diff --git a/mypy/checker.py b/mypy/checker.py
--- a/mypy/checker.py
+++ b/mypy/checker.py
@@ -409,6 +409,11 @@ def __init__(
         # of giving a note on possibly missing "await". It is used to avoid infinite recursion.
         self.checking_missing_await = False
 
+        # While this is True, allow passing an abstract class where Type[T] is expected.
+        # although this is technically unsafe, this is desirable in some context, for
+        # example when type-checking class decorators.
+        self.allow_abstract_call = False
+
     @property
     def type_context(self) -> List[Optional[Type]]:
         return self.expr_checker.type_context
@@ -2027,9 +2032,12 @@ def visit_class_def(self, defn: ClassDef) -> None:
 
                     # TODO: Figure out how to have clearer error messages.
                     # (e.g. "class decorator must be a function that accepts a type."
+                    old_allow_abstract_call = self.allow_abstract_call
+                    self.allow_abstract_call = True
                     sig, _ = self.expr_checker.check_call(
                         dec, [temp], [nodes.ARG_POS], defn, callable_name=fullname
                     )
+                    self.allow_abstract_call = old_allow_abstract_call
                 # TODO: Apply the sig to the actual TypeInfo so we can handle decorators
                 # that completely swap out the type.  (e.g. Callable[[Type[A]], Type[B]])
         if typ.is_protocol and typ.defn.type_vars:
diff --git a/mypy/checkexpr.py b/mypy/checkexpr.py
--- a/mypy/checkexpr.py
+++ b/mypy/checkexpr.py
@@ -1914,6 +1914,7 @@ def check_arg(
             and (caller_type.type_object().is_abstract or caller_type.type_object().is_protocol)
             and isinstance(callee_type.item, Instance)
             and (callee_type.item.type.is_abstract or callee_type.item.type.is_protocol)
+            and not self.chk.allow_abstract_call
         ):
             self.msg.concrete_only_call(callee_type, context)
         elif not is_subtype(caller_type, callee_type, options=self.chk.options):

diff --git a/test-data/unit/check-abstract.test b/test-data/unit/check-abstract.test
--- a/test-data/unit/check-abstract.test
+++ b/test-data/unit/check-abstract.test
@@ -1018,3 +1018,15 @@ d = my_abstract_types['B']()  # E: Cannot instantiate abstract class "MyAbstract
 d.do()
 
 [builtins fixtures/dict.pyi]
+
+[case testAbstractClassesWorkWithGenericDecorators]
+from abc import abstractmethod, ABCMeta
+from typing import Type, TypeVar
+
+T = TypeVar("T")
+def deco(cls: Type[T]) -> Type[T]: ...
+
+@deco
+class A(metaclass=ABCMeta):
+    @abstractmethod
+    def foo(self, x: int) -> None: ...

abstract dataclass inheritance gives `Only concrete class can be given where "Type[Abstract]" is expected`
mypy 0.620, `--strict`.

Sample code:

```python3
import abc
from dataclasses import dataclass


@dataclass  # error: Only concrete class can be given where "Type[Abstract]" is expected
class Abstract(metaclass=abc.ABCMeta):
    a: str

    @abc.abstractmethod
    def c(self) -> None:
        pass


@dataclass
class Concrete(Abstract):
    b: str

    def c(self) -> None:
        pass


instance = Concrete(a='hello', b='world')
```

Note that this error *only* occurs if at least one abstract method is defined on the abstract class. Removing the abstract method `c` (or making it non-abstract) makes the error go away.

What if you remove the meta class?

On Wed, Jul 18, 2018 at 9:01 PM Jonas Obrist <notifications@github.com>
wrote:

> mypy 0.620, --strict.
>
> Sample code:
>
> import abcfrom dataclasses import dataclass
>
> @dataclass  # error: Only concrete class can be given where "Type[Abstract]" is expectedclass Abstract(metaclass=abc.ABCMeta):
>     a: str
>
>     @abc.abstractmethod
>     def c(self) -> None:
>         pass
>
> @dataclassclass Concrete(Abstract):
>     b: str
>
>     def c(self) -> None:
>         pass
>
>
> instance = Concrete(a='hello', b='world')
>
> Note that this error *only* occurs if at least one abstract method is
> defined on the abstract class. Removing the abstract method c (or making
> it non-abstract) makes the error go away.
>
> —
> You are receiving this because you are subscribed to this thread.
> Reply to this email directly, view it on GitHub
> <https://github.com/python/mypy/issues/5374>, or mute the thread
> <https://github.com/notifications/unsubscribe-auth/ACwrMmnqdQS-PT-Ppma35aXOsPpD6X7vks5uIASAgaJpZM4VVt0v>
> .
>
-- 
--Guido (mobile)

Removing the metaclass still triggers it. Minimal code to get that error:

```python3
import abc
from dataclasses import dataclass

@dataclass
class Abstract:
    @abc.abstractmethod
    def c(self) -> None:
        pass
```
The underlying cause is this:
```python
from typing import Type, TypeVar
from abc import abstractmethod

T = TypeVar('T')

class C:
    @abstractmethod
    def f(self) -> None: ...

def fun(x: Type[T]) -> Type[T]: ...

fun(C)
```
A possible simple solution is to type `dataclass` in typeshed as roughly `(S) -> S` with `S = TypeVar('S', bound=Type[Any])`. Another option is to consider relaxing the restriction that mypy has for `Type[T]` with abstract classes, but I am not sure where to draw the line.
Lifting this constraint would be great for fetching implementations to interfaces (abstracts/protocols).

```python
T_co = TypeVar('T_co', covariant=True)

def register(interface: Type[T_co], implementation: Type[T_co]) -> Type[T_co]: ...
def inject(interface: Type[T_co]) -> T_co: ...
```
Just a bit of context why this is prohibited: mypy always allows _instantiation_ of something typed as `Type[...]`, in particular of function arguments, for example:
```python
from typing import Type, TypeVar
from abc import abstractmethod

T = TypeVar('T')

class C:
    @abstractmethod
    def f(self) -> None: ...

def fun(x: Type[T]) -> T: ...
    return x()  # mypy allows this, since it is a very common pattern

fun(C)  # this fails at runtime, and it would be good to catch it statically,
        # what we do currently
```
I am still not sure what is the best way to proceed here. Potentially, we can only prohibit this if original function argument (or its upper bound) is abstract (so function actually expects implementations to be passed). This will be a bit unsafe, but more practical, as all examples provided so far would pass.
> Another option is to consider relaxing the restriction that mypy has for `Type[T]` with abstract classes, but I am not sure where to draw the line.

I'm leaning towards allowing abstract classes to be used without restriction. `Type[x]` is already unsafe since `__init__` can be overriden with a different signature, and I expect that the extra unsafety from allowing abstract classes would be marginal in  practice. We just need to document the potential issues clearly.
> I'm leaning towards allowing abstract classes to be used without restriction. [...] We just need to document the potential issues clearly.

This will be false negative, so probably OK.
Sorry to bother, but is there some ETA on this issue?
There is no concrete work planned for this issue yet, we are focusing on high-priority issues.
I'm having a similar error and I don't know if it's the same problem or a different, related problem (or perhaps I'm doing something wrong), related to abstract classes and Attrs.

I have this abstract class: https://github.com/eventbrite/pymetrics/blob/ab608978/pymetrics/recorders/base.py#L38-L39

Then I have this constant:
```python
_DEFAULT_METRICS_RECORDER = NoOpMetricsRecorder()  # type: MetricsRecorder
```

And this Attrs class:

```python
@attr.s
@six.add_metaclass(abc.ABCMeta)
class RedisTransportCore(object):
    ...
    metrics = attr.ib(
        default=_DEFAULT_METRICS_RECORDER,
        validator=attr.validators.instance_of(MetricsRecorder),
    )  # type: MetricsRecorder
```

On the line with `attr.validators.instance_of`, I'm getting this error:

```
error: Only concrete class can be given where "Type[MetricsRecorder]" is expected
```

What's interesting is that this only happens with today's released Attrs 19.2.0 and last week's released MyPy 0.730. If I downgrade to Attrs 19.1.0 and keep the latest MyPy, the error goes away. If I downgrade to MyPy 0.720 and keep the latest Attrs, the error goes away.

I'm able to get around the problem by adding `# type: ignore` at the end of the line with `attr.validators.instance_of`, so I'm good for now, but I would like to know if I need to file a separate issue or if this is related or if this is a bug with Attrs.
This is really sad, given that dataclasses are being pushed as a go-to class container in 3.7+, having abstract dataclasses is not such a rare occasion. But mypy in the current state basically prohibits using it.

Given that this issue is 1.5 years old, wonder if there's any known workarounds?
Marking as high priority, since there seems to be quite a lot of interest in getting this fixed.
Depending on your needs, for a temporary workaround, you can do the following, which type checks with `--strict`.

```python
import abc
import dataclasses


class AbstractClass(abc.ABC):
    """An abstract class."""

    @abc.abstractmethod
    def method(self) -> str:
        """Do something."""


@dataclasses.dataclass
class DataClassMixin:
    """A dataclass mixin."""

    spam: str


class AbstractDataClass(DataClassMixin, AbstractClass):
    """An abstract data class."""


@dataclasses.dataclass
class ConcreteDataClass(AbstractDataClass):
    """A concrete data class."""

    eggs: str

    def method(self) -> str:
        """Do something."""
        return "{} tastes worse than {}".format(self.spam, self.eggs)


print(ConcreteDataClass("spam", "eggs").method())
# -> "spam tastes worse than eggs"
```
Similar to @cybojenix, we would be very happy if `mypy` could support service locator patterns similar to the following (the code for which works, but does not pass `mypy` type checks for want of a concrete class.)

```python
from typing import Any, Dict, TypeVar, Type
from typing_extensions import Protocol

ServiceType = TypeVar("ServiceType")

registrations: Dict[Any, Any] = {}
def register(t: Type[ServiceType], impl: ServiceType) -> None:
    registrations[t] = impl

def locate(t: Type[ServiceType]) -> ServiceType:
    return registrations[t]


class ThingService(Protocol):
    def serve(str) -> str:
        pass

class ThingImpl(ThingService):
    def serve(str) -> str:
        return "fish"


register(ThingService, ThingImpl())
thing: ThingService = locate(ThingService)
print(thing.serve())
```
Interestingly, the given rationale of not allowing abstract classes ("mypy always allows instantiation of something typed as Type[...], in particular of function arguments"), does not seem to match its implementation, as classes based on `abc.ABC` cannot be instantiated, but code using only this actually pass the `mypy` check, whereas classes with `@abstractmethod`s *can* be instantiated, but classes using those trigger the false positives discussed in this issue.

To elaborate (and give another example to possibly test a fix against later), the following code uses only `@abstractmethod`s and triggers the false positive:
```python
from abc import ABC, abstractmethod
from typing import List, Type, TypeVar

AB = TypeVar("AB", "A", "B")  # Could be A or B (Union)

class A:
    @abstractmethod
    def snork(self):
        pass
class B:
    @abstractmethod
    def snork(self):
        pass

class oneA(A):
    pass
class anotherA(A):
    pass
class someB(B):
    pass

def make_objects(of_type: Type[AB]) -> List[AB]:
    return [cls() for cls in of_type.__subclasses__()]

if __name__ == "__main__":
    print(make_objects(A))
    print(make_objects(B))
```

Removing the two `@abstractmethod` decorators and changing `class A:` and `class B:` to `class A(ABC):` and `class B(ABC):` actually passes `mypy`'s check without errors.
Running into the same issue.
Similar to @ToBeReplaced, workaround I've been using:

```python
@dataclass
class _AbstractDataclass:
    id: int

class AbstractDataclass(_AbstractDataclass, abc.ABC):
    @abc.abstractmethod
    def c(self) -> None:
        pass
```
Another use-case which also doesn't work due to this limitation is the adapter pattern using typing Protocols.

i.e.:

```
from typing import Protocol, TypeVar, Type

T = TypeVar('T')

class IFoo(Protocol):

    def foo(self) -> str:
        pass

class Adaptable(object):

    def get_adapter(self, class_: Type[T]) -> T:
        ...

def some_call(adaptable: Adaptable) -> None:
    foo = adaptable.get_adapter(IFoo)
```
This is  over 2 years old, and 0.800 just started doing a better job at finding these cases which resulted with a wall of errors in my project. Thanks, mypy. :(
@mkielar could you give concrete examples of code that started erroring? Perhaps we can easily fix the regression.
@JelleZijlstra 

My production code cut to be smaller:
```python
import dataclasses as dc
from abc import ABCMeta, abstractmethod


@dc.dataclass(frozen=True)
class CanaryConfiguration(metaclass=ABCMeta):
    @abstractmethod
    def is_fast_track(self) -> bool:
        """
        """


@dc.dataclass(frozen=True)
class CanaryConfigurationEcs(CanaryConfiguration):

    def is_fast_track(self) -> bool:
        return True


@dc.dataclass(frozen=True)
class Canary:
    configuration: CanaryConfiguration


def test_me() -> bool:
    c: Canary = Canary(CanaryConfigurationEcs())
    return c.configuration.is_fast_track()
```

Console output: 
```bash
→ mypy --version
mypy 0.800
→ mypy test.py
test.py:5: error: Only concrete class can be given where "Type[CanaryConfiguration]" is expected
Found 1 error in 1 file (checked 1 source file)
```

In actual code it additionally complains that the `return` statement in `test_me()` returns `Any` instead of  `bool` but somehow if I cut the business logic I can no longer reproduce it.
Adding one more (hopefully) valid use case

```python
from dataclasses import dataclass, fields, is_dataclass
from typing import Protocol, Optional, cast

@dataclass
class MyConfig:
    v1: str
    v2: 'Optional[str]' = None

@dataclass
class GlobalConfig:
    MyConfig: MyConfig

class SourceList(Protocol):
    def get(self, key: str) -> str:
        pass

class ConfigProtocol(Protocol):  # this is one option, but just being able to type check dataclass would be fine
    __dataclass_fields__: dict

class Configuration:
    def __init__(
        self,
        source_list: SourceList,
        config_class: ConfigProtocol = GlobalConfig
    ):
        self._config_sources = source_list

        for f in fields(self._config_class):
            if is_dataclass(f.type):
                setattr(
                    self,
                    f.name,
                    Configuration(
                        source_list=source_list,
                        config_class=cast(ConfigProtocol, f.type)
                    )
                )

    def __getattr__(self, name):
        if value := self._config_sources.get(name):
            return value
        raise AttributeError()
```
mypy output:
```
> mypy --version
mypy 0.800
> mypy test.py 
test.py:24: error: Incompatible default for argument "config_class" (default has type "Type[GlobalConfig]", argument has type "ConfigProtocol")
Found 1 error in 1 file (checked 1 source file)
```

Define dataclasses for config objects in modules and sub-modules, which can be instantiated and used directly, or as shown here, used as templates to build a more complex config class.  
Minimal example similar to @mkielar's but with structural subtyping

```
from dataclasses import dataclass
from typing import Protocol

@dataclass(frozen=True)
class Large:
    x: int
    y: int

@dataclass(frozen=True)
class Small(Protocol):
    x: int

def f(x: Small) -> Small:
    ...

f(Large(1, 2))
```

It starts to work when you remove `(frozen=True)`. What's strange, is that it does not work with `@dataclass()` but works with `@dataclass`, while they are equivalent according to docs
@Tomatosoup97, the fact that mypy inconsistently flags this as an error based on the form of `dataclass` looks like a bug that should probably be reported separately.

I wouldn't expect your sample to type check with any form of `dataclass` because `Small` and `Large` have incompatible `__init__` types. With `dataclass`, the `__init__` method is synthesized based on the defined dataclass fields, and the `__init__` method needs to be considered when checking for structural subtype compatibility. Because of this, `Large` is not type compatible with the `Small` protocol.
@erictraut right, thanks for noting this, I have reported it separately as I didn't find any already existing issue: #10849 

As for the expected failure - do you know any other way then to do achieve such structural subtyping, focused on fields? I guess I could just define a bunch of `@property`s but that seems a bit cumbersome
@Tomatosoup97, you could remove the `@dataclass` designator from the protocol. That type checks without errors if the dataclass isn't frozen.

```python
@dataclass
class Large:
    x: int
    y: int

class Small(Protocol):
    x: int
```

If the dataclass is frozen, mypy will fail the protocol check because `x` is read-only in the dataclass but not in the protocol. I would expect that you could specify the field to be `Final` in the protocol, indicating that it's read-only. That should pass type checking, but mypy emits an error in this case still. Pyright is fine with this.

```python
@dataclass(frozen=True)
class Large:
    x: int
    y: int

class Small(Protocol):
    x: Final[int] = 0
```

This documentation is incomplete -- it doesn't mention that the `Type` annotation must represent a concrete class (and not an abstract one): https://mypy.readthedocs.io/en/stable/kinds_of_types.html#the-type-of-class-objects

There are multi-year-old StackOverflow questions on this subject: https://stackoverflow.com/questions/48349054/how-do-you-annotate-the-type-of-an-abstract-class-with-mypy

I personally have a case like the one mentioned on StackOverflow:
```python
from typing import Type, TypeVar


_T = TypeVar("_T")


def _list_implementations(which: Type[_T]) -> Set[Type[_T]]:
    """
    1. Get the fully-qualified name of the class
    2. See if the necessary inputs are declared in any of our config files to construct a concrete implementation of it
    3. Return a list of the concrete subclasses that are available in the config files so we can determine priority and construct it

    My caller may indeed want to pass an abstract class which they require an implementation of.
    """
    pass

def get_implementation(which: Type[_T]) -> _T:
    available_impls = _list_implementations(which)
    # get the priority of each class from a classmethod
    # load the one with the highest priority
    return highest_priority_class
```

Is `mypy` open to adjusting its interpretation here, or perhaps providing another type annotation which would accept abstract classes?
@uberblah, I think your problem relates more to #4717.
@Rahix Agreed, thanks for the pointer! The people there are having exactly the same issue I am.
> I'm leaning towards allowing abstract classes to be used without restriction. `Type[x]` is already unsafe since `__init__` can be overriden with a different signature, and I expect that the extra unsafety from allowing abstract classes would be marginal in practice. We just need to document the potential issues clearly.

@JukkaL 

Do you still think this? Should disabling this be tossed behind a flag, or just completely be deleted?
For anyone reading this, I've solved it by getting rid of `abstractmethod`, we can just throw exception in the property:
```python
@property
    def prop(self) -> Any:
        raise NotImplemented
```
We lose IDE check here, because we can instantiate a class, but calling the property at runtime will throw the exception, which should be fine in most of cases.
@AlexanderPodorov It kind of defeats the purpose of type hinting and static checks if you rely on runtime errors. The point of `@abstractmethod` is to be able to tell statically when somebody tries to instantiate an abstract class.
I'm seeing the same issue with an abstract class wrapped by `@functools.total_ordering`. If you have something of the form:

```python
@functools.total_ordering
class Student(abc.ABC):
    << cutting total_ordering implementation >> 
    
    @abc.abstract_method
    def get_record(self):
        pass
    
class NewStudent(Student):
    def get_record(self) -> str:
        return f"{self.lastname}, {self.firstname}"
```
it fails mypy with ` error: Only concrete class can be given where "Type[Student]" is expected`. Full reproducible example [here](https://gist.github.com/chrishavlin/dc0641da01df08b6df0d0f3cfc0689b0) (not worth cluttering the discussion here with the `total_ordering` implementation). It only errors if both `total_ordering` and `abstract_method` are used. (Edit: I'm fine adding ` type: ignore[misc]` to the `@functools.total_ordering` line, just thought it was worth mentioning the occurrence in this thread). 

Hi! Does anyone have an update or simple workaround for this?
mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testAbstractClassAsTypeObject mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testInstantiatingAbstractClass mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testInstantiationAbstractsInTypeForAliases mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testAbstractClassSubclasses mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testInstantiatingClassWithInheritedAbstractMethod mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testInstantiationAbstractsInTypeForVariables mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testAbstractClassInCasts mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testInstantiationAbstractsInTypeForFunctions mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testAbstractClassSubtypingViaExtension mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testInstantiationAbstractsInTypeForClassMethods mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testInstantiatingClassThatImplementsAbstractMethod mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testInvalidOverridingAbstractMethod mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testInheritingAbstractClassInSubclass mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testAbstractClassWithAllDynamicTypes mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testInstantiatingClassWithInheritedAbstractMethodAndSuppression mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testAbstractClassCoAndContraVariance mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testAbstractClassWithAllDynamicTypes2 mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testMemberAccessWithMultipleAbstractBaseClasses mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testImplementingAbstractMethod mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testAbstractClassWithImplementationUsingDynamicTypes mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testInstantiatingAbstractClassWithMultipleBaseClasses mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testImplementingAbstractMethodWithMultipleBaseClasses mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testAccessingAbstractMethod mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testMultipleAbstractBases mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testInconsistentMro mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testImplementingAbstractMethodWithExtension mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testAccessingInheritedAbstractMethod mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testOverloadedAbstractMethodVariantMissingDecorator1 mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testOverloadedAbstractMethod mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testMultipleInheritanceAndAbstractMethod2 mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testAbstractOperatorMethods1 mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testMultipleInheritanceAndAbstractMethod mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testCallAbstractMethodBeforeDefinition mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testOverloadedAbstractMethodWithAlternativeDecoratorOrder mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testAbstractOperatorMethods2 mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testAbstractClassWithAnyBase mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testReadOnlyAbstractPropertyForwardRef mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testOverloadedAbstractMethodVariantMissingDecorator0 mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testReadWriteAbstractProperty mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testReadOnlyAbstractProperty mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testInstantiateClassWithReadOnlyAbstractProperty mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testInstantiateClassWithReadWriteAbstractProperty mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testImplementAbstractPropertyViaProperty mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testImplementReradWriteAbstractPropertyViaProperty mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testImplementAbstractPropertyViaPropertyInvalidType mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testCantImplementAbstractPropertyViaInstanceVariable mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testSuperWithAbstractProperty mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testSuperWithReadWriteAbstractProperty mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testOnlyImplementGetterOfReadWriteAbstractProperty mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testDynamicallyTypedReadOnlyAbstractPropertyForwardRef mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testDynamicallyTypedReadWriteAbstractProperty mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testMixinTypedAbstractProperty mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testDynamicallyTypedReadOnlyAbstractProperty mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testMixinTypedProperty mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testMixinSubtypedProperty mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testMixinTypedPropertyReversed mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testNestedAbstractClass mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testSubclassOfABCFromDictionary mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testAbstractNewTypeAllowed
mypy/test/testcheck.py::TypeCheckSuite::check-abstract.test::testAbstractClassesWorkWithGenericDecorators