Abstract: Systems and methods relate to predicting disease progression by processing digital pathology images using neural networks. A digital pathology image that depicts a specimen stained with one or more stains is accessed. The specimen may have been collected from a subject. A set of patches are defined for the digital pathology image. Each patch of the set of patches depicts a portion of the digital pathology image. For each patch of the set of patches and using an attention-score neural network, an attention score is generated. The attention-score neural network may have been trained using a loss function that penalized attention-score variability across patches in training digital pathology images labeled to indicate no or low subsequent disease progression. Using a result-prediction neural network and the attention scores, a result is generated that represents a prediction of whether or an extent to which a disease of the subject will progress.

Abstract: A method is presented that reduces vibrations of a wind turbine in a situation where yawing of a wind rotor of said wind turbine is at least temporarily not possible. The method includes adjusting a first pitch angle of a first rotor blade and a second pitch angle of a second rotor blade such that the first and second pitch angles differ by at least 30 degrees.

Abstract: The transport device for an elongate object, e.g. for a rotor blade for a wind turbine, comprises a support surface for the elongate object, comprising a front end and a rear end, means for pivoting the elongate object from a substantially horizontal orientation into at least one inclined orientation arranged obliquely relative to the substantially horizontal orientation, and means for changing the distance between the ends of the support surface as viewed in the vertical projection of the support surface, wherein, if the elongate object is arranged in the substantially horizontal orientation, the ends of the support surface are spaced apart a first distance value, and, if the elongate object is arranged in the at least one inclined orientation, the ends of the support surface are spaced apart a second distance value which is smaller than the first distance value.

Abstract: A method is presented that reduces vibrations of a wind turbine in a situation where yawing of a wind rotor of said wind turbine is at least temporarily not possible. The method includes adjusting a first pitch angle of a first rotor blade and a second pitch angle of a second rotor blade such that the first and second pitch angles differ by at least 30 degrees.

Abstract: A method for event monitoring for a wind turbine is described. The method includes measuring a first signal pattern representing a characteristic selected from a characteristic group, the characteristic group consisting of: a mechanical characteristic of a wind turbine, emitted noise of a wind turbine, emitted noise of a part of a wind turbine; power output of a wind turbine, surface conductivity of parts of a wind turbine, operational data of a wind turbine, temperature of parts of a wind turbine, outside temperature, wind velocity, wind direction, and outside air humidity or other weather conditions; measuring at least a second signal pattern representing a different characteristic selected from the characteristic group; analyzing the first and the second signal pattern or a combination of the first and the second analyzed signal pattern with an analyzing method, wherein analyzed data is generated; and evaluating the analyzed data, wherein the evaluation provides a result indicative for an event.

Abstract: A device for driving a first part of a wind turbine with respect to a second part of the wind turbine includes a driving element for engagement with the first part. The device also includes a driving unit including a housing to be fixedly connected to the second part, a motive generation means for generating motion of the motive element, and a motion transferring means for transferring the motion of the motive element to the driving element; and at least one slip coupling arranged between at least one of the motive element of the driving unit and the motion transferring means, the motion transferring means and the driving element, and within the motion transferring means, wherein the slip coupling is adjusted to slip if a torque acting on the slip coupling due to a movement force acting on the driving element exceeds a predetermined maximum torque.

Abstract: A cooling device for a wind turbine is provided, the cooling device including at lease one liquid-tight tube which is partially filled with a liquid coolant, wherein one end of the tube is located in a first area and another end of the tube is located in a second area, the first and second areas having different temperatures when operating the wind turbine.

Abstract: A method for event monitoring for a wind turbine is described. The method includes measuring a first signal pattern representing a characteristic selected from a characteristic group, the characteristic group consisting of: a mechanical characteristic of a wind turbine, emitted noise of a wind turbine, emitted noise of a part of a wind turbine; power output of a wind turbine, surface conductivity of parts of a wind turbine, operational data of a wind turbine, temperature of parts of a wind turbine, outside temperature, wind velocity, wind direction, and outside air humidity or other weather conditions; measuring at least a second signal pattern representing a different characteristic selected from the characteristic group; analyzing the first and the second signal pattern or a combination of the first and the second analyzed signal pattern with an analyzing method, wherein analyzed data is generated; and evaluating the analyzed data, wherein the evaluation provides a result indicative for an event.

Abstract: A cooling device for a wind turbine is provided, the cooling device including at lease one liquid-tight tube which is partially filled with a liquid coolant, wherein one end of the tube is located in a first area and another end of the tube is located in a second area, the first and second areas having different temperatures when operating the wind turbine.

Abstract: A device for driving a first part of a wind energy turbine with respect to a second part of the wind energy turbine said device, comprising a driving element (18) for driving engagement with the first part; a driving unit (22) comprising a housing (24) to be fixedly connected to the second part, a motive generation means (34) for generating motion of the motive element (30), and a motion transferring means (28) for transferring the motion of said motive element (30) to said driving element (18); and at least one slip coupling (38) arranged between at least one of said motive element (30) of said driving unit (22) and said motion transferring means, (28) said motion transferring means (28) and said driving element, (18) and within said motion transferring means (28), wherein said slip coupling (38) is adjusted to slip if a torque acting on said slip coupling (38) due to a movement force acting on said driving element (18) exceeds a predetermined maximum torque so as to prevent elements of said driving unit (16

Abstract: The transport device for an elongate object, e.g. for a rotor blade for a wind turbine, comprises a support surface for the elongate object, comprising a front end and a rear end, means for pivoting the elongate object from a substantially horizontal orientation into at least one inclined orientation arranged obliquely relative to the substantially horizontal orientation, and means for changing the distance between the ends of the support surface as viewed in the vertical projection of the support surface, wherein, if the elongate object is arranged in the substantially horizontal orientation, the ends of the support surface are spaced apart a first distance value, and, if the elongate object is arranged in the at least one inclined orientation, the ends of the support surface are spaced apart a second distance value which is smaller than the first distance value.