Abstract: Synthetic bacterial messenger RNA can be used to prepare autologous, allogenic or direct nucleic acid cancer vaccines. Cancer cells are transfected either in vitro or in vivo with mRNA obtained from DNA that encodes an immunogenic bacterial protein. An immune response to the cancer is generated from direct administration of the mRNA in vivo or administration of vaccines prepared from cancer cells in vitro. Codon modification of the mRNA can optimize expression of an immunogenic polypeptide in cancer cells.

Abstract: Chimeric expression constructs encoding an immunogenic polypeptide fused to a lactadherin domain are described. The compositions are useful for delivery of antigens to different cells, including cancer cells.

Abstract: Synthetic bacterial messenger RNA can be used to prepare autologous, allogenic or direct nucleic acid cancer vaccines. Cancer cells are transfected either in vitro or in vivo with mRNA obtained from DNA that encodes an immunogenic bacterial protein. An immune response to the cancer is generated from direct administration of the mRNA in vivo or administration of vaccines prepared from cancer cells in vitro. Codon modification of the mRNA can optimize expression of an immunogenic polypeptide in cancer cells.

Abstract: Customized whole cell cancer vaccines can be produced from autologous (ex vivo or in situ) or allogeneic human or veterinary patient cell lines. Cells are transformed with S. pyogenes DNA that expresses an Emm protein on the cell surface and cytosol. Treatment of cancer patients with an Emm vector vaccine induces an immunologic response to the cancer by enhancing immunogenicity of a tumor. Emm vaccines can be used in patients where the cancer is not identified due to lower tumor burden or used to treat a specific cancer and subsequently treat for a second type that may have arisen through metastasis.

Abstract: Synthetic bacterial messenger RNA can be used to prepare autologous, allogenic or direct nucleic acid cancer vaccines. Cancer cells are transfected either in vitro or in vivo with mRNA obtained from DNA that encodes an immunogenic bacterial protein. An immune response to the cancer is generated from direct administration of the mRNA in vivo or administration of vaccines prepared from cancer cells in vitro.

Abstract: Customized whole cell cancer vaccines can be produced from autologous (ex vivo or in situ) or allogeneic human or veterinary patient cell lines. Cells are transformed with S. pyogenes DNA that expresses an Emm protein on the cell surface and cytosol. Treatment of cancer patients with an Emm vector vaccine induces an immunologic response to the cancer by enhancing immunogenicity of a tumor. Emm vaccines can be used in patients where the cancer is not identified due to lower tumor burden or used to treat a specific cancer and subsequently treat for a second type that may have arisen through metastasis.

Abstract: Customized whole cell cancer vaccines can be produced from autologous (ex vivo or in situ) or allogeneic human or veterinary patient cell lines. Cells are transformed with S. pyogenes DNA that expresses an Emm protein on the cell surface and cytosol. Treatment of cancer patients with an Emm vector vaccine induces an immunologic response to the cancer by enhancing immunogenicity of a tumor. Emm vaccines can be used in patients where the cancer is not identified due to lower tumor burden or used to treat a specific cancer and subsequently treat for a second type that may have arisen through metastasis.

Abstract: Customized whole cell cancer vaccines can be produced from autologous (ex vivo or in situ) or allogeneic human or veterinary patient cell lines. Cells are transformed with S. pyogenes DNA that expresses an Emm protein on the cell surface and cytosol. Treatment of cancer patients with an Emm vector vaccine induces an immunologic response to the cancer by enhancing immunogenicity of a tumor. Emm vaccines can be used in patients where the cancer is not identified due to lower tumor burden or used to treat a specific cancer and subsequently treat for a second type that may have arisen through metastasis.

Abstract: Customized whole cell cancer vaccines can be produced from autologous (ex vivo or in situ) or allogeneic human or veterinary patient cell lines. Cells are transformed with S. pyogenes DNA that expresses an Emm protein on the cell surface and cytosol. Treatment of cancer patients with an Emm vector vaccine induces an immunologic response to the cancer by enhancing immunogenicity of a tumor. Emm vaccines can be used in patients where the cancer is not identified due to lower tumor burden or used to treat a specific cancer and subsequently treat for a second type that may have arisen through metastasis.

Abstract: Synthetic bacterial messenger RNA can be used to prepare autologous, allogenic or direct nucleic acid cancer vaccines. Cancer cells are transfected either in vitro or in vivo with mRNA obtained from DNA that encodes an immunogenic bacterial protein. An immune response to the cancer is generated from direct administration of the mRNA in vivo or administration of vaccines prepared from cancer cells in vitro.

Abstract: Customized whole cell cancer vaccines can be produced from autologous (ex vivo or in situ) or allogeneic human or veterinary patient cell lines. Cells are transformed with S. pyogenes DNA that expresses an Emm protein on the cell surface and cytosol. Treatment of cancer patients with an Emm vector vaccine induces an immunologic response to the cancer by enhancing immunogenicity of a tumor. Emm vaccines can be used in patients where the cancer is not identified due to lower tumor burden or used to treat a specific cancer and subsequently treat for a second type that may have arisen through metastasis.

Abstract: Synthetic bacterial messenger RNA can be used to prepare autologous, allogenic or direct nucleic acid cancer vaccines. Cancer cells are transfected either in vitro or in vivo with mRNA obtained from DNA that encodes an immunogenic bacterial protein. An immune response to the cancer is generated from direct administration of the mRNA in vivo or administration of vaccines prepared from cancer cells in vitro.

Abstract: Synthetic bacterial messenger RNA can be used to prepare autologous, allogenic or direct nucleic acid cancer vaccines. Cancer cells are transfected either in vitro or in vivo with mRNA obtained from DNA that encodes an immunogenic bacterial protein. An immune response to the cancer is generated from direct administration of the mRNA in vivo or administration of vaccines prepared from cancer cells in vitro.

Abstract: Customized whole cell cancer vaccines can be produced from autologous (ex vivo or in situ) or allogeneic human or veterinary patient cell lines. Cells are transformed with S. pyogenes DNA that expresses an Emm protein on the cell surface and cytosol. Treatment of cancer patients with an Emm vector vaccine induces an immunologic response to the cancer by enhancing immunogenicity of a tumor. Emm vaccines can be used in patients where the cancer is not identified due to lower tumor burden or used to treat a specific cancer and subsequently treat for a second type that may have arisen through metastasis.

Abstract: Customized whole cell cancer vaccines can be produced from autologous (ex vivo or in situ) or allogeneic human or veterinary patient cell lines. Cells are transformed with S. pyogenes DNA that expresses an Emm protein on the cell surface and cytosol. Treatment of cancer patients with an Emm vector vaccine induces an immunologic response to the cancer by enhancing immunogenicity of a tumor. Emm vaccines can be used in patients where the cancer is not identified due to lower tumor burden or used to treat a specific cancer and subsequently treat for a second type that may have arisen through metastasis.

Abstract: The subject invention provides new materials and methods for the efficient isolation and purification of stem cells. Specifically, conductive immunopolymers with stem cell specific antibodies can be used to remove stem cells from biological fluids.

Abstract: Disclosed are methods for treating cancers, particularly tumorigenic types. Cancer cells are modified to express highly immunogenic antigens so that the cells will generate a defensive response in a mammal that exhibits the cancer or is predisposed to cancer and prevent or ameliorate proliferation of cancer cells. The novel cancer cell vaccines are expected to be effective against a wide range of tumors and leukemias.

Abstract: The present invention is directed to an autocrine growth factor. In particular, it relates to the production, purification and uses of stem cell proliferation factor (SCPF). In various cell lines, the protein of the invention exists in two forms, a soluble form and a membrane bound form which is detectable on the surface of a small percentage of human bone marrow cells and stimulates the proliferation of these cells. Therefore, SCPF may have a wide range of applications including but not limited to augmenting the growth of hematopoietic stem cells. Further, removal of the protein by an antibody may be useful in controlling tumor cell growth.

Abstract: The present invention is directed to an autocrine growth factor. In particular, it relates to the production, purification and uses of stem cell proliferation factor (SCPF). In various cell lines, the protein of the invention exists in two forms, a soluble form and a membrane bound form which is detectable on the surface of a small percentage of human bone marrow cells and stimulates the proliferation of these cells. Therefore, SCPF may have a wide range of applications including but not limited to augmenting the growth of hematopoietic stem cells. Further, removal of the protein by an antibody may be useful in controlling tumor cell growth.