1 watt = 1 joule per second = 0.000239 food calories of heat per second
Uranus and Neptune are the two jovian planets that do not have a significant internal heat source. They receive most of their heat from the sun and do not generate as much internal heat as Jupiter and Saturn.
The Sun is the closest star to Earth, which is why we receive a significant amount of heat and light from it. Other stars are much farther away and their radiation does not reach us in the same way. Additionally, the Sun's composition and size make it capable of sustained fusion reactions that generate heat and light.
The sun and a light bulb both emit light and heat. However, the sun relies on nuclear fusion in its core to generate energy, whereas a light bulb uses electricity to produce light. Additionally, the sun is much larger and more powerful than a light bulb.
Well, yes, but the light is so weak that you won't generate much electricity.
Jupiter gives off more heat than it receives from the sun, with its internal heat source generating about twice as much energy as it receives from the sun. This excess heat contributes to Jupiter's high internal temperature and its strong magnetic field.
An electric eel can generate up to 600 volts of electricity in one electric shock.
An electric eel can generate up to 600 volts of electricity, with a maximum power output of around 1 kilowatt.
about 900
They do not generate enough heat to burn a book if cliped on and the bulb not close.
The amount of heat needed to produce electricity depends on the type of power plant being used. In general, fossil fuel power plants such as coal or natural gas plants require high temperatures to generate steam that drives turbines to produce electricity. Renewable energy sources like solar or geothermal also rely on heat to generate electricity through different processes.
Neon signs generate a small amount of heat when they are turned on, typically around 60-80 degrees Fahrenheit.
350 degree Fahrenheit of temperature.
On average, a human generates about 100 watts of body heat.
The human body generates an average of about 100 watts of heat.
To determine the mass needed to generate a specific amount of heat (in kJ) during a reaction, you need to know the enthalpy change (ΔH) of the reaction, which indicates how much heat is absorbed or released per mole of reactant. Using the formula ( q = n \times ΔH ), where ( q ) is the heat in kJ and ( n ) is the number of moles, you can rearrange this to find ( n = \frac{q}{ΔH} ). Then, multiply the number of moles by the molar mass of the reactant to obtain the required mass.
On average, a person generates about 100 watts of heat per hour.
80 Kgs