Abstract: A method for repairing a pocket of a case for a variable stator assembly may comprise: receiving, via a processor, a plurality of wear depths, each wear depth in the plurality of wear depths corresponding to a wear portion in a stator pocket in a plurality of stator pockets; determining, via the processor, a plurality of thicknesses of a coating to be deposited based on the plurality of wear depths, each thickness of the coating in the plurality of thicknesses corresponding to the wear portion for each stator pocket in the plurality of stator pockets; and commanding, via the processor, a coating spray torch to deposit the coating in the wear portion of each stator pocket in the plurality of stator pockets.

Abstract: Provided herein are methods of treating cancer in a subject, wherein the cancer is extrachromosomal DNA-positive (ecDNA-positive) or therapeutically resistant, the method comprising administering to the subject a therapeutically effective amount of a replication stress (RS) pathway agent alone or in combination with a targeted therapeutic.

Abstract: Provided herein are methods of treating cancer in a subject, wherein the cancer is extrachromosomal DNA-positive (ecDNA-positive) or therapeutically resistant, the method comprising administering to the subject a therapeutically effective amount of a replication stress (RS) pathway agent alone or in combination with a targeted therapeutic.

Abstract: Methods and systems for quantitation of features of interest (e.g., extrachromosomal DNA) in whole slide images are disclosed herein. One or more methods and systems described herein are used to reduce bias in the quantitation of the features of interest.

Abstract: Provided herein are methods and systems for detecting ecDNA positive cancers and methods and systems for developing signatures of ecDNA positive cancers.

Abstract: Provided herein are methods of treating cancer in a subject, wherein the cancer is extrachromosomal DNA-positive (ecDNA-positive) or therapeutically resistant, the method comprising administering to the subject a therapeutically effective amount of a replication stress (RS) pathway agent alone or in combination with a targeted therapeutic.

Abstract: Provided herein are methods of treating cancer in a subject, wherein the cancer is extrachromosomal DNA-positive (ecDNA-positive) or therapeutically resistant, the method comprising administering to the subject a therapeutically effective amount of a replication stress (RS) pathway agent alone or in combination with a targeted therapeutic.

Abstract: A method for repairing a pocket of a case for a variable stator assembly may comprise: receiving, via a processor, a plurality of wear depths, each wear depth in the plurality of wear depths corresponding to a wear portion in a stator pocket in a plurality of stator pockets; determining, via the processor, a plurality of thicknesses of a coating to be deposited based on the plurality of wear depths, each thickness of the coating in the plurality of thicknesses corresponding to the wear portion for each stator pocket in the plurality of stator pockets; and commanding, via the processor, a coating spray torch to deposit the coating in the wear portion of each stator pocket in the plurality of stator pockets.

Abstract: Provided herein are methods of treating cancer in a subject, wherein the cancer is extrachromosomal DNA-positive (ecDNA-positive) or therapeutically resistant, the method comprising administering to the subject a therapeutically effective amount of a replication stress (RS) pathway agent alone or in combination with a targeted therapeutic.

Abstract: The present technology relates generally to determining a risk of recurrence of disease in a cancer patient. In particular, this approach to determining a risk of recurrence involves utilizing standardized quantitative assessments of the level of biomarker expression selected from estrogen receptor (ER), progesterone receptor (PR), human epidermal growth factor receptor 2 (HER2) and Ki-67 (Ki67) in a patient's tumor to determine the risk of recurrence, thereby allowing a caretaker to determine the best course of treatment for the patient.

Abstract: The present technology relates generally to determining a risk of recurrence of disease in a cancer patient. In particular, this approach to determining a risk of recurrence involves utilizing standardized quantitative assessments of the level of biomarker expression selected from estrogen receptor (ER), progesterone receptor (PR), human epidermal growth factor receptor 2 (HER2) and Ki-67 (Ki67) in a patient's tumor to determine the risk of recurrence, thereby allowing a caretaker to determine the best course of treatment for the patient.

Abstract: A method is described for the reproducible quantification of biomarker expression, including biomarker expression in a tissue sample. Methods and systems are described whereby reproducible scores for biomarker expression are obtained independent of instrument, its location, or operator.

Abstract: Methods and apparatus for standardizing quantitative measurements from a microscope system. The process includes a calibration procedure whereby an image of a calibration slide is obtained through the optics of the microscope system. The calibration slide produces a standard response, which can be used to determine a machine intrinsic factor for the particular system. The machine intrinsic factor can be stored for later reference. In use, images are acquired of a target sample and of the excitation light source. The excitation light source sample is obtained using a calibration instrument configured to sample intensity. The calibration instrument has an associated correction factor to compensate its performance to a universally standardized calibration instrument. The machine intrinsic factor, sampled intensity, and calibration instrument correction factor are usable to compensate a quantitative measurement of the target sample in order to normalize the results for comparison with other microscope systems.

Abstract: The invention relates to a system for automatically adjusting an exposure time to improve or otherwise optimize a dynamic range of a digital image. The system includes a camera configured to capture an image of a subject within the field of view at a first exposure time. The captured image is composed of multiple pixels, with each pixel having a respective intensity value. The system further includes a shutter or suitable control configured to control an exposure time of the camera. A controller configured to carryout the following steps including: (a) querying a frequency distribution of pixel intensity values; (b) determining an effective “center of mass” of such a distribution, or histogram, to determine an adjusted exposure time; and (c) capturing a second image of the subject at the adjusted exposure time thereby obtaining an image with an improved or optimal dynamic range.

Abstract: Disclosed herein are methods of identifying suitable patients for postoperative radiotherapy based on the discovery that the quantification of ER, beyond simple positive/negative characterization, can provide valuable predictive information for the treatment of cancer, specifically breast cancer, and more particularly may predict a group more likely to respond to RT and spare patients from a potentially harmful treatment. Furthermore, the true quantification of ER expression provides a continuous recurrence risk assessment for patients being treated with tamoxifen, and therefore the standardization of the data across sites and imaging platforms significantly reduces the misclassification of patients when compared to the current standard by which ER expression is determined.

Abstract: The present technology relates generally to determining a risk of recurrence of disease in a cancer patient. In particular, this approach to determining a risk of recurrence involves utilizing standardized quantitative assessments of the level of biomarker expression selected from estrogen receptor (ER), progesterone receptor (PR), human epidermal growth factor receptor 2 (HER2) and Ki-67 (Ki67) in a patient's tumor to determine the risk of recurrence, thereby allowing a caretaker to determine the best course of treatment for the patient.

Abstract: Methods and apparatus for standardizing quantitative measurements from a microscope system. The process includes a calibration procedure whereby an image of a calibration slide is obtained through the optics of the microscope system. The calibration slide produces a standard response, which can be used to determine a machine intrinsic factor for the particular system. The machine intrinsic factor can be stored for later reference. In use, images are acquired of a target sample and of the excitation light source. The excitation light source sample is obtained using a calibration instrument configured to sample intensity. The calibration instrument has an associated correction factor to compensate its performance to a universally standardized calibration instrument. The machine intrinsic factor, sampled intensity, and calibration instrument correction factor are usable to compensate a quantitative measurement of the target sample in order to normalize the results for comparison with other microscope systems.

Abstract: Methods and apparatus for standardizing quantitative measurements from a microscope system. The process includes a calibration procedure whereby an image of a calibration slide is obtained through the optics of the microscope system. The calibration slide produces a standard response, which can be used to determine a machine intrinsic factor for the particular system. The machine intrinsic factor can be stored for later reference. In use, images are acquired of a target sample and of the excitation light source. The excitation light source sample is obtained using a calibration instrument configured to sample intensity. The calibration instrument has an associated correction factor to compensate its performance to a universally standardized calibration instrument. The machine intrinsic factor, sampled intensity, and calibration instrument correction factor are usable to compensate a quantitative measurement of the target sample in order to normalize the results for comparison with other microscope systems.

Abstract: Methods and apparatus for standardizing quantitative measurements from a microscope system. The process includes a calibration procedure whereby an image of a calibration slide is obtained through the optics of the microscope system. The calibration slide produces a standard response, which can be used to determine a machine intrinsic factor for the particular system. The machine intrinsic factor can be stored for later reference. In use, images are acquired of a target sample and of the excitation light source. The excitation light source sample is obtained using a calibration instrument configured to sample intensity. The calibration instrument has an associated correction factor to compensate its performance to a universally standardized calibration instrument. The machine intrinsic factor, sampled intensity, and calibration instrument correction factor are usable to compensate a quantitative measurement of the target sample in order to normalize the results for comparison with other microscope systems.

Abstract: Methods and apparatus for standardizing quantitative measurements from a microscope system. The process includes a calibration procedure whereby an image of a calibration slide is obtained through the optics of the microscope system. The calibration slide produces a standard response, which can be used to determine a machine intrinsic factor for the particular system. The machine intrinsic factor can be stored for later reference. In use, images are acquired of a target sample and of the excitation light source. The excitation light source sample is obtained using a calibration instrument configured to sample intensity. The calibration instrument has an associated correction factor to compensate its performance to a universally standardized calibration instrument. The machine intrinsic factor, sampled intensity, and calibration instrument correction factor are usable to compensate a quantitative measurement of the target sample in order to normalize the results for comparison with other microscope systems.