Abstract: The present methods pertain to amplifying and/or detecting Staphylococcus aureus (“SA”) and methicillin-resistant Staphylococcus aureus (“MRSA”) nucleic acids based on a combined detection of ldh1 as a SA marker and mecA as a MRSA marker. In certain embodiments the methods also pertain to amplifying and/or detecting one or more SCCmec integration sites or bridge regions. Primers and probes are suitable to be used in the present methods to detect SA and MRSA simultaneously in a single reaction or in separate reactions. The amplified nucleic acid can be detected by a variety of state of the art methods, including fluorescence resonance energy transfer (“FRET”), radiolabels, enzyme labels, and the like.

Abstract: The present methods pertain to amplifying and/or detecting Staphylococcus aureus (“SA”) and methicillin-resistant Staphylococcus aureus (“MRSA”) nucleic acids based on a combined detection of ldh1 as a SA marker and mecA as a MRSA marker. In certain embodiments the methods also pertain to amplifying and/or detecting one or more SCCmec integration sites or bridge regions. Primers and probes are suitable to be used in the present methods to detect SA and MRSA simultaneously in a single reaction or in separate reactions. The amplified nucleic acid can be detected by a variety of state of the art methods, including fluorescence resonance energy transfer (“FRET”), radiolabels, enzyme labels, and the like.

Abstract: The present methods pertain to amplifying and/or detecting Staphylococcus aureus (“SA”) and methicillin-resistant Staphylococcus aureus (“MRSA”) nucleic acids based on a combined detection of ldh1 as a SA marker and mecA as a MRSA marker. In certain embodiments the methods also pertain to amplifying and/or detecting one or more SCCmec integration sites or bridge regions. Primers and probes are suitable to be used in the present methods to detect SA and MRSA simultaneously in a single reaction or in separate reactions. The amplified nucleic acid can be detected by a variety of state of the art methods, including fluorescence resonance energy transfer (“FRET”), radiolabels, enzyme labels, and the like.

Abstract: Compositions and methods for inhibiting the actions of non-coding RNAs such as miRNAs and piRNAs are provided. The compositions comprise single or double stranded oligonucleotides conjugated with Minor Groove Binders (“MGBs”). The oligonucleotides can vary in length, can contain nucleotides having one or more modifications, and have regions that are substantially complementary to one or more mature miRNAs or piRNAs.

Abstract: The present methods pertain to amplifying and/or detecting Staphylococcus aureus (“SA”) and methicillin-resistant Staphylococcus aureus (“MRSA”) nucleic acids based on a combined detection of ldh1 as a SA marker and mecA as a MRSA marker. In certain embodiments the methods also pertain to amplifying and/or detecting one or more SCCmec integration sites or bridge regions. Primers and probes are suitable to be used in the present methods to detect SA and MRSA simultaneously in a single reaction or in separate reactions. The amplified nucleic acid can be detected by a variety of state of the art methods, including fluorescence resonance energy transfer (“FRET”), radiolabels, enzyme labels, and the like.

Abstract: Compositions and methods for inhibiting the actions of non-coding RNAs such as miRNAs and piRNAs are provided. The compositions comprise single or double stranded oligonucleotides conjugated with Minor Groove Binders (“MGBs”). The oligonucleotides can vary in length, can contain nucleotides having one or more modifications, and have regions that are substantially complementary to one or more mature miRNAs or piRNAs.

Abstract: Compositions and methods for inhibiting the actions of non-coding RNAs such as miRNAs and piRNAs are provided. The compositions comprise single or double stranded oligonucleotides conjugated with Minor Groove Binders (“MGBs”). The oligonucleotides can vary in length, can contain nucleotides having one or more modifications, and have regions that are substantially complementary to one or more mature miRNAs or piRNAs.

Abstract: Methods are provided for amplification and monitoring of oligonucleotide amplification in which a primer has an overlap with one or more bases of a detection probe.

Abstract: Compositions and methods for inhibiting the actions of non-coding RNAs such as miRNAs and piRNAs are provided. The compositions comprise single or double stranded oligonucleotides conjugated with Minor Groove Binders (“MGBs”). The oligonucleotides can vary in length, can contain nucleotides having one or more modifications, and have regions that are substantially complementary to one or more mature miRNAs or piRNAs.

Abstract: Methods are provided for amplification and monitoring of oligonucleotide amplification in which a primer has an overlap with one or more bases of a detection probe.

Abstract: Methods are provided for amplification and monitoring of oligonucleotide amplification in which a primer has an overlap with one or more bases of a detection probe.

Abstract: Methods are provided for amplification and monitoring of oligonucleotide amplification in which a primer has an overlap with one or more bases of a detection probe.

Abstract: Methods are provided for amplification and monitoring of oligonucleotide amplification in which a primer has an overlap with one or more bases of a detection probe.

Abstract: This invention provides a system for controlling the phenotypic characteristics of cells. A pair of chimeric polypeptides is anchored in the plasma membrane, each of which has a variable region sequence and an effector sequence. The polypeptides are independent in the absence of antigen, but form a stable complex with each other when antigen is provided. This drives the effector sequences together in a manner that produces a receptor activation signal, leading to a phenotypic change. By titrating the amount of antigen present in the environment, the degree of phenotypic change can be regulated. Cells bearing chimeric polypeptides can be used to measure the concentration of antigen or select cells transfected with a therapeutic gene.

Abstract: Methods for isolating trophoblast cells from pregnant women are provided. A central maternal blood sample is obtained, typically from the uterine wall of a pregnant woman. The trophoblast cells are isolated from the central maternal blood sample.