package org.gradle.internal.jacoco.rules;

import org.gradle.testing.jacoco.tasks.rules.JacocoLimit;

import java.math.BigDecimal;

public class JacocoLimitImpl implements JacocoLimit {

    private String counter = "INSTRUCTION";
    private String value = "COVEREDRATIO";
    private BigDecimal minimum;
    private BigDecimal maximum;

    @Override
    public String getCounter() {
        return counter;
    }

    @Override

//    descheduled, blocked on synchronization, or in a system call.
//
// 2. Synchronous safe-points occur when a running goroutine checks
//    for a preemption request.
//
// 3. Asynchronous safe-points occur at any instruction in user code
//    where the goroutine can be safely paused and a conservative
//    stack and register scan can find stack roots. The runtime can
//    stop a goroutine at an async safe-point using a signal.
//

	bt.frac += x
	if u > bt.frac {
		bt.sec++
	}
}

var (
	// binuptimeDummy is used in binuptime as the address of an atomic.Load, to simulate
	// an atomic_thread_fence_acq() call which behaves as an instruction reordering and
	// memory barrier.
	binuptimeDummy uint32

	zeroBintime bintime
)

// based on /usr/src/lib/libc/sys/__vdso_gettimeofday.c
//
//go:nosplit
func binuptime(abs bool) (bt bintime) {

	size  int8   // Text space in bytes to lay operation

	// A prefixed instruction is generated by this opcode. This cannot be placed
	// across a 64B PC address. Opcodes should not translate to more than one
	// prefixed instruction. The prefixed instruction should be written first
	// (e.g when Optab.size > 8).
	ispfx bool

	asmout func(*ctxt9, *obj.Prog, *Optab, *[5]uint32)
}

	// Transform the PC-relative instruction into a constant load.
	// That is,
	//
	//	MOVQ X(IP), REG  ->  MOVQ $Y, REG
	//
	// To determine the instruction and register, we study the op codes.
	// Consult an AMD64 instruction encoding guide to decipher this.
	if off < 3 {
		log.Fatal("R_X86_64_GOTTPOFF reloc not preceded by MOVQ or ADDQ instruction")
	}
	op := P[off-3 : off]
	reg := op[2] >> 3

		if !ok {
			break
		}
		scratch = operands

		if p.pseudo(word, operands) {
			continue
		}
		i, present := p.arch.Instructions[word]
		if present {
			p.instruction(i, word, cond, operands)
			continue
		}
		p.errorf("unrecognized instruction %q", word)
	}
	if p.errorCount > 0 {
		return nil, false
	}
	p.patch()
	return p.firstProg, true
}

// Specifically, this is the PC of the last instruction executed in this frame.
//
// If this frame did a normal call, then frame.pc is a return PC, so this will
// return frame.pc-1, which points into the CALL instruction. If the frame was
// interrupted by a signal (e.g., profiler, segv, etc) then frame.pc is for the
// trapped instruction, so this returns frame.pc. See issue #34123. Finally,

The `_api/v2/api_packages.txt` file is created during the process of generating
TensorFlow API v2 init files and is stored in the wheel file after the build.

See README.md file for "how to run" instruction.
"""

import logging
import unittest
import pkg_resources

logging.basicConfig(level=logging.INFO)


class ImportApiPackagesTest(unittest.TestCase):

			}
			if asmMentionBP.MatchString(line) { // any other use of BP might be a read, so function is OK
				active = false
				continue
			}
			if asmControlFlow.MatchString(line) { // give up after any branch instruction
				active = false
				continue
			}
		}
	}
	return nil, nil

}, {
	desc: "proc instruction",
	toks: []Token{
		ProcInst{"Target", []byte("Instruction")},
	},
	want: `<?Target Instruction?>`,
}, {
	desc: "proc instruction with empty target",
	toks: []Token{
		ProcInst{"", []byte("Instruction")},
	},
	err: "xml: EncodeToken of ProcInst with invalid Target",
}, {
	desc: "proc instruction with bad content",
	toks: []Token{