A) is less sensitive than turbidimetry and is measured directly across from the beam of light that has gone through the sample B) is more sensitive than turbidimetry and is measured directly across from the beam of light that has gone through the sample C) is more sensitive than turbidimetry and is measured at a 10-90° angle from the beam of light that has gone through the sample D) is less sensitive than turbidimetry and is measured at a 10-90° angle from the beam of light that has gone through the sample A) is less sensitive than turbidimetry and is measured directly across from the beam of light that has gone through the sample B) is more sensitive than turbidimetry and is measured directly across from the beam of light that has gone through the sample C) is more sensitive than turbidimetry and is measured at a 10-90° angle from the beam of light that has gone through the sample D) is less sensitive than turbidimetry and is measured at a 10-90° angle from the beam of light that has gone through the sample

A) the residual nonagglutinating particles are counted B) the drug in the patient's serum increases turbidity C) the drug in the patient's serum decreases turbidity D) the drug in the patients serum decreases the number of residual nonagglutinating particles A) the residual nonagglutinating particles are counted B) the drug in the patient's serum increases turbidity C) the drug in the patient's serum decreases turbidity D) the drug in the patients serum decreases the number of residual nonagglutinating particles

A) less sensitive than precipitation B) more sensitive than precipitation if the particles are highly charged C) better with IgM at lower temperatures (4-27°) D) called passive agglutination when the antigen is naturally part of the particle A) less sensitive than precipitation B) more sensitive than precipitation if the particles are highly charged C) better with IgM at lower temperatures (4-27°) D) called passive agglutination when the antigen is naturally part of the particle