posterior
The skin excretes salts from it's surface. I don't believe that the liver does.
micronodular cirrhosis of the liver leading to portal venous hypertension and splenomegaly
The ascending colon extends from the cecum to the under surface of the liver where it turns to the left to become the transverse colon.
The primary difference in activity between a whole piece of liver and ground liver lies in their surface area and exposure to oxygen. Ground liver has a significantly larger surface area, which can lead to faster oxidation and spoilage. Additionally, the grinding process can disrupt cellular structures, potentially altering the release of nutrients and enzymes. As a result, ground liver may have a different flavor profile and texture compared to a whole piece.
Visceral surface of the liver where the portal vein & hepatic vein meet
By macerating the liver, you are increasing its surface area (SA) therefore, the enzyme catalase can break down the hydrogen peroxide at a much faster and easier rate.
In fact it doesn't 'produce' more catalyseBy grinding up the liver, you are producing small bits of liver and therefore have more surface area. Hence providing more surface area = more opportunities for to the catalyse to go to work.It's all about surface area to volume ratio.The More surface area you have to volume ratio, the quicker the reaction.(smaller bits of grind up liver, will produce a quicker reaction)and vise versa.
It is the mitochondria. It provides surface for that
The skin is the largest organ in the body. This is followed by the liver, the brain, and then the lungs.
The main function of the caudate lobe of the liver is to drain fluid from bile ducts into either the right heptic duct or its branches. The caudate lobe is divided into five surfaces consisting of the right plane, the ventral-border plane, the left surface, the hilar-free surface, and the dorsal.
The large surface area of the inner mitochondrial membrane in liver cells is crucial for housing the electron transport chain and ATP synthase complexes, allowing for efficient energy production through oxidative phosphorylation. This setup maximizes the production of ATP, which is essential for the liver's metabolic functions. The high surface area relative to the cell's plasma membrane also reflects the high energy demand of liver cells compared to other cell types.