}
        }
        is FirVariableAssignment -> {
            if (fir.lValue.source?.psi == expression) {
                fir.lValue.resolvedType.asKtType()
            } else if (expression is KtUnaryExpression && expression.operationToken in KtTokens.INCREMENT_AND_DECREMENT) {
                fir.rValue.resolvedType.asKtType()
            } else {
                analysisSession.builtinTypes.unit
            }

				goto childerror
			}

			envfd = int(r1)

			r1, _, _ = RawSyscall6(SYS_PWRITE, uintptr(envfd), uintptr(unsafe.Pointer(envv[i].value)), uintptr(envv[i].nvalue),
				^uintptr(0), ^uintptr(0), 0)

			if int32(r1) == -1 || int(r1) != envv[i].nvalue {
				goto childerror
			}

			r1, _, _ = RawSyscall(SYS_CLOSE, uintptr(envfd), 0, 0)

			if int32(r1) == -1 {
				goto childerror
			}

// v.Negated).
func (v *IPTablesValue) Matches(cmp string) bool {
	if v.Negated {
		return v.Value != cmp
	} else {
		return v.Value == cmp
	}
}

// findParamField finds a field in value with the struct tag "param:${param}" and if found,
// returns a pointer to the Value of that field, and the value of its "negatable" tag.

 *  called during an active test run (checked by assertion).  This means that CUnit
 *  assertions should only be used in registered test functions during a test run.
 *
 *  @param bValue        Value of the assertion (CU_TRUE or CU_FALSE).
 *  @param uiLine        Line number of failed test statement.
 *  @param strCondition  String containing logical test that failed.

		wantParts = nParts
	}
	bvalue, err := base64.StdEncoding.DecodeString(value)
	if err != nil {
		return nil
	}
	c := Checksum{Type: alg, Encoded: value, Raw: bvalue, WantParts: wantParts}
	if !c.Valid() {
		return nil
	}
	return &c
}

// NewChecksumString returns a new checksum from specified algorithm and base64 encoded value.
func NewChecksumString(alg, value string) *Checksum {

        """
            class NamedBean implements Named {
                @Internal final String name
                @Input final String value

                NamedBean(name, value) {
                    this.name = name
                    this.value = value
                }
            }
        """
    }

//go:nosplit
func sem_wait(sem *semt) int32 {
	return int32(sysvicall1(&libc_sem_wait, uintptr(unsafe.Pointer(sem))))
}

func setitimer(which int32, value *itimerval, ovalue *itimerval) /* int32 */ {
	sysvicall3(&libc_setitimer, uintptr(which), uintptr(unsafe.Pointer(value)), uintptr(unsafe.Pointer(ovalue)))
}

//go:nosplit
//go:nowritebarrierrec
func sigaction(sig uint32, act *sigactiont, oact *sigactiont) /* int32 */ {

        result.hasOption('a')
        result.option('a').value == '1\n2\n3'
        result.option('a').values == ['1\n2\n3']
    }

    def parsesShortOptionWithEqualsCharacterInAttachedArgument() {
        parser.option('a').hasArgument()

        expect:
        def result = parser.parse(['-avalue=arg'])
        result.hasOption('a')
        result.option('a').value == 'value=arg'
        result.option('a').values == ['value=arg']

        if (opLambda != null) {
            opLambda.callback(builder);
        }
    }

    public void setValue_LessEqual(String value) {
        setValue_LessEqual(value, null);
    }

    public void setValue_LessEqual(String value, ConditionOptionCall<RangeQueryBuilder> opLambda) {
        final Object _value = value;
        RangeQueryBuilder builder = regRangeQ("value", ConditionKey.CK_LESS_EQUAL, _value);

			if err := binary.Read(sr, binary.BigEndian, se); err != nil {
				return nil, err
			}
			numaux = int(se.Nnumaux)
			sym.SectionNumber = int(se.Nscnum)
			sym.StorageClass = int(se.Nsclass)
			sym.Value = uint64(se.Nvalue)
			needAuxFcn = se.Ntype&SYM_TYPE_FUNC != 0 && numaux > 1
			zeroes := binary.BigEndian.Uint32(se.Nname[:4])
			if zeroes != 0 {
				sym.Name = cstring(se.Nname[:])
			} else {