| n1 | Node 1 | 
              
                | n2 | Node 2 | 
              
                | model_name | (Optional) Name of model. Must begin with a letter but can contain any character except whitespace and period '.' | 
              
                | value | Capacitance (Farads) | 
              
                | initial_condition | Initial voltage if UIC specified on .TRAN statement. | 
              
                | local_temp | Capacitor temperature (???MATH???°???MATH???C) | 
              
                | tc1 | First order temperature coefficient | 
              
                | tc2 | Second order temperature coefficient | 
              
                | vc1 | First order voltage coefficient | 
              
                | vc2 | Second order voltage coefficient | 
              
                | BRANCH | May be 0 or 1. 0 is the default. This parameter determines the internal formulation of the capacitor and affects how the IC parameter is implemented. When BRANCH=0, the capacitor looks like an open circuit during the DC operating point and the IC parameter has no effect unless UIC is specified for a transient analysis. If BRANCH=1, the capacitor looks like a voltage source during dc operating point with a magnitude equal to the value of the IC parameter. BRANCH=1 makes it possible to specify circuit startup conditions. See Alternative Initial Condition Implementations for an example. | 
              
                | mult | Device multiplier. Equivalent to putting mult devices in parallel. | 
              
                | dtemp | Differential temperature. Similar to local_temp but is specified relative to circuit temperature. If both TEMP and DTEMP are specified, TEMP takes precedence. | 
              
                | esr | Effective series resistance. If non-zero (the default value), a resistor of value esr will be connected in series with the capacitor. The resulting implementation of a series RC network is more efficient and offers better convergence than using a separate R and C. This is especially the case if the capacitor has a high value and is non-grounded.
                  
                  
Important: this resistor is noiseless; if the noise in the ESR is important in your design, you should use a separate resistor and omit this parameter in the capacitor. |