The present disclosure provides methods of evaluating a therapeutic agent for cancer, and methods of cancer treatment.

The present invention relates to developing customized therapies for a disease or condition in a subject. In particular, the present invention relates to aptamer-based compositions and methods for identifying, modulating and monitoring drug targets in individual with a disease or condition, and further composition and methods for identifying and selecting protein targets for drug development.

The present disclosure provides a high-throughput screening system and method for identification of novel drugs and drug targets. The method enables large-scale analysis of interactions between allogeneic pairs of target cells and immune cells by using an immune-bridge protein, library of guide RNA, and/or 3D tumor model.

The invention is based on the identification of the intracellular kinase calcium/calmodulin-dependent protein kinase 1D (CAMK1D) as a key checkpoint inhibitor in tumour cells mediating resistance against cytotoxic T lymphocytes (CTL). CAMK1D was identified in PD-L1 refractory tumours to impair CTL-induced death receptor signalling and apoptosis via caspase inhibition. The invention offers therapeutic approaches involving impairing CAMK1D immune checkpoint function by various CAMK1D inhibitors, especially nucleic acid or small molecule inhibitors of CAMK1D and/or treatments involving CAMK1D inhibitors with death receptor agonists. The medical approaches of the invention are useful for treating subjects suffering from various proliferative disorders; preferably such proliferative disorders that are characterized by a resistance to CTL mediated immune responses, or which are refractory or resistant to treatments with other immune checkpoint therapies, such as PD1-PDL1 antagonistic treatments. Provided are the medical applications and corresponding diagnostic approaches, kits, CAMK1D inhibitors and screening methods for the identification of new therapeutic agents for the treatment of proliferative disorders.

The disclosure provides a method of generating an artificial fluorescent image of cells is provided. The method includes receiving a brightfield image generated by a brightfield microscopy imaging modality of at least a portion of cells included in a specimen, applying, to the brightfield image, at least one trained model, the trained model being trained to generate the artificial fluorescent image based on the brightfield image, receiving the artificial fluorescent image from the trained model

There is provided a microfluidic device comprising a first region configured to hold target cells, e.g., tumor cells, a second region configured to hold effector cells, e.g., immune cells, and an array of microstructures disposed between the first and second regions, wherein the first region is in fluid communication with the second region, and wherein the array of microstructures is configured to selectively allow movement of immune cells, from the second region to an interaction zone that is at least partially disposed within the first region, for interaction with tumor cells in the interaction zone. The array of microstructures can be an array of micropillars. Also provided is a chip comprising a plurality of the device and a method of studying interactions of a first cell type with a second cell type.

An antibody having a higher function targeting a CD73 antigen, and more specifically, an antibody for cancer treatment having a higher activity. The antibody or a human-type antibody derivative that has a binding activity to a CD73 antigen and activates T cells having a toxic activity to cancer cells, and includes complementarity determining regions of any combination of heavy and light chains each having a specific amino acid sequence.

A human tissue stem cell in which a gene of interest is introduced into a gene locus of a stem cell marker gene.

Present invention is related to a tumor microenvironment on chip or a biochip for cell therapy having a carrier, a first cell or tissue culture area and a second cell or tissue area imbedded within the carrier. The present invention provides a biochip successfully cooperating micro fluidic technology and cell culture achieving the goal for detecting or testing the function of cell therapy for cancer or tumor.

The present invention relates to a system for screening personalized anticancer agents, a method for screening personalized anticancer agents using the system, and an apparatus for screening personalized anticancer agents. When the inventive system for screening personalized anticancer agents is used, an anticancer agent showing an optimal anticancer activity against cancer cells collected from a patient can be selected from a variety of anticancer agents, and it is possible to previously examine a therapeutic response that can appear when the selected anticancer agent is administered into the patient. Thus, the risk of trial and error in cancer therapy can be reduced, and the cost and time required for cancer therapy can be reduced.