The Comprehensive Guide to Venturi Vacuum Pumps: A Technical Masterclass

venturi vacuum pump

Venturi vacuum pumps are a type of pneumatic vacuum generator that utilize compressed air to create a vacuum. By passing compressed air through a venturi nozzle, the pressure decreases, and the air velocity increases, resulting in a low-pressure zone that draws in surrounding air and generates a vacuum. This technology offers a cost-effective and low-maintenance … Read more

The Comprehensive Guide to Large Vacuum Pumps: Mastering the Art of High-Vacuum Technology

large vacuum pump

Large vacuum pumps are powerful devices that play a crucial role in a wide range of industries, from scientific research to manufacturing. These pumps are designed to create and maintain a high-vacuum environment by removing gas molecules from a sealed volume, enabling a diverse array of applications that rely on precise control over pressure and … Read more

How to Maintain a Balloon Air Pump: A Comprehensive Guide

how to maintain a balloon air pump

Maintaining a balloon air pump is crucial to ensure its longevity and optimal performance. This comprehensive guide will provide you with detailed, technical, and actionable steps to keep your balloon air pump in top-notch condition, allowing you to inflate balloons with ease and efficiency. Cleaning the Balloon Air Pump Regularly cleaning your balloon air pump … Read more

Kinetic energy to electrical energy: how to convert, examples and facts

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This post gives you a detailed explanation of how and when kinetic energy is converted to electrical energy and its examples.

Kinetic energy is the energy under its motion and electrical energy is work done or energy consumed by an electrical device. The modification of magnetic flux is generated by comparative shifting in the middle of a coil and magnet. Build a coil at relaxation and build a magnet operating parallel to the coil creating kinetic energy and it converts into electricity.

How is kinetic energy converted to electrical energy?

Tides are brought about by the gravitational pull of sun and moon and earth rotation. Gesticulation of tides generated tidal energy the potency of the water deriving out of mount and plunge of tides is an embodiment of kinetic energy. Tidal capacity encompasses gravitational water power that utilizes the motion of water to thrust a turbine to produce electricity. 

In tidal barrages, over-fall gates upon the barrage jurisdiction water levels and streamline flow to receive the tidal brim to exuberate upon introgression elevation tides and to vacant via electricity generator system on the uninhibited tide. These systems generate electricity from both introvert and extrovert tides by using kinetic energy.

When kinetic energy is converted to electrical energy?

The character of kinetic energy is to spin the wire beneath the magnetic field source. The magnetic field force fascinates the electrons inwards the copper which in succession also line up spin, in each gyration the electrons flirt polarity and origin the electrons to wiggle and generate a rotating magnetic field all over the wire both counter-clockwise and anti-clockwise and generate electricity.

Concurrently as the electric field that grabs the proton and electron coexist inwards the copper atom is emphasized due to the existence of a hardened magnetic field around the wire, net electromotive force potentiality inwards the wire is also generated and this influence among the magnetic and electric field is electricity.

The above process concludes that kinetic energy seeds the swinging electromagnetic field over the wire that can be broached and generate electricity.

Where is kinetic energy converted to electrical energy?

In a traffic scene, the electrokinetic energy road ramp is designed to generate electricity using kinetic energy from traffic this free energy would otherwise be lost.

 The ramp achieves this by employing articulating plates that move up and down under the impact delivered by the vehicles and these plates in turn connected to a mechanism that drives a specially developed flywheel that has very low inertia from rest.

 Which can store a significant amount of kinetic energy this, in turn, drives the generator with an electrical control that alters the magnetic field enabling the mechanism to reach its maximum ramp and produce electricity. A ramp is of an advanced design resulting in the extremely efficient conversion of kinetic energy to electricity.

Kinetic energy to electrical energy formula ?

The formula to convert kinetic energy (1/2mv^2) to electrical energy (Energy = P*t) is,

1/2 mv2 = p*t

Where m is the mass of the object, v is the speed of the object, P is the power and t is the time.

Kinetic energy to electrical energy generator?

As I mentioned above electric generator is a gadget that modified kinetic energy to electrical energy via electromagnetic induction. 

An electrical energy generator contains a rectangular coil, two permanent magnets, and two rings and attaches the axle to a ring, in this generator kinetic energy is transferred to electrical energy by producing electricity.

Two conducting brushes b1 and b2 are get pressed separately in the rings r1 and r2 and the outer ends of these brushes are connected to a galvanometer to show the flow of current these two rings are internally attached to the axle which is used to rotate inside the coil mechanically from outside the system.

When the axle is rotated mechanically (kinetic energy) such that an arm AB is moving up and CB is moving down in the magnetic field produced by the permanent magnet and the coil is rotating clockwise in the external magnetic field and apply Flemming’s left-hand rule to this coil then current is induced along ABCD hence the electricity is generated. This concludes that kinetic energy is converted into an electrical energy generator.

Kinetic energy to electrical energy efficiency

In a wind turbine, the heave forces permit the blade spike of a wind turbine to budge faster than the breeze is operating producing more power and towering – efficiencies. In this process, the kinetic energy is converted as electricity (E.E.) of the wind turbine.

According to the mathematical formula of efficiency,

Efficiency=Eout/Ein * 100 %

Here About is the output energy that is electrical energy and Ennis the kinetic input energy

Therefore,

 Efficiency= E.E./K.E.×100%

Kinetic energy to electrical energy examples

20+ kinetic energy to potential energy examples with their detailed explanations are stated below

  1. A wind mill
  2. The Spinning of magnetic field source
  3. The tides
  4. Road ramp system
  5. An electrical generator
  6. Wind turbines
  7. Flywheel
  8. Piezoelectric crystal
  9. Steam turbines
  10. Hydroelectric turbines
  11. Foot step technology
  12. Solar panels
  13. Geothermal power plants
  14. Nuclear reactors
  15. Kinetic watches
  16.  Moving train
  17. Flying airplanes
  18. Infinity cell
  19. Radio
  20. Dynamo
  21. Pedaling a bike

A Wind mill

If the blowing wind can turn the wing, we will accept electricity deriving out of the generator which is connected to it. Meanwhile, gaze at the blade intimately the blade consists of an air-wing and transaction comprise of dissimilar appearance and dimensions through the root caps. The air-wing technology constructs the wind turbine blade to revolve this conveys that a heave is created when liquid shift above the air-wing thus winds attain circumrotation and provide kinetic energy transfer electricity via a generator.

Free photos of Wind mills
Wind mill image credit: pixabay

The Spinning of magnetic field source

The character of kinetic energy is to spin the wire beneath the magnetic field source. Concurrently as the electric field that grabs the proton and electron coexist inwards the copper atom is emphasized due to the existence of a hardened magnetic field around the wire, net electromotive force potentiality inwards the wire is also generated and this influence among the magnetic and electric field is electricity.

The tides

 When the tides exterior the hurdle move away the water hold on to be set free via turbines creating kinetic energy and generator bring out energy along with water currents and produce electricity.

Road ramp system

The ramp achieves this by employing articulating plates that move up and down under the impact delivered by the vehicles which can store a significant amount of kinetic energy this, in turn, drives the generator with an electrical control that alters the magnetic field enabling the mechanism to reach its maximum ramp and produce electricity.

An electrical generator

When the axle is rotated mechanically (kinetic energy) such that the magnetic field produced by the permanent magnet and coil is rotating clockwise in the external magnetic field and apply some rule to this coil then current is induced along the arms hence the electricity is generated. This concludes that kinetic energy is converted to an electrical energy generator.

Free photos of Lost place
Electric generator picture credit: pixabay

Wind turbines

The direction of the wind revolves the undercarriage face towards the wind energy which is kinetic energy rotates the turbine blades throughout the rotor generating the kinetic energy the rotor affix to the major shank which divert inwards the generator and captivating rotor gyrate inwards the loops of brass wire this seed the electrons the brass to slide forming electrical energy.

Flywheel

The motor which spins a flywheel its motion stores kinetic energy the flywheel spins easily because it’s in a vacuum-sealed container levitated by a magnet and riding on special bearings when initiated by the control system the electric motor becomes a generator that delivers enough electricity.

Free photos of Steam engine
Flywheel image credit: pixabay

Piezoelectric crystal

In the hammer the kinetic energy is stored in the spring the hammer then strikes a piezoelectric crystal and when we hit this generates a voltage there will be a gap between the lighter and hammer in the crystal and when we press this piezoelectric crystal it generates electricity.

Steam turbines

Steam in the blades of the rotating turbine form kinetic energy and the turbines are combined with the alternator with a pivot, which in succession generates energy through a field of force fabricating an electric current.

Hydroelectric turbines

The flowing of water from the dam creates kinetic energy then water passage via turbine blades it operates the generator it produces electricity by converting kinetic energy.

Foot step technology

Pavegen has generated energy from people’s footsteps every time people walk on that technological system built on the road their kinetic energy turns into electricity.

Solar panels

When the sun glows onto a solar panel, energy deriving out of the sunlight is sucked up the photovoltaic cells in the panel solar energy is kinetic energy because of the quivering of molecules this energy generates electrostatic-charge moving with the influence of the internal electric field to produce electricity.

Free photos of Solar cell
Solar panel picture credit: pixabay

Geothermal power plants

The mist emanates from a pond of boiling water found down the earth’s surface the moisture diverts a turbine kinetic energy is created which operates the generator to produce electricity.

 

Free photos of Power plant
Geothermal plants image credit: pixabay

Nuclear reactors

When nuclei break a huge quantity of energy is liberated the substantial source is kinetic energy which creates a stipe inwards the reactor generators the electricity.

Kinetic watches

Kinetic watches have a fluctuating mass which spins by-the gesture of the wrist whereupon the watch is shabby these-motion-make-a-magnetic-charge-in-the-watch-divert-into-electricity.

.

Free photos of Seiko
Kinetic watches image credit: pixabay

Moving train

A fast-moving train squeezes the air afore it and thrust the air its sides move ahead the kinetic energy of the breeze motion created perchance gives rise to electricity.

Free photos of Train
Moving train image credit: pixabay

Flying airplanes

Alternator utilizes engines revolving power create kinetic energy gyrate magnets climb inside the field coil which generate electricity.

Infinity cell

The iPhone uses a kinetic energy charger which is called an infinity cell that utilizes our anatomy gesticulation to generate electricity.

Free photos of Iphone
iPhone charger image credit: pixabay

Radio

As the spring chill, the potential energy forms the kinetic energy, and this kinetic energy is transformed by the generator into electrical energy.

Dynamo

The dynamo has a ring come into contact with the rear tire and as the pedal cycle pass kinetic energy is created then the ring rotates magnet inwards a coil which persuades adequate electricity to sprint the pedal cycle lights.

 Pedaling a bikes

The pivoting of bike wheels creates kinetic energy and the alternator utilizes the sequence of a rheostat, condenser, and converter to transform the kinetic energy into electricity.

11+ Unicellular Algae Examples: Detailed Facts

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Unicellular algae examples can be found in various different phylum classified under kingdom Protista.

Unicellular or acellular algae are both prokaryote and eukaryote organisms containing chlorophyll. The few main phylum in which unicellular algae can be classified are; Cyanophyta, Glaucophyta, Euglenophyta, Chrysophyta, Pyrrophyta, Charophyta and a few Rhodophyta.

A few examples of unicellular algae are,

Unicellular algae are mostly phytoplankton found in both marine and freshwater habitats and some unicellular algae are found in terrestrial habitats. Many of these algae are extremophiles.

Based on the presence of either Rhizopodia or flagella, unicellular algae can be either motile or non-motile.

Cyanophyta: Blue-green algae

Commonly referred to as cyanobacteria and are prokaryotic algae. They are free-living, gram-negative bacteria, usually containing ‘chlorophyll a’ for photosynthesis. They have naked, circular fibrils of DNA in their protoplasm.

Gloeothece fuscolutea

  • Phylum: Cyanobacteria
  • Class: Cyanophyceae
  • Subclass: Oscillatoriophycideae
  • Order: Chroococcales
  • Family: Chroococcaceae
  • Genus: Gloeothece
  • Species: fuscolutea.

A rod-shaped or ovoid cyanobacterium without internal thylakoids. They are free-living, freshwater cyanobacteria with layered mucilaginous sheath. They are one of the most primitive algae based on their nucleic acid sequencing.

Prochlorococcus marinus

  • Phylum: Cyanobacteria
  • Class: Cyanophyceae
  • Subclass: Synechococcophycideae
  • Order: Synechococcales
  • Family: Synechococcaceae
  • Genus: Prochlorococcous
  • Species: marinus

These small, marine, picoplankton are one of the most abundant and smallest photosynthetic organisms in Earth. They contain chlorophyll a and b, and lack phycobilin pigments. They are free-living, non-motile, coccoid cyanobacteria found in euphotic zones of world’s tropical oceans at a temperature range of 10-33o C.

unicellular algae examples
Fig: Prochlorococcus MED4” by Chisholm Lab is marked with CC0 1.0. Copy text

Synechococcus arcuatus

  • Phylum: Cyanobacteria
  • Class: Cyanophyceae
  • Subclass: Synechococcophycideae
  • Order: Synechococcales
  • Family: Synechococcaceae
  • Genus: Synechococcus
  • Species: arcuatus

These freshwater, motile, cylindrical coccoid picoplankton contain chlorophyll a as photosynthetic pigments and phycobilin as accessory pigments.

Glaucophyta:

They contain endosymbiotic cyanobacteria in their cytoplasm instead of chlorophyll. The endosymbiotic theory of chloroplast evolution is evident from this symbiotic association. The endosymbiotic cyanobacteria are called cyanelles and the host is called cyanome.

unicellular algae examples
Fig: “Glaucophyta” by JJT1982 is licensed under CC BY 2.0. Copy text

Cyanophora paradoxa

  • Phylum: Glaucophyta
  • Class: Glaucophyceae
  • Order: Glaucocystales
  • Family: Glaucocystaceae
  • Genus: Cyanophora
  • Species: paradoxa

Freshwater flagellate with two cyanelles present in protoplasm. Each cyanelles have a central dense body and an inner ring each, in the stroma inside the plasma membrane.

Glaucocystis duplex-

  • Phylum: Glaucophyta
  • Class: Glaucophyceae
  • Order: Glaucocystales
  • Family: Glaucocystaceae
  • Genus: Glaucocystis
  • Species: duplex

These freshwater organisms have two groups of cyanelles, one on each side of nucleus. They have reduced flagella in cell wall. These unicellular algae proliferate through asexual reproduction.

Euglenophyta:

These motile, aquatic unicellular algae have chlorophyll a &b as their respiratory pigments, and flagella with fibrillar hairs in a row. Their nucleus is mesokaryotic in nature. Their cellular body is covered by plasma membrane, underneath which lies pellicle, that is made of repeating proteinaceous units called strips and microtubules.

Peranema trichophorum-

  • Phylum: Euglenophycota
  • Class: Euglenophyceae
  • Order: Heteronematales
  • Family: Paranemataceae
  • Genus: Peranema
  • Species: trichophorum

These free-living, phagocytic organelles are mostly found in freshwaters. They have specialized ‘food vacuole’ for phagocytosis.

unicellular algae examples
Fig: “Peranema (Flagellat) – 630x” by Picturepest is licensed under CC BY 2.0. Copy text

Euglena gracilis-

  • Phylum: Euglenophycota
  • Class: Euglenophyceae
  • Order: Euglenales
  • Family: Euglenaceae
  • Genus: Euglena
  • Species: gracilis

These freshwater, motile unicellular algae have two anterior flagella of which only one emerges from flagellar reservoir. They are both autotroph and heterotroph in nature and consume smaller microbes like amoeba through phagocytosis. They reproduce asexually through longitudinal mitotic cell division.

unicellular algae examples
Fig: “Euglena gracilis- Protiste (végétal)” by Philippe Garcelon is licensed under CC BY 2.0. Copy text

Chrysophyta: Golden-brown and yellow-green algae; Diatoms

They are flagellated, unicellular autotrophs with mitochondria. They have chlorophyll a and c1/c2, and carotenoid fucoxanthin. Two anteriorly attached flagella of uneven length are present.

Mallomonas elegans

  • Phylum: Chrysophyta
  • Class: Chrysophyceae
  • Order: Ochromonadales
  • Family: Synuraceae
  • Genus: Mallomonas
  • Species: elegans

These freshwater unicellular algae are covered by intricate silica scales and bristles. They are golden-brown in color.

unicellular algae examples
Fig: “Mallomonas sp.” by greenmarlin is licensed under CC BY-SA 2.0. Copy text

Cyclotella meneghiniana-

  • Phylum: Ochrophyta
  • Class: Bacillariophyceae
  • Subclass: Coscinodiscophycidae
  • Order: Thalassiosirales
  • Family: Stephanodiscaceae
  • Genus: Cyclotella
  • Species: meneghiniana

These marine water algae are found in oligotrophic environments. They have the largest genome among all the diatoms, 171 Mb in size. They proliferate through asexual reproduction which results in decreasing cellular size.

Pyrrophyta: Dinoflagellates

Unicellular, autotrophic phytoplankton which are mostly marine but some can be found in freshwater environment. They act as a primary food source for almost every aquatic food chain.

Noctiluca scintillans-

  • Phylum: Pyrrophycophyta
  • Class: Dinophyceae
  • Order: Noctilucales
  • Family: Noctilucaceae
  • Genus: Noctiluca
  • Species: scintillans

These free-living, marine dinoflagellates can be found throughout the world and have bioluminescence properties. They cause toxic algal bloom, known as red tide which causes harm to fishes and corals.

unicellular algae examples
Fig: “File:Noctiluca scintillans unica.jpg” by Maria Antónia Sampayo, Instituto de Oceanografia, Faculdade Ciências da Universidade de Lisboa is licensed under CC BY 3.0. Copy text

Pyrodinium bahamense-

  • Phylum: Pyrrophycophyta
  • Class: Dinophyceae
  • Order: Gonyaulacales
  • Family: Goniodomataceae
  • Genus: Pyrodinium
  • Species: bahamense

These autotrophic, marine dinoflagellates are generally found in Atlantic Ocean. They produce bioluminescence and also paralytic toxin. They possess chlorophyll a & c and peridinin.

Charophyta: Stoneworts or Brittleworts

These motile green algae are commonly found in fresh to brackish water. They have two flagella attached in a lateral position. They reproduce sexually by forming a dominant zygote which eventually germinates by meiotic division. The evolutionary line of charophyta later evolved into land plants.

Cylindrocystis brebissonii-

  • Phylum: Charophyta
  • Class: Conjugatophyta
  • Order: Zygnematales
  • Family: Mesotaeniaceae
  • Genus: Cylindrocystis
  • Species: brebissonii

These autotrophic green algae have a cylindrical body with asteroid shaped chlorophyll. They are generally found in freshwater or terrestrial habitats.

Euastrum humerosum-

  • Phylum: Charophyta
  • Class: Conjugatophyta
  • Order: Desmidiales
  • Family: Desmidiaceae
  • Genus: Euastrum
  • Species: humerosum

These are freshwater algae. They have a pyramidal outline of their cell, with deep invagination of the median apical incurvation, dividing the cell into apical, lateral and basal lobes.

unicellular algae examples
Fig: “Euastrum sp – Algue verte” by Philippe Garcelon is licensed under CC BY 2.0. Copy text

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