void readKeyframe(std::ifstream &keyframeFile, glm::vec4 frame[], int numOfModelParameters, int numOfLights, int lightStates[])
{
int ct=0;
for(int i=0; i<numOfModelParameters; i++)
{
glm::vec4 newParameter(1.0f, 1.0f, 1.0f, 1.0f);
keyframeFile >> newParameter[0] >> newParameter[1] >> newParameter[2];
frame[ct] = newParameter;
ct++;
}
for(int i=0; i<numOfLights; i++)
{
keyframeFile >> lightStates[i];
glm::vec4 newParameter(1.0f, 1.0f, 1.0f, 1.0f);
keyframeFile >> newParameter[0] >> newParameter[1] >> newParameter[2];
frame[ct] = newParameter;
ct++;
keyframeFile >> newParameter[0] >> newParameter[1] >> newParameter[2];
frame[ct] = newParameter;
ct++;
}
glm::vec4 newParameter(1.0f, 1.0f, 1.0f, 1.0f);
keyframeFile >> newParameter[0] >> newParameter[1] >> newParameter[2];
frame[ct] = newParameter;
ct++;
keyframeFile >> newParameter[0] >> newParameter[1] >> newParameter[2];
frame[ct] = newParameter;
ct++;
}
///
/// Define all (nuisance) parameters.
///
/// scan: defines scan range (for Prob and Plugin methods)
/// phys: physically allowed range (needs to be set!)
/// free: range applied when no boundary is required - set this far away from any possible value
///
void ParametersCartesian::defineParameters()
{
Parameter *p = 0;
p = newParameter("g");
p->title = "#gamma";
p->startvalue = DegToRad(70);
p->unit = "Rad";
p->scan = range(DegToRad(0), DegToRad(180));
p->phys = range(-7, 7);
p = newParameter("d_dk");
p->title = "#delta_{B}^{DK}";
p->startvalue = DegToRad(127);
p->unit = "Rad";
p->scan = range(DegToRad(0), DegToRad(180));
p->phys = range(-7, 7);
p = newParameter("r_dk");
p->title = "r_{B}^{DK}";
p->startvalue = 0.09;
p->unit = "";
p->scan = range(0.02, 0.2);
p->phys = range(0, 1e4);
}
void ClassNode::GenerateCreateArrayMethod(const char* methodName, MethodNode* constructor)
{
IdentifyNode* name = (IdentifyNode*)newIdentify(methodName);
ParameterNode* parameter = (ParameterNode*)newParameter(newPrimitiveType(newToken(snt_keyword_unsigned), pt_uint), 0, 0, newIdentify("count"));
ParameterListNode* parameterList = (ParameterListNode*)newParameterList(0,0,parameter);
MethodNode* method = (MethodNode*)newMethod(name,
constructor->m_leftParenthesis, parameterList,
constructor->m_rightParenthesis, constructor->m_constant);
method->m_semicolon = constructor->m_semicolon;
ScopeNameNode* scopeName = (ScopeNameNode*)newScopeName(m_name, 0, 0, 0);
ScopeNameListNode* scopeNameList = (ScopeNameListNode*)newScopeNameList(0, scopeName);
TypeNameNode* typeName = (TypeNameNode*)newTypeName(scopeNameList);
TokenNode* passing = (TokenNode*)newToken('^');
setMethodResult(method, typeName, passing);
setMethodResultArray(method);
TokenNode* modifier = (TokenNode*)newToken(snt_keyword_static);
setMethodModifier(method, modifier);
if (constructor->m_filterNode)
{
method->m_filterNode = (TokenNode*)newToken(constructor->m_filterNode->m_nodeType);
}
method->m_enclosing = this;
m_additionalMethods.push_back(method);
}
XmlResponse XmlRPC::run(std::string methodName, std::vector<xmlrpc_c::value> parameters ){
try {
// Construct our client from our Transport object
xmlrpc_c::client_xml client(&transport);
std::string const method(methodName);
// Parse through our parameters list
xmlrpc_c::paramList params;
for(int i=0; i < parameters.size(); i++){
xmlrpc_c::value newParameter(parameters.at(i));
params.addc(newParameter);
}
// Construct the Server URL
std::string const serverUrl(m_serverurl + ":" + std::to_string(m_port));
xmlrpc_c::carriageParm_http0 carriageParams(serverUrl);
// Check That Auth Requirements have been met
if(m_authrequired){
if(!m_authset){
std::cout << "Error: XML-RPC Auth is required but has not been set" << std::endl;
return std::make_pair(false,xmlrpc_c::value_string(""));
}
else{
carriageParams.setUser(m_authuser, m_authpass);
carriageParams.allowAuthBasic();
}
}
// Uncomment this to expand the size limit, I will move this elsewhere later into a function
// similar to the timeout setting one.
//
xmlrpc_limit_set(XMLRPC_XML_SIZE_LIMIT_ID, 5e6);
// Run our RPC Call
xmlrpc_c::rpcPtr rpc(method, params);
rpc->call(&client, &carriageParams);
assert(rpc->isFinished());
xmlrpc_c::value const response(rpc->getResult());
return std::make_pair(true,response);
} catch (std::exception const& e) {
std::cerr << "Client threw error: " << e.what() << std::endl;
return std::make_pair(false,xmlrpc_c::value_string(""));
} catch (...) {
std::cerr << "Client threw unexpected error." << std::endl;
return std::make_pair(false,xmlrpc_c::value_string(""));
}
}
void define_routines(void)
{
SymbolEntry *se;
const char *name;
name = "READ_INT";
se = newFunction(name);
openScope();
endFunctionHeader(se, typeInteger);
closeScope();
name = "READ_BOOL";
se = newFunction(name);
openScope();
endFunctionHeader(se, typeBoolean);
closeScope();
name = "getchar";
se = newFunction(name);
openScope();
endFunctionHeader(se, typeInteger);
closeScope();
name = "READ_REAL";
se = newFunction(name);
openScope();
endFunctionHeader(se, typeReal);
closeScope();
name = "READ_STRING";
se = newFunction(name);
openScope();
newParameter("par1", typeInteger, PASS_BY_VALUE, se);
newParameter("par2", typeIArray(typeChar), PASS_BY_REFERENCE, se);
endFunctionHeader(se, typeVoid);
closeScope();
name = "putchar";
se = newFunction(name);
openScope();
newParameter("par", typeChar, PASS_BY_VALUE, se);
endFunctionHeader(se, typeVoid);
closeScope();
name = "puts";
se = newFunction(name);
openScope();
newParameter("par", typeIArray(typeChar), PASS_BY_REFERENCE, se);
endFunctionHeader(se, typeVoid);
closeScope();
name = "writeInteger";
se = newFunction(name);
openScope();
newParameter("par1", typeInteger, PASS_BY_VALUE, se);
//newParameter("par2", typeInteger, PASS_BY_VALUE, se);
endFunctionHeader(se, typeVoid);
closeScope();
name = "writeBoolean";
se = newFunction(name);
openScope();
newParameter("par1", typeBoolean, PASS_BY_VALUE, se);
//newParameter("par2", typeInteger, PASS_BY_VALUE, se);
endFunctionHeader(se, typeVoid);
closeScope();
name = "writeChar";
se = newFunction(name);
openScope();
newParameter("par1", typeChar, PASS_BY_VALUE, se);
//newParameter("par2", typeInteger, PASS_BY_VALUE, se);
endFunctionHeader(se, typeVoid);
closeScope();
name = "writeReal";
se = newFunction(name);
openScope();
newParameter("par1", typeReal, PASS_BY_VALUE, se);
newParameter("par2", typeInteger, PASS_BY_VALUE, se);
//newParameter("par3", typeInteger, PASS_BY_VALUE, se);
endFunctionHeader(se, typeVoid);
closeScope();
name = "writeString";
se = newFunction(name);
openScope();
newParameter("par1", typeIArray(typeChar), PASS_BY_REFERENCE, se);
//newParameter("par2", typeInteger, PASS_BY_VALUE, se);
endFunctionHeader(se, typeVoid);
closeScope();
/*Math builtin functions*/
name = "abs";
se = newFunction(name);
openScope();
newParameter("par", typeInteger, PASS_BY_VALUE, se);
endFunctionHeader(se, typeInteger);
closeScope();
name = "fabs";
se = newFunction(name);
openScope();
newParameter("par", typeReal, PASS_BY_VALUE, se);
endFunctionHeader(se, typeReal);
closeScope();
name = "sqrt";
se = newFunction(name);
openScope();
newParameter("par", typeReal, PASS_BY_VALUE, se);
endFunctionHeader(se, typeReal);
closeScope();
name = "sin";
se = newFunction(name);
openScope();
newParameter("par", typeReal, PASS_BY_VALUE, se);
endFunctionHeader(se, typeReal);
closeScope();
name = "cos";
se = newFunction(name);
openScope();
newParameter("par", typeReal, PASS_BY_VALUE, se);
endFunctionHeader(se, typeReal);
closeScope();
name = "tan";
se = newFunction(name);
openScope();
newParameter("par", typeReal, PASS_BY_VALUE, se);
endFunctionHeader(se, typeReal);
closeScope();
name = "arctan";
se = newFunction(name);
openScope();
newParameter("par", typeReal, PASS_BY_VALUE, se);
endFunctionHeader(se, typeReal);
closeScope();
name = "exp";
se = newFunction(name);
openScope();
newParameter("par", typeReal, PASS_BY_VALUE, se);
endFunctionHeader(se, typeReal);
closeScope();
name = "ln";
se = newFunction(name);
openScope();
newParameter("par", typeReal, PASS_BY_VALUE, se);
endFunctionHeader(se, typeReal);
closeScope();
name = "pi";
se = newFunction(name);
openScope();
endFunctionHeader(se, typeReal);
closeScope();
name = "trunc";
se = newFunction(name);
openScope();
newParameter("par", typeReal, PASS_BY_VALUE, se);
endFunctionHeader(se, typeReal);
closeScope();
name = "round";
se = newFunction(name);
openScope();
newParameter("par", typeReal, PASS_BY_VALUE, se);
endFunctionHeader(se, typeReal);
closeScope();
name = "TRUNC";
se = newFunction(name);
openScope();
newParameter("par", typeReal, PASS_BY_VALUE, se);
endFunctionHeader(se, typeInteger);
closeScope();
name = "ROUND";
se = newFunction(name);
openScope();
newParameter("par", typeReal, PASS_BY_VALUE, se);
endFunctionHeader(se, typeInteger);
closeScope();
/*End Math builtin functions*/
/*String handling builtin functions*/
name = "strlen";
se = newFunction(name);
openScope();
newParameter("par", typeIArray(typeChar), PASS_BY_REFERENCE, se);
endFunctionHeader(se, typeInteger);
closeScope();
name = "strcmp";
se = newFunction(name);
openScope();
newParameter("par1", typeIArray(typeChar), PASS_BY_REFERENCE, se);
newParameter("par2", typeIArray(typeChar), PASS_BY_REFERENCE, se);
endFunctionHeader(se, typeInteger);
closeScope();
name = "strcpy";
se = newFunction(name);
openScope();
newParameter("par1", typeIArray(typeChar), PASS_BY_REFERENCE, se);
newParameter("par2", typeIArray(typeChar), PASS_BY_REFERENCE, se);
endFunctionHeader(se, typeVoid);
closeScope();
name = "strcat";
se = newFunction(name);
openScope();
newParameter("par1", typeIArray(typeChar), PASS_BY_REFERENCE, se);
newParameter("par2", typeIArray(typeChar), PASS_BY_REFERENCE, se);
endFunctionHeader(se, typeVoid);
closeScope();
/*End String handling builtin functions*/
}
///
/// Define all (nuisance) parameters.
///
/// scan: defines scan range (for Prob and Plugin methods)
/// phys: physically allowed range (needs to be set!)
/// bboos: Ranges for Berger-Boos method
/// force: min, max used by the force fit method
///
void ParametersGammaCombo::defineParameters()
{
Parameter *p = 0;
p = newParameter("g");
p->title = "#gamma";
p->startvalue = DegToRad(70);
// p->startvalue = DegToRad(119);
p->unit = "Rad";
// p->unit = "";
p->scan = range(DegToRad(0), DegToRad(180));
p->phys = range(-7, 7);
p->force = range(DegToRad(0), DegToRad(90));
p->bboos = range(DegToRad(0), DegToRad(180));
p = newParameter("d_dk");
//p->title = "#delta_{B}^{K}";
p->title = "#delta_{B}^{DK}";
p->startvalue = DegToRad(127);
p->unit = "Rad";
p->scan = range(DegToRad(0), DegToRad(180));
p->phys = range(-7, 7);
p->force = range(DegToRad(0), DegToRad(90));
p->bboos = range(DegToRad(-180), DegToRad(180)); // B -> DK
p = newParameter("r_dk");
// p->title = "r_{B}^{K}";
p->title = "r_{B}^{DK}";
p->startvalue = 0.09;
p->unit = "";
p->scan = range(0.02, 0.2);
p->phys = range(0, 1e4);
p->force = range(0.02, 0.16);
p->bboos = range(0.01, 0.22); // B -> DK
p = newParameter("xm_dk");
p->title = "x- (DK)";
p->startvalue = 0;
p->unit = "";
p->scan = range(-0.2, 0.2);
p->phys = range(-1e4, 1e4);
p->force = range(-0.2, 0.2);
p->bboos = range(0.01, 0.22); // B -> DK
p = newParameter("ym_dk");
p->title = "y- (DK)";
p->startvalue = 0;
p->unit = "";
p->scan = range(0.0, 0.3);
p->phys = range(-1e4, 1e4);
p->force = range(-0.2, 0.2);
p->bboos = range(0.01, 0.22); // B -> DK
p = newParameter("xp_dk");
p->title = "x+ (DK)";
p->startvalue = 0;
p->unit = "";
p->scan = range(-0.2, 0.2);
p->phys = range(-1e4, 1e4);
p->force = range(-0.2, 0.2);
p->bboos = range(0.01, 0.22); // B -> DK
p = newParameter("yp_dk");
p->title = "y+ (DK)";
p->startvalue = 0;
p->unit = "";
p->scan = range(-0.2, 0.2);
p->phys = range(-1e4, 1e4);
p->force = range(-0.2, 0.2);
p->bboos = range(0.01, 0.22); // B -> DK
p = newParameter("RBRdkdpi");
p->title = "RBRdkdpi";
p->startvalue = 0.076;
p->unit = "";
p->scan = range(0.07, 0.09);
p->phys = range(0, 1e4);
p->force = range(0.07, 0.09);
p->bboos = range(0.02, 0.27); // B -> DK / B -> Dpi
p = newParameter("d_dpi");
// p->title = "#delta_{B}^{#pi}";
p->title = "#delta_{B}^{D#pi}";
p->startvalue = DegToRad(223);;
p->unit = "Rad";
// p->scan = range(DegToRad(0), DegToRad(180));
p->scan = range(DegToRad(180), DegToRad(360));
p->phys = range(-7, 7);
p->force = range(DegToRad(0), DegToRad(90));
p->bboos = range(DegToRad(-180), DegToRad(180)); // B -> Dpi
p = newParameter("r_dpi");
// p->title = "r_{B}^{#pi}";
p->title = "r_{B}^{D#pi}";
p->startvalue = 0.005;
p->unit = "";
p->scan = range(0, 0.1);
p->phys = range(0, 1e4);
p->force = range(0.001, 0.04);
p->bboos = range(0, 0.18); // B -> Dpi
p = newParameter("xm_dpi");
p->title = "x- (D#pi)";
p->startvalue = 0;
p->unit = "";
p->scan = range(-0.2, 0.2);
p->phys = range(-1e4, 1e4);
p->force = range(-0.2, 0.2);
p->bboos = range(0.01, 0.22); // B -> Dpi
p = newParameter("ym_dpi");
p->title = "y- (D#pi)";
p->startvalue = 0;
p->unit = "";
p->scan = range(0.0, 0.3);
p->phys = range(-1e4, 1e4);
p->force = range(-0.2, 0.2);
p->bboos = range(0.01, 0.22); // B -> Dpi
p = newParameter("xp_dpi");
p->title = "x+ (D#pi)";
p->startvalue = 0;
p->unit = "";
p->scan = range(-0.2, 0.2);
p->phys = range(-1e4, 1e4);
p->force = range(-0.2, 0.2);
p->bboos = range(0.01, 0.22); // B -> Dpi
p = newParameter("yp_dpi");
p->title = "y+ (D#pi)";
p->startvalue = 0;
p->unit = "";
p->scan = range(-0.2, 0.2);
p->phys = range(-1e4, 1e4);
p->force = range(-0.2, 0.2);
p->bboos = range(0.01, 0.22); // B -> Dpi
p = newParameter("d_dkpipi");
p->title = "#delta_{B}^{DK#pi#pi}";
p->startvalue = DegToRad(338);
p->unit = "Rad";
p->scan = range(DegToRad(0), DegToRad(180));
p->phys = range(-7, 7);
p->force = range(DegToRad(0), DegToRad(90));
p->bboos = range(DegToRad(-180), DegToRad(180));
p = newParameter("r_dkpipi");
p->title = "r_{B}^{DK#pi#pi}";
p->startvalue = 0.09;
p->unit = "";
p->scan = range(0.02, 0.16);
p->phys = range(0, 1e4);
p->force = range(0.02, 0.16);
p->bboos = range(0.01, 0.22);
p = newParameter("k_dkpipi");
p->title = "#kappa_{B}^{DK#pi#pi}";
p->startvalue = 0.3;
p->unit = "";
p->scan = range(0.01, 1.0);
p->phys = range(0, 1);
p->force = range(0.01, 1.5);
p->bboos = range(0.01, 1.5);
p = newParameter("d_dpipipi");
p->title = "#delta_{B}^{D#pi#pi#pi}";
p->startvalue = DegToRad(330);
p->unit = "Rad";
p->scan = range(DegToRad(0), DegToRad(180));
p->phys = range(-7, 7);
p->force = range(DegToRad(0), DegToRad(90));
p->bboos = range(DegToRad(-180), DegToRad(180));
p = newParameter("r_dpipipi");
p->title = "r_{B}^{D#pi#pi#pi}";
p->startvalue = 0.015;
p->unit = "";
p->scan = range(0.02, 0.16);
p->phys = range(0, 1e4);
p->force = range(0.02, 0.16);
p->bboos = range(0.01, 0.22);
p = newParameter("k_dpipipi");
p->title = "#kappa_{B}^{D#pi#pi#pi}";
p->startvalue = 0.3;
p->unit = "";
p->scan = range(0.01, 1.0);
p->phys = range(0, 1);
p->force = range(0.01, 1.5);
p->bboos = range(0.01, 1.5);
// B -> DKpipi / B -> Dpipipi
p = newParameter("RBRdhpipi");
p->title = "R_{cab}^{Dh#pi#pi}";
p->startvalue = 0.03;
p->unit = "";
p->scan = range(0.07, 0.09);
p->phys = range(0, 1e4);
p->force = range(0.07, 0.09);
p->bboos = range(0.02, 0.27);
// B+ -> D*K+
p = newParameter("d_dstk");
p->title = "#delta_{B}^{D*K}";
p->startvalue = DegToRad(127);
p->unit = "Rad";
p->scan = range(DegToRad(0), DegToRad(180));
p->phys = range(-7, 7);
p->force = range(DegToRad(0), DegToRad(90));
p->bboos = range(DegToRad(-180), DegToRad(180)); // B -> D*K
p = newParameter("r_dstk");
p->title = "r_{B}^{D*K}";
p->startvalue = 0.09;
p->unit = "";
p->scan = range(0.02, 0.2);
p->phys = range(0, 1e4);
p->force = range(0.02, 0.16);
p->bboos = range(0.01, 0.22); // B -> D*K
// B+ -> DK*+
p = newParameter("d_dkst");
p->title = "#delta_{B}^{DK*}";
p->startvalue = DegToRad(127);
p->unit = "Rad";
p->scan = range(DegToRad(0), DegToRad(180));
p->phys = range(-7, 7);
p->force = range(DegToRad(0), DegToRad(90));
p->bboos = range(DegToRad(-180), DegToRad(180)); // B -> DK*
p = newParameter("k_dkst");
p->title = "#kappa_{B}^{DK*}";
p->startvalue = 0.9;
p->unit = "";
p->scan = range(0, 2.5);
p->phys = range(0, 1);
p->force = range(0.001, 1);
p->bboos = range(0, 1);
p = newParameter("r_dkst");
p->title = "r_{B}^{DK*}";
p->startvalue = 0.09;
p->unit = "";
p->scan = range(0.02, 0.2);
p->phys = range(0, 1e4);
p->force = range(0.02, 0.16);
p->bboos = range(0.01, 0.22); // B -> DK*
// B0 -> D0Kst0
p = newParameter("d_dkstz");
p->title = "#delta_{D^{0}K^{*}}";
p->startvalue = DegToRad(200);
p->unit = "Rad";
p->scan = range(DegToRad(0), DegToRad(360));
p->phys = range(-7, 7);
p->force = range(DegToRad(180), DegToRad(360));
p->bboos = range(DegToRad(0), DegToRad(360)); // B0 -> D0Kst0
p = newParameter("r_dkstz");
p->title = "r_{D^{0}K^{*}}";
p->startvalue = 0.3;
p->unit = "";
p->scan = range(0, 1.);
p->phys = range(0.001, 1);
p->force = range(0.001, 0.6);
p->bboos = range(0, 1);
p = newParameter("k_dkstz");
p->title = "#kappa_{D^{0}K^{*}}";
p->startvalue = 0.9;
p->unit = "";
p->scan = range(0, 2.5);
p->phys = range(0, 1);
p->force = range(0.001, 1);
p->bboos = range(0, 1);
// B0 -> D0Kpi
//p = newParameter("d_dkpi");
//p->title = "#delta_{D^{0}K#pi}";
//p->startvalue = DegToRad(270);
//p->unit = "Rad";
//p->scan = range(DegToRad(0), DegToRad(180));
//p->phys = range(-7, 7);
//p->force = range(DegToRad(0), DegToRad(90));
//p->bboos = range(DegToRad(-180), DegToRad(180)); // B0 -> D0Kst0
//p = newParameter("r_dkpi");
//p->title = "r_{D^{0}K#pi}";
//p->startvalue = 0.3;
//p->unit = "";
//p->scan = range(0, 1.0);
//p->phys = range(0.001, 1);
//p->force = range(0.001, 0.5);
//p->bboos = range(0, 1);
// Special ratio parameters suggested by Tim
p = newParameter("delta_dkstz");
p->title = "#bar{#Delta}_{D^{0}K*^{0}}";
p->startvalue = DegToRad(0.2);
p->unit = "";
p->scan = range(DegToRad(-20), DegToRad(20));
p->phys = range(-7, 7);
p->force = range(DegToRad(-90), DegToRad(90));
p->bboos = range(DegToRad(-180), DegToRad(180)); // B0 -> D0Kst0
p = newParameter("R_dkstz");
p->title = "#bar{R}_{D^{0}K*^{0}}";
p->startvalue = 1.1;
p->unit = "";
p->scan = range(0.8, 1.2);
p->phys = range(0.001, 10.);
p->force = range(0.001, 10.0);
p->bboos = range(0, 10);
//p = newParameter("k_dkpi");
//p->title = "#kappa_{D^{0}K#pi}";
//p->startvalue = 0.9;
//p->unit = "";
//p->scan = range(0, 2.5);
//p->phys = range(0, 1);
//p->force = range(0.001, 1);
//p->bboos = range(0, 1);
// Bs -> DsK
p = newParameter("l_dsk");
// p->title = "#lambda_{D_{s}K}";
p->title = "r_{D_{s}K}";
// p->startvalue = 0.37;
p->startvalue = 0.54;
p->unit = "";
p->scan = range(0, 1.4);
p->phys = range(0, 1e4);
p->force = range(0.01, 1);
p->bboos = range(0, 1);
p = newParameter("d_dsk");
p->title = "#delta_{D_{s}K}";
// p->startvalue = DegToRad(20);
p->startvalue = DegToRad(8);
p->unit = "Rad";
p->scan = range(DegToRad(-90), DegToRad(90));
// p->scan = range(DegToRad(-70), DegToRad(290));
p->phys = range(-7, 7);
p->force = range(DegToRad(0), DegToRad(90));
p->bboos = range(DegToRad(-90), DegToRad(90));
// Bs mixing phase
p = newParameter("phis");
p->title = "#phi_{s}";
p->startvalue = 0.01;
//p->unit = "Rad"; // don't use Rad becaus phi cannot wrap around and then bring back angles messes with it
p->unit = "";
p->scan = range(-0.25, 0.25);
p->phys = range(-7, 7);
p->force = range(-0.25, 0.25);
p->bboos = range(-0.25, 0.25); // Bs -> DsK
p = newParameter("rD_kpi");
p->title = "r_{K#pi}";
p->startvalue = 0.058;
p->unit = "";
p->scan = range(0.054, 0.061);
p->phys = range(0, 1e4);
p->force = range(0.001, 0.15);
p->bboos = range(0.01, 0.21); // D -> Kpi
p = newParameter("dD_kpi");
p->title = "#delta_{K#pi}";
p->startvalue = DegToRad(188);
p->unit = "Rad";
p->scan = range(DegToRad(160), DegToRad(250));
p->phys = range(-7, 7);
p->force = range(DegToRad(150), DegToRad(250));
p->bboos = range(DegToRad(150), DegToRad(250)); // D -> Kpi
p = newParameter("rD_k3pi");
p->title = "r_{K3#pi}";
p->startvalue = 0.056;
p->unit = "";
p->scan = range(0.045, 0.065);
p->phys = range(0, 1e4);
p->force = range(0.001, 0.15);
p->bboos = range(0.01, 0.15); // D -> Kpipipi
p = newParameter("dD_k3pi");
p->title = "#delta_{K3#pi}";
// p->startvalue = DegToRad(235);
p->startvalue = DegToRad(127);
p->unit = "Rad";
p->scan = range(DegToRad(0), DegToRad(360));
p->phys = range(-7, 7);
p->force = range(DegToRad(20), DegToRad(180));
p->bboos = range(DegToRad(150), DegToRad(300)); // D -> Kpipipi
p = newParameter("kD_k3pi");
p->title = "#kappa_{K3#pi}";
p->startvalue = 0.26;
p->unit = "";
p->scan = range(0.01, 1);
p->phys = range(0, 1);
p->force = range(0.01, 0.8);
p->bboos = range(0, 1); // D -> Kpipipi
p = newParameter("rD_kpipi0");
p->title = "r_{K#pi#pi^{0}}";
p->startvalue = 0.046;
p->unit = "";
p->scan = range(0.035, 0.055);
p->phys = range(0, 1e4);
p->force = range(0.001, 0.15);
p->bboos = range(0.01, 0.15);
p = newParameter("dD_kpipi0");
p->title = "#delta_{K#pi#pi^{0}}";
p->startvalue = DegToRad(164);
p->unit = "Rad";
p->scan = range(DegToRad(0), DegToRad(360));
p->phys = range(-7, 7);
p->force = range(DegToRad(20), DegToRad(180));
p->bboos = range(DegToRad(150), DegToRad(300));
p = newParameter("kD_kpipi0");
p->title = "#kappa_{K#pi#pi^{0}}";
p->startvalue = 0.86;
p->unit = "";
p->scan = range(0.01, 1);
p->phys = range(0, 1);
p->force = range(0.01, 0.8);
p->bboos = range(0, 1);
p = newParameter("F_pipipi0");
p->title = "F_{pipi#pi^{0}}";
p->startvalue = 0.97;
p->unit = "";
p->scan = range(0,1);
p->phys = range(0,1);
p->force = range(0,1);
p->bboos = range(0,1);
p = newParameter("F_kkpi0");
p->title = "F_{KK#pi^{0}}";
p->startvalue = 0.73;
p->unit = "";
p->scan = range(0,1);
p->phys = range(0,1);
p->force = range(0,1);
p->bboos = range(0,1);
p = newParameter("F_pipipipi");
p->title = "F_{4#pi}";
p->startvalue = 0.74;
p->unit = "";
p->scan = range(0,1);
p->phys = range(0,1);
p->force = range(0,1);
p->bboos = range(0,1);
p = newParameter("BR_D_Kminus3pi");
p->title = "BF(D#rightarrowK^{-}3#pi)";
p->startvalue = 8.29e-2;
p->unit = "";
p->scan = range(0.,0.5);
p->phys = range(0, 1);
p->force = range(0.01, 0.8);
p->bboos = range(0, 1);
p = newParameter("BR_D_Kplus3pi");
p->title = "BF(D#rightarrowK^{+}3#pi)";
p->startvalue = 2.6e-4;
p->unit = "";
p->scan = range(0.,0.01);
p->phys = range(0, 1);
p->force = range(1.e-5,1.e-3);
p->bboos = range(0, 1);
p = newParameter("AcpDKK");
p->title = "#A_{CP}(D #rightarrow KK)";
p->startvalue = 0.0;
p->unit = "";
p->scan = range(-0.1, 0.1);
p->phys = range(-1, 1);
p->force = range(-0.1, 0.1);
p->bboos = range(-0.1, 0.1); // D->KK
p = newParameter("AcpDpipi");
p->title = "#A_{CP}(D #rightarrow pipi)";
p->startvalue = 0.0;
p->unit = "";
p->scan = range(-0.1, 0.1);
p->phys = range(-1, 1);
p->force = range(-0.1, 0.1);
p->bboos = range(-0.1, 0.1); // D->pipi
p = newParameter("AcpDzKstpKm");
p->title = "#A_{CP}(D^{0} #rightarrow K^{*+}K^{-})";
p->startvalue = 0.0;
p->unit = "";
p->scan = range(-0.1, 0.1);
p->phys = range(-1, 1);
p->force = range(-0.1, 0.1);
p->bboos = range(-0.1, 0.1);
p = newParameter("AcpDzKstmKp");
p->title = "#A_{CP}(D^{0} #rightarrow K^{*-}K^{+})";
p->startvalue = 0.0;
p->unit = "";
p->scan = range(-0.1, 0.1);
p->phys = range(-1, 1);
p->force = range(-0.1, 0.1);
p->bboos = range(-0.1, 0.1);
p = newParameter("rD_k2pi");
p->title = "r_{K2#pi}";
p->startvalue = 0.05;
p->unit = "";
p->scan = range(0, 0.1);
p->phys = range(0, 1e4);
p->force = range(0.001, 0.15);
p->bboos = range(0, 0.15); // CLEO
p = newParameter("kD_k2pi");
p->title = "k_{K2#pi}";
p->startvalue = 0.84;
p->unit = "";
p->scan = range(0, 1);
p->phys = range(0, 1);
p->force = range(0.01, 1);
p->bboos = range(0, 1); // CLEO
p = newParameter("dD_k2pi");
p->title = "#delta_{K2#pi}";
p->startvalue = 3.96;
p->unit = "Rad";
p->scan = range(DegToRad(0), DegToRad(360));
p->phys = range(-7, 7);
p->force = range(DegToRad(0), DegToRad(90));
p->bboos = range(DegToRad(0), DegToRad(360)); // CLEO
p = newParameter("rD_kskpi");
p->title = "r_{KSK#pi}";
p->startvalue = 0.59;
p->unit = "";
p->scan = range(0, 0.1);
p->phys = range(0, 1e4);
p->force = range(0.001, 0.15);
p->bboos = range(0, 0.15);
p = newParameter("kD_kskpi");
p->title = "k_{KSK#pi}";
p->startvalue = 1.0;
p->unit = "";
p->scan = range(0, 1);
p->phys = range(0, 1);
p->force = range(0.01, 1);
p->bboos = range(0, 1);
p = newParameter("dD_kskpi");
p->title = "#delta_{KSK#pi}";
p->startvalue = DegToRad(26.);
p->unit = "Rad";
p->scan = range(DegToRad(0), DegToRad(360));
p->phys = range(-7, 7);
p->force = range(DegToRad(0), DegToRad(90));
p->bboos = range(DegToRad(0), DegToRad(360));
p = newParameter("xD");
p->title = "x_{D}";
p->startvalue = 4.1e-03;
p->unit = "";
p->scan = range(0.002, 0.012);
p->phys = range(-1, 1);
p->force = range(0.002, 0.012);
p->bboos = range(0., 0.016); // D mixing
p = newParameter("yD");
p->title = "y_{D}";
p->startvalue = 6.3e-03;
p->unit = "";
p->scan = range(0.002, 0.012);
p->phys = range(-1, 1);
p->force = range(0.002, 0.012);
p->bboos = range(0., 0.016); // D mixing
p = newParameter("B1");
p->title = "BR(D #rightarrow K#pi)";
p->startvalue = 3.89e-02;
p->unit = "";
p->scan = range(0.0380, 0.0395);
p->phys = range(0, 1);
p->force = range(0.0380, 0.0395);
p->bboos = range(0.01, 0.05); // CLEO
p = newParameter("B3");
p->title = "BR(D #rightarrow K3#pi)";
p->startvalue = 7.96e-02;
p->unit = "";
p->scan = range(0.07, 0.09);
p->phys = range(0, 1);
p->force = range(0.07, 0.09);
p->bboos = range(0.02, 0.3); // CLEO
p = newParameter("B5");
p->title = "BR(D #rightarrow K2#pi)";
p->startvalue = 1.38e-01;
p->unit = "";
p->scan = range(0.05, 0.2);
p->phys = range(0, 1);
p->force = range(0.05, 0.2);
p->bboos = range(0.01, 0.6); // CLEO
p = newParameter("Aprod");
p->title = "Aprod(Bu)";
p->startvalue = 0.0;
p->unit = "";
p->scan = range(-0.1, 0.1);
p->phys = range(-1, 1);
p->force = range(-0.1, 0.1);
p->bboos = range(-0.1, 0.1);
p = newParameter("a_gaus");
p->title = "a_{Gaus}";
p->startvalue = 0;
p->unit = "";
p->scan = range(-2.5, 2.5);
p->phys = range(0, 1e4); // to implement a Feldman-Cousins like forbidden region, change this range and use --pr
p->force = range(-2, 4);
p->bboos = range(-2, 4);
p->free = range(-1e4, 1e4);
p = newParameter("b_gaus");
p->title = "b_{Gaus}";
p->startvalue = 0;
p->unit = "";
p->scan = range(-2, 4);
p->phys = range(-1e4, 1e4);
p->force = range(-2, 4);
p->bboos = range(-2, 4);
p = newParameter("B_k3pi_FAV");
p->title = "B(D#rightarrowK3#pi FAV)";
p->startvalue = 8.e-02;
p->unit = "";
p->scan = range(0.,1.);
p->phys = range(0.,1.);
p->force = range(0.,1.);
p->bboos = range(0.,1.);
p = newParameter("B_k3pi_SUP");
p->title = "B(D#rightarrowK3#pi SUP)";
p->startvalue = 2.65e-04;
p->unit = "";
p->scan = range(0.,1.);
p->phys = range(0.,1.);
p->force = range(0.,1.);
p->bboos = range(0.,1.);
p = newParameter("B_kpipi0_FAV");
p->title = "B(D#rightarrowK#pi#pi^{0} FAV)";
p->startvalue = 13.8e-02;
p->unit = "";
p->scan = range(0.,1.);
p->phys = range(0.,1.);
p->force = range(0.,1.);
p->bboos = range(0.,1.);
p = newParameter("B_kpipi0_SUP");
p->title = "B(D#rightarrowK#pi#pi^{0} SUP)";
p->startvalue = 3.e-04;
p->unit = "";
p->scan = range(0.,1.);
p->phys = range(0.,1.);
p->force = range(0.,1.);
p->bboos = range(0.,1.);
p = newParameter("B_kpi_FAV");
p->title = "B(D#rightarrowK#pi FAV)";
p->startvalue = 4.e-02;
p->unit = "";
p->scan = range(0.,1.);
p->phys = range(0.,1.);
p->force = range(0.,1.);
p->bboos = range(0.,1.);
p = newParameter("B_kpi_SUP");
p->title = "B(D#rightarrowK#pi SUP)";
p->startvalue = 1.5e-04;
p->unit = "";
p->scan = range(0.,1.);
p->phys = range(0.,1.);
p->force = range(0.,1.);
p->bboos = range(0.,1.);
// u and v
p = newParameter("u_dpi");
p->title = "u^{D#pi}";
p->startvalue = 0.01;
p->unit = "";
p->scan = range(-0.05,0.05);
p->phys = range(-0.1,0.1);
p->force = range(-0.1,0.1);
p->bboos = range(-0.1,0.1);
p = newParameter("v_dpi");
p->title = "v^{D#pi}";
p->startvalue = -0.01;
p->unit = "";
p->scan = range(-0.05,0.05);
p->phys = range(-0.1,0.1);
p->force = range(-0.1,0.1);
p->bboos = range(-0.1,0.1);
}