they undergo chemiosmosis resulting in the creation of ATP throught ATP Synthase. Also, they are used to make NADPH when combining with the two electrons lost from P700 and with NADP+ left over from the calvin cycle!!!
The H+ ion has no electrons.
When acids dissolve in water they release a proton - also called a H+ ion. So the answer is "a". The level of acidity is due to H+ and level of alkalinity due to (OH)-. This is displayed in the equation pH=-log[H+] i.e. concentration of H+ ion.
The size will be H- ion > H atom > H+ ion
In chemistry, H+ stands for a hydrogen ion, which is a positively charged ion consisting of a single proton. It is often used to represent acidity in a solution, as it indicates the concentration of free protons present.
The chloroplast is the hydrogen ion concentration is highest in the spaces of its thylakoid membrane. The ions get pushed into these spaces during the transportation of electrons.
The H+ ion has no electrons.
In photosynthesis, an H+ ion gradient forms across the thylakoid membrane of the chloroplast. This gradient is established through the process of electron transport chain and proton pumping during the light reactions, which leads to the generation of ATP via chemiosmosis.
H+ or a proton.
No ionic hydride in which H like +ve ion.
Yes, acids are substances that can donate a hydrogen ion (H+). This donation of H+ ion is what characterizes acids in terms of their chemical properties.
H plus ions would not flow
A hydrogen ion or a proton
H plus ions would not flow
When CO3 reacts with H+ ion, it produces carbonic acid (H2CO3).
When acids dissolve in water they release a proton - also called a H+ ion. So the answer is "a". The level of acidity is due to H+ and level of alkalinity due to (OH)-. This is displayed in the equation pH=-log[H+] i.e. concentration of H+ ion.
The ion H+ is neutralized adding a ionic substance containing the in OH-.
The oxidation number of H+ is +1. This is because hydrogen typically has an oxidation number of +1 when it forms an ion by losing its single electron.