REINVINDICAÇÃOCLAIM

Claims

1- Vertical and continuous hydroelectric power plant characterized by continuous energy production from the kinematics of the decomposing bodies in the mechanical and hydraulic generating fluid circulation without interruption.

2- Using the fall of the fluid as a dynamic vector acceleration by the force of gravity since at the end of the first cycle the liquid shuts off at the extreme vertical ascending distance favoring all the probability of the physical force of the same to generate the mechanism of the complex that is understood. by driving force generation where we will get vector tangential and normal acceleration deriving in time acceleration or complement evidently

3- In the second vertical downward cycle, the liquid returns to the reservoir by pumping distributed in parts of the first system's fall volume. This distribution of the return to the reservoir aims at the fractional relief of the application of the angular vector force in the pumping forming the continuous circulating connection. of the two moments the ascending and descending

4- The whole system uses natural conditions of the forces imprinted on them by the kinematics of the bodies, dispensing any external source of the complex for the expected function, which is the production of electric energy.

5- This subset system is subsets being upper reservoir lower reservoir the first feeding the downward cycle and the second upward cycle

6- Inside the mechanical system we start the production of motive energy an impact turbine and channeled fluid conduction producing force that feeds all the first mechanical part which also has two distinct moments, this first being directly connected to a liquid pressure accelerator. composed by a peristaltic pump that at its end is divided into conductor fractions reducing the volume and increasing the outlet pressure in different nozzles in nozzles this is the end of the interruption of the upright connection that physically observing besides increasing the pressure helps to acceleration of fluid fall forming a positive suction

7- Starting the power generating power we have an independent turbine connecting the axis of the initial system because in this the applied force will produce a potentialized rotation in relation to the first axis that will feed the generating turbine accelerating the downward cycle

8- consecutively started the upward cycle we have a connection of the first system sharing the same axis to the mechanical pumping production that is comprised of volume fractions by a crankshaft composed of separate piston and tube parts relieving the pumping force in and out of the liquid controlled by check valves where all liquid is directed to the reservoir and the reservoir where the return cycle begins is entirely disconnected from the first downward cycle

9- This is a principle of clean and continuous energy that should meet demands in many consumer sectors giving a free autonomy in complex distribution because its logistics will be reduced without spending huge networks as it also offers safety of continuous electrical food without blackout and Water may also be replaced by various liquids in very low temperature mounting applications where it would be frozen and prevent its perfect operation.

10- I present exploded parts of how the components of the system would occur in this first phase of the study of the kinematics of bodies, fluidic and solid bodies and how every innovator I Plácido de Assis Alves will certainly continue to improve the dominant design and execution. same dynamic principle as the entry document in patent application BR 102014031933 6 dated 18 December 2014.