Abstract: A method is used for treating bone metastasis diseases in subjects. The method preferably depends on whether the subject shows certain specific proteins levels in one or more body fluids prior to or during treatment. The treatment includes the administration of at least one pan ?v integrin inhibitor to a subject, a medicament for use in said new methods, and a method of predicting the outcome of a treatment with at least one pan ?v integrin inhibitor based on the specific protein levels in one or more body fluids of the subject.

Abstract: A new method can be used for treating colorectal cancer (CRC) and metastases thereof in subjects, and preferably also other solid cancers and metastases thereof in subjects. The method preferably depends on whether the patient shows certain specific proteins levels in one or more body fluids prior to or during treatment. The treatment involves the administration of at least one pan ?v integrin inhibitor to a patient. A corresponding medicament is used in the new methods. A method can be used for predicting the outcome of a treatment with at least one pan ?v integrin inhibitor based on the specific protein levels in one or more body fluids of the patient.

Abstract: A method is used for treating bone metastasis diseases in subjects. The method preferably depends on whether the subject shows certain specific proteins levels in one or more body fluids prior to or during treatment. The treatment includes the administration of at least one pan ?v integrin inhibitor to a subject, a medicament for use in said new methods, and a method of predicting the outcome of a treatment with at least one pan ?v integrin inhibitor based on the specific protein levels in one or more body fluids of the subject.

Abstract: The instant invention provides for a new method of treating colorectal cancer (CRC) and metastases thereof in subjects, and preferably also of other solid cancers and metastases thereof in subjects, wherein said method preferably depends on whether the patient shows certain specific proteins levels in one or more body fluids prior to or during treatment, wherein said treatment comprises the administration of at least one pan ?v integrin inhibitor to a patient, a medicament for use in said new methods, and a method of predicting the outcome of a treatment with at least one pan ?v integrin inhibitor based on said specific protein levels in one or more body fluids of the patient.

Abstract: A method is used for treating bone metastasis diseases in subjects. The method preferably depends on whether the subject shows certain specific proteins levels in one or more body fluids prior to or during treatment. The treatment includes the administration of at least one pan ?v integrin inhibitor to a subject, a medicament for use in said new methods, and a method of predicting the outcome of a treatment with at least one pan ?v integrin inhibitor based on the specific protein levels in one or more body fluids of the subject.

Abstract: Methods of treatment of colorectal cancer can include the administration of the anti-alpha-v integrin (receptor) antibody Abituzumab. Preferably, the methods of treating colorectal cancer can include treating Stage II-IV colorectal cancer, metastatic colorectal cancer, left-sided colorectal cancer and/or left-sided metastatic colorectal cancer, involving the administration of said Abituzumab to patients in need thereof. Abituzumab is also useful for the manufacture of a medicament for treating colorectal cancer, preferably colorectal cancer as defined herein. Abituzumab is further useful for the manufacture of a medicament for treating colorectal cancer in combination with suitable targeted therapy concepts, such as growth factor or growth factor receptor targeting monoclonal antibodies, and/or chemotherapy.

Abstract: A method is used for treating bone metastasis diseases in subjects. The method preferably depends on whether the subject shows certain specific proteins levels in one or more body fluids prior to or during treatment. The treatment includes the administration of at least one pan ?v integrin inhibitor to a subject, a medicament for use in said new methods, and a method of predicting the outcome of a treatment with at least one pan ?v integrin inhibitor based on the specific protein levels in one or more body fluids of the subject.

Abstract: The instant invention provides for a new method of treating bone metastasis diseases in subjects, wherein said method preferably depends on whether the subject shows certain specific proteins levels in one or more body fluids prior to or during treatment, wherein said treatment comprises the administration of at least one pan ?v integrin inhibitor to a subject, a medicament for use in said new methods, and a method of predicting the outcome of a treatment with at least one pan ?v integrin inhibitor based on said specific protein levels in one or more body fluids of the subject.

Abstract: The instant invention provides for a new method of treating bone metastasis diseases in subjects, wherein said method preferably depends on whether the subject shows certain specific proteins levels in one or more body fluids prior to or during treatment, wherein said treatment comprises the administration of at least one pan ?v integrin inhibitor to a subject, a medicament for use in said new methods, and a method of predicting the outcome of a treatment with at least one pan ?v integrin inhibitor based on said specific protein levels in one or more body fluids of the subject.

Abstract: The instant invention provides for a new method of treating colorectal cancer (CRC) and metastases thereof in subjects, and preferably also of other solid cancers and metastases thereof in subjects, wherein said method preferably depends on whether the patient shows certain specific proteins levels in one or more body fluids prior to or during treatment, wherein said treatment comprises the administration of at least one pan ?v integrin inhibitor to a patient, a medicament for use in said new methods, and a method of predicting the outcome of a treatment with at least one pan ?v integrin inhibitor based on said specific protein levels in one or more body fluids of the patient.

Abstract: Methods and tools are provided for detecting and predicting lung cancer. The methods and tools are based on epigenetic modification due to methylation of genes in lung cancer or pre-lung cancer. The tools can be assembled into kits or can be used separately. Genes found to be epigenetically silenced in association with lung cancer include ACSL6, ALS2CL, APC2, ARTS-1, BEX1, BMP7, BNIP3, CBR3, CD248, CD44, CHD5, DLK1, DPYSL4, DSC2, EDNRB, EPB41L3, EPHB6, ERBB3, FBLN2, FBN2, FOXL2, GNAS, GSTP1, HS3ST2, HPN, IGFBP7, IRF7, JAM3, LOX, LY6D, LY6K, MACF1, MCAM, NCBP1, NEFH, NID2, PCDHB15, PCDHGA12, PFKP, PGRMC1, PHACTR3, PHKA2, POMC, PRKCA, PSEN1, RASSF1A, RASSF2, RBP1, RRAD, SFRP1, SGK, SOD3, SOX17, SULF2, TIMP3, TJP2, TRPV2, UCHL1, WDR69, ZFP42, ZNF442, and ZNF655.

Abstract: Using a combination of analytic methods epigenetic silencing of markers in cancer have been determined. The cancers are generally those of the gastrointestinal tract including but not limited to esophageal, head and neck, gastric, pancreas, liver, and colon. The genes can be used for the early detection of cancer or can be used to identify adenomas that will likely progress to carcinomas. Therapeutic regimens based on the epigenetic silenced genes can be chosen and/or monitored. Kits for evaluating epigenetic silencing of these genes can be used for detection and monitoring.

Abstract: Methods and tools are provided for detecting and predicting lung cancer. The methods and tools are based on epigenetic modification due to methylation of genes in lung cancer or pre-lung cancer. The tools can be assembled into kits or can be used seperately. Genes found to be epigentically silenced in association with lung cancer include ACSL6, ALS2CL, APC2, ART-S1, BEX1, BMP7, BNIP3, CBR3, CD248, CD44, CHD5, DLK1, DPYSL4, DSC2, EDNRB, EPB41L3, EPHB6, ERBB3, FBLN2, FBN2, FOXL2, GNAS, GSTP1, HS3ST2, HPN, IGFBP7, IRF7, JAM3, LOX, LY6D, LY6K, MACF1, MCAM, NCBP1, NEFH, NID2, PCDHB15, PCDHGA12, PFKP, PGRMC1, PHACTR3, PHKA2, POMC, PRKCA, PSEN1, RASSF1A, RASSF2, RBP1, RRAD, SFRP1, SGK, SOD3, SOX17, SULF2, TIMP3, TJP2, TRPV2, UCHL1, WDR69, ZFP42, ZNF442, and ZNF655.

Abstract: Two hundred ten markers are provided which are epigenetically silenced in one or more cancer types. The markers can be used diagnostically, prognostically, therapeutically, and for selecting treatments that are well tailored for an individual patient. Restoration of expression of silenced genes can be useful therapeutically, for example, if the silenced gene is a tumor-suppressor gene. Restoration can be accomplished by supplying non-methylated copies of the silenced genes or polynucleotides encoding their encoded products. Alternatively, restoration can be accomplished using chemical demethylating agents or methylation inhibitors. Kits for testing for epigenetic silencing can be used in the context of diagnostics, prognostics, or for selecting “personalized medicine” treatments.

Abstract: Two hundred ten markers are provided which are epigenetically silenced in one or more cancer types. The markers can be used diagnostically, prognostically, therapeutically, and for selecting treatments that are well tailored for an individual patient. Restoration of expression of silenced genes can be useful therapeutically, for example, if the silenced gene is a tumor-suppressor gene. Restoration can be accomplished by supplying non-methylated copies of the silenced genes or polynucleotides encoding their encoded products. Alternatively, restoration can be accomplished using chemical demethylating agents or methylation inhibitors. Kits for testing for epigenetic silencing can be used in the context of diagnostics, prognostics, or for selecting “personalized medicine” treatments.

Abstract: Two hundred ten markers are provided which are epigenetically silenced in one or more cancer types. The markers can be used diagnostically, prognostically, therapeutically, and for selecting treatments that are well tailored for an individual patient. Restoration of expression of silenced genes can be useful therapeutically, for example, if the silenced gene is a tumor-suppressor gene. Restoration can be accomplished by supplying non-methylated copies of the silenced genes or polynucleotides encoding their encoded products. Alternatively, restoration can be accomplished using chemical demethylating agents or methylation inhibitors. Kits for testing for epigenetic silencing can be used in the context of diagnostics, prognostics, or for selecting “personalized medicine” treatments.

Abstract: Twenty-three markers are provided which are epigenetically silenced in ovarian cancers. The markers can be used diagnostically, prognostically, therapeutically, and for selecting treatments that are well tailored for an individual patient. Restoration of expression of silenced genes can be useful therapeutically, for example, if the silenced gene is a tumor-suppressor gene. Restoration can be accomplished by supplying non-methylated copies of the silenced genes or polynucleotides encoding their encoded products. Alternatively, restoration can be accomplished using chemical demethylating agents or methylation inhibitors. Kits for testing for epigenetic silencing can be used in the context of diagnostics, prognostics, or for selecting “personalized medicine” treatments.

Abstract: Genes for thirteen DNA damage repair or DNA damage response enzymes can be epigenetically silenced in cancers. The silencing of nucleic acids encoding a DNA repair or DNA damage response enzyme can be used prognostically and for selecting treatments that are well tailored for an individual patient. Combinations of these markers can also be used to provide prognostic information. Kits for testing epigenetic silencing can be used to determine a prognosis or a therapeutic regimen.

Abstract: Twenty-three markers are provided which are epigenetically silenced in ovarian cancers. The markers can be used diagnostically, prognostically, therapeutically, and for selecting treatments that are well tailored for an individual patient. Restoration of expression of silenced genes can be useful therapeutically, for example, if the silenced gene is a tumor-suppressor gene. Restoration can be accomplished by supplying non-methylated copies of the silenced genes or polynucleotides encoding their encoded products. Alternatively, restoration can be accomplished using chemical demethylating agents or methylation inhibitors. Kits for testing for epigenetic silencing can be used in the context of diagnostics, prognostics, or for selecting “personalized medicine” treatments.