Abstract: Cas-protein-ready tau biosensor cells, CRISPR/Cas synergistic activation mediator (SAM)-ready tau biosensor cells, and methods of making and using such cells to screen for genetic modifiers of tau seeding or aggregation are provided. Reagents and methods for sensitizing such cells to tau seeding activity or tau aggregation or for causing tau aggregation are also provided.

Abstract: BANF1, PPP2CA, and ANKLE2 were identified as genes that promote tau aggregation when disrupted. Improved tauopathy models such as cells, tissues, or animals having mutations in or inhibition of expression of BANF1 and/or PPP2CA and/or ANKLE2 are provided. Methods of using such improved tauopathy models for assessing therapeutic candidates for the treatment of a tauopathy, methods of making the improved tauopathy models, and methods of accelerating or exacerbating tau aggregation in a tauopathy model are also provided.

Abstract: Cas-protein-ready tau biosensor cells, CRISPR/Cas synergistic activation mediator (SAM)-ready tau biosensor cells, and methods of making and using such cells to screen for genetic vulnerability associated with tau aggregation are provided.

Abstract: Cas-protein-ready tau biosensor cells, CRISPR/Cas synergistic activation mediator (SAM)-ready tau biosensor cells, and methods of making and using such cells to screen for genetic modifiers of tau seeding or aggregation are provided. Reagents and methods for sensitizing such cells to tau seeding activity or tau aggregation or for causing tau aggregation are also provided.

Abstract: BANF1, PPP2CA, and ANKLE2 were identified as genes that promote tau aggregation when disrupted. Improved tauopathy models such as cells, tissues, or animals having mutations in or inhibition of expression of BANF1 and/or PPP2CA and/or ANKLE2 are provided. Methods of using such improved tauopathy models for assessing therapeutic candidates for the treatment of a tauopathy, methods of making the improved tauopathy models, and methods of accelerating or exacerbating tau aggregation in a tauopathy model are also provided.

Abstract: Cas-protein-ready tau bio sensor cells, CRISPR/Cas synergistic activation mediator (SAM)-ready tau biosensor cells, and methods of making and using such cells to screen for genetic vulnerability associated with tau aggregation are provided.

Abstract: BANF1, PPP2CA, and ANKLE2 were identified as genes that promote tau aggregation when disrupted. Improved tauopathy models such as cells, tissues, or animals having mutations in or inhibition of expression of BANF1 and/or PPP2CA and/or ANKLE2 are provided. Methods of using such improved tauopathy models for assessing therapeutic candidates for the treatment of a tauopathy, methods of making the improved tauopathy models, and methods of accelerating or exacerbating tau aggregation in a tauopathy model are also provided.

Abstract: Cas-protein-ready tau biosensor cells, CRISPR/Cas synergistic activation mediator (SAM)-ready tau biosensor cells, and methods of making and using such cells to screen for genetic modifiers of tau seeding or aggregation are provided. Reagents and methods for sensitizing such cells to tau seeding activity or tau aggregation or for causing tau aggregation are also provided.

Abstract: Cas-protein-ready tau bio sensor cells, CRISPR/Cas synergistic activation mediator (SAM)-ready tau biosensor cells, and methods of making and using such cells to screen for genetic vulnerability associated with tau aggregation are provided.

Abstract: Compositions and methods for determining circulating biomolecules before, during, and/or after treatment of a patient with an anti-cancer or anti-tumor drug (or putative drug) are described. Methods of treatments based on the compositions and methods described herein are also provided. Noninvasive methods and kits are provided for assessing the efficacy of an anti-cancer therapy for killing or damaging cancer cells. Embodiments are used to determine the cancer-killing efficacy of an anti-cancer drug in a patient, to optimize the selection of an anti-cancer drug for treatment of a patient, to adjust the dosage of an anti-cancer drug for treatment of a particular cancer in a patient and for identifying useful anti-cancer therapeutics for any one particular type of cancer.

Abstract: Compositions and methods for determining circulating biomolecules before, during, and/or after treatment of a patient with an anti-cancer or anti-tumor drug (or putative drug) are described. Methods of treatments based on the compositions and methods described herein are also provided. Noninvasive methods and kits are provided for assessing the efficacy of an anti-cancer therapy for killing or damaging cancer cells. Embodiments are used to determine the cancer-killing efficacy of an anti-cancer drug in a patient, to optimize the selection of an anti-cancer drug for treatment of a patient, to adjust the dosage of an anti-cancer drug for treatment of a particular cancer in a patient and for identifying useful anti-cancer therapeutics for any one particular type of cancer.

Abstract: Compositions and methods for determining circulating biomolecules before, during, and/or after treatment of a patient with an anti-cancer or anti-tumor drug (or putative drug) are described. Methods of treatments based on the compositions and methods described herein are also provided. Noninvasive methods and kits are provided for assessing the efficacy of an anti-cancer therapy for killing or damaging cancer cells. Embodiments are used to determine the cancer-killing efficacy of an anti-cancer drug in a patient, to optimize the selection of an anti-cancer drug for treatment of a patient, to adjust the dosage of an anti-cancer drug for treatment of a particular cancer in a patient and for identifying useful anti-cancer therapeutics for any one particular type of cancer.