G01N33/533

Kill event optimization

A method of choosing which undesired cell to destroy in a multi-cell fluorescent event includes detecting fluorescence of cells, converting photons detected in the fluorescence into an analog voltage output signal, and identifying at least two discernable peaks associated with the cells. By looking solely at properties measured within the multi-cell fluorescent event, a decision of which cell to target for elimination can be made. Using this method with large population sizes can result in an effective sex skewed product. The sex skewed product can, for example, be formed from bull semen which is then later used to inseminate cows which results in an increased likelihood of giving birth to female cattle.

COMPOSITE HIGH-BRIGHTNESS FLUOROPHORES WITH CONTROLLABLE SPECTRA SHAPES AND METHOD OF USING COMPOSITE HIGHBRIGHTNESS FLUOROPHORES
20220370643 · 2022-11-24 ·

A compound includes a first linker having a first end connected to the carrier, a second linker having a first end connected to the carrier, a third linker having a first end connected to the carrier, a first fluorescent entity connected to a second end of the first linker, a second fluorescent entity different from the first fluorescent entity connected to a second end of the second linker, and a biomolecule connected to a second end of the third linker. The biomolecule is configured to connect to a biomarker. A method of detecting biomarkers is also disclosed.

COMPOSITE HIGH-BRIGHTNESS FLUOROPHORES WITH CONTROLLABLE SPECTRA SHAPES AND METHOD OF USING COMPOSITE HIGHBRIGHTNESS FLUOROPHORES
20220370643 · 2022-11-24 ·

A compound includes a first linker having a first end connected to the carrier, a second linker having a first end connected to the carrier, a third linker having a first end connected to the carrier, a first fluorescent entity connected to a second end of the first linker, a second fluorescent entity different from the first fluorescent entity connected to a second end of the second linker, and a biomolecule connected to a second end of the third linker. The biomolecule is configured to connect to a biomarker. A method of detecting biomarkers is also disclosed.

Methods and compositions for the generation and use of humanized conformation-specific phosphorylated tau antibodies

The present disclosure relates generally to conformation-specific antibodies that can bind to and neutralize the activity of phosphorylated-Threonine 231-tau protein (pT231-tau). The antibodies of the present technology are useful in methods for treating a neurological disorder associated with elevated cis-pT231-tau protein expression in a subject in need thereof.

Methods and compositions for the generation and use of humanized conformation-specific phosphorylated tau antibodies

The present disclosure relates generally to conformation-specific antibodies that can bind to and neutralize the activity of phosphorylated-Threonine 231-tau protein (pT231-tau). The antibodies of the present technology are useful in methods for treating a neurological disorder associated with elevated cis-pT231-tau protein expression in a subject in need thereof.

Antibodies to botulinum neurotoxins

The present disclosure provides antibodies that specifically bind to botulinum neurotoxins. The antibodies and derivatives thereof that specifically bind to the neutralizing epitopes provided herein can be used in methods to specifically bind and, in some embodiments, neutralize, botulinum neurotoxin and are therefore also useful in the treatment.

Antibodies to botulinum neurotoxins

The present disclosure provides antibodies that specifically bind to botulinum neurotoxins. The antibodies and derivatives thereof that specifically bind to the neutralizing epitopes provided herein can be used in methods to specifically bind and, in some embodiments, neutralize, botulinum neurotoxin and are therefore also useful in the treatment.

ANTI TRBC1 ANTIGEN BINDING DOMAINS

The present disclosure relates to anti-TRBCl antigen binding domains characterized by the sequences of the variable chains. The CDRs sequences of the variable chains are: (VH CDR1) GYTFT, (VH CDR2) NPYNDDIQS, (VH CDR3) GAGY-NFDGAYRFFDF; and (VL CDR1) RSSQRLVHSNGNTYL, (VL CDR2) RVSNRFP, (VL CDR3) SQSTHVPYT. The claimed humanized antibodies derive from the murine JOVI antibody. Uses in cancer therapy.

A METHOD FOR DETECTING AN ANALYTE

The present invention provides a method for detecting an analyte in a sample, the method comprising the steps of: a method for detecting an analyte in a sample, the method comprising the steps of: (i) providing a mixture comprising a sample and a reporter reagent to a device, the device comprising a substrate having an optical component and a binding component attached to a surface of the substrate; (ii) allowing a proportion of the reporter reagent to bind to the surface of the substrate in proportion to the concentration of the analyte, by means of the binding component; (ill) irradiating the device with electromagnetic radiation for absorption by a photosensitiser of the reporter reagent, such that the photosensitiser of the bound reporter reagent portion interacts with the optical component to cause the optical component to change from a first optical state to a second optical state, thereby forming a set of local regions of the optical component having the second optical state on the substrate; and (iv) detecting the set of local regions having the second optical state on the substrate.

A METHOD FOR DETECTING AN ANALYTE

The present invention provides a method for detecting an analyte in a sample, the method comprising the steps of: a method for detecting an analyte in a sample, the method comprising the steps of: (i) providing a mixture comprising a sample and a reporter reagent to a device, the device comprising a substrate having an optical component and a binding component attached to a surface of the substrate; (ii) allowing a proportion of the reporter reagent to bind to the surface of the substrate in proportion to the concentration of the analyte, by means of the binding component; (ill) irradiating the device with electromagnetic radiation for absorption by a photosensitiser of the reporter reagent, such that the photosensitiser of the bound reporter reagent portion interacts with the optical component to cause the optical component to change from a first optical state to a second optical state, thereby forming a set of local regions of the optical component having the second optical state on the substrate; and (iv) detecting the set of local regions having the second optical state on the substrate.