Abstract: The present invention relates to a method for detecting an aggregate of an aggregate-forming polypeptide of a biosample, comprising (a) a step of spiking a dimer type of the aggregate-forming polypeptide into the biosample to be analyzed; (b) a step of incubating a resultant product of step (a) to further form an aggregate of the aggregate-forming polypeptide; (c) a step of contacting a resultant product of step (b) with a binding agent-tag in which a signal-generating tag is bound to a binding agent that binds to the aggregate of the aggregate-forming polypeptide; and (d) a step of detecting a signal which is generated from the binding agent-tag bound to the aggregate of the aggregate-forming polypeptide.

Abstract: A female connector is mountable to an electronic module having a printed circuit board. The female connector comprises a female connector body, a plurality of female taps, an inner seal, a coupling nut disposed in the female connector body, and a female O-ring. The female connector body includes a female flange having a female bolting hole configured to couple with the electronic module and a female protrusion protruding from the female flange. The female taps each include a pin extending through the female connector body and connectable to the printed circuit board and a receptor connected to an end of the pin. The inner seal is disposed in the female protrusion and is configured to be in contact with a male connector that couples with the female connector. The female O-ring surrounds the female protrusion and is disposed in an outer wall of the female protrusion.

Abstract: The present invention relates to a method for detecting an aggregate of an aggregate-forming polypeptide of a biosample, comprising (a) a step of spiking a dimer type of the aggregate-forming polypeptide into the biosample to be analyzed; (b) a step of incubating a resultant product of step (a) to further form an aggregate of the aggregate-forming polypeptide; (c) a step of contacting a resultant product of step (b) with a binding agent-tag in which a signal-generating tag is bound to a binding agent that binds to the aggregate of the aggregate-forming polypeptide; and (d) a step of detecting a signal which is generated from the binding agent-tag bound to the aggregate of the aggregate-forming polypeptide

Abstract: A female connector is mountable to an electronic module having a printed circuit board. The female connector comprises a female connector body, a plurality of female taps, an inner seal, a coupling nut disposed in the female connector body, and a female O-ring. The female connector body includes a female flange having a female bolting hole configured to couple with the electronic module and a female protrusion protruding from the female flange. The female taps each include a pin extending through the female connector body and connectable to the printed circuit board and a receptor connected to an end of the pin. The inner seal is disposed in the female protrusion and is configured to be in contact with a male connector that couples with the female connector. The female O-ring surrounds the female protrusion and is disposed in an outer wall of the female protrusion.

Abstract: The present invention relates to a method for detecting an aggregate form of an aggregate-forming polypeptide in a biosample, comprising the steps of: (a) spiking, in a biosample to be analyzed, (i) a monomeric or multimeric form of an aggregate-forming polypeptide, (ii) a hydrophobic deleted derivative of the aggregate-forming polypeptide, or (iii) a monomeric or multimeric form of the aggregate-forming polypeptide and a hydrophobic deleted derivative of the aggregate-forming polypeptide; (b) additionally forming the aggregate form of the aggregate-forming polypeptide by incubating the product of step (a); (c) making the product of step (b) come into contact with a binder-label in which a signal-generating label is coupled to a binder binding to the aggregate form of the aggregate-forming polypeptide; and (d) detecting a signal to be generated from the binder-label bound to the aggregate form of the aggregate-forming polypeptide.

Abstract: A shield cover for a braided wire shield that is capable of securely fixing a braided wire to a shield member through a single pressing operation. The shield cover having a mating end, an inner casing, an outer cover housing. and a securing section. The inner casing positioned at an end opposite the mating end and having a shield receiving passageway. The outer cover housing positioned at the mating end of the shield cover and forming a connector receiving passageway being wider than the shield receiving passageway. The securing section extends from the inner casing toward the mating end and positioned apart from the outer cover housing.

Abstract: A shield cover for a braided wire shield that is capable of securely fixing a braided wire to a shield member through a single pressing operation. The shield cover having a mating end, an inner casing, an outer cover housing. and a securing section. The inner casing positioned at an end opposite the mating end and having a shield receiving passageway. The outer cover housing positioned at the mating end of the shield cover and forming a connector receiving passageway being wider than the shield receiving passageway. The securing section extends from the inner casing toward the mating end and positioned apart from the outer cover housing.

Abstract: A method for differentially detecting a multimeric form from a monomeric form of a multimer-forming polypeptide in a biosample includes (a) contacting the biosample to a capturing antibody recognizing an epitope on the multimer-forming polypeptide to capture the monomeric form, multimeric form or monomeric and multimeric forms; (b) contacting the monomeric form, multimeric form or monomeric and multimeric forms captured to a detecting antibody recognizing an epitope identical to or overlapped with the epitope of step (a); and (c) detecting the formation of a multimeric form-detection antibody complex.

Abstract: The present invention relates to a method for differentially detecting a multimeric form from a monomeric form of a multimer-forming polypeptide in a biosample, which comprises the steps of: (a) preparing a carrier-capturing antibody conjugate by binding a capturing antibody to the surface of a solid phase carrier in a three dimensional manner, wherein the capturing antibody is capable of recognizing an epitope on the multimer-forming polypeptide; (b) preparing a detection antibody, wherein an epitope recognized by the detection antibody is present at a position in the multimer-forming polypeptide to cause a steric hindrance by the capturing antibody bound to its epitope to prevent the binding of the detection antibody to the multimer-forming polypeptide; (c) contacting simultaneously the carrier-capturing antibody conjugate and the detection antibody to the biosample; and (d) detecting the formation of a carrier-capturing antibody-multimeric form-detection antibody complex.

Abstract: The present invention relates to a method for differentially detecting a multimeric form from a monomeric form of a multimer-forming polypeptide in a biosample, which comprises the steps of: (a) preparing a carrier-capturing antibody conjugate by binding a capturing antibody to the surface of a solid phase carrier in a three dimensional manner, wherein the capturing antibody is capable of recognizing an epitope on the multimer-forming polypeptide; (b) preparing a detection antibody, wherein an epitope recognized by the detection antibody is present at a position in the multimer-forming polypeptide to cause a steric hindrance by the capturing antibody bound to its epitope to prevent the binding of the detection antibody to the multimer-forming polypeptide; (c) contacting simultaneously the carrier-capturing antibody conjugate and the detection antibody to the biosample; and (d) detecting the formation of a carrier-capturing antibody-multimeric form-detection antibody complex.

Abstract: A connector having a first connector portion with a first connection interface and a guide projection is disclosed. The connector also has a second connector portion with a second connection interface configured for insertion into the first connection interface. The connector also has a lever having a guide channel configured to receive the guide projection. The lever is linearly movably connected to the second connector portion and is positionally biased away from the second connector portion. While the guide projection is within the guide channel, movement of the lever from a fully positionally biased location with respect to the second connector portion initiates a change in a state of connection between the first connector portion and the second connector portion.

Abstract: A connector having a first connector portion with a first connection interface and a guide projection is disclosed. The connector also has a second connector portion with a second connection interface configured for insertion into the first connection interface. The connector also has a lever having a guide channel configured to receive the guide projection. The lever is linearly movably connected to the second connector portion and is positionally biased away from the second connector portion. While the guide projection is within the guide channel, movement of the lever from a fully positionally biased location with respect to the second connector portion initiates a change in a state of connection between the first connector portion and the second connector portion.

Abstract: A connector having a first connector portion and a lever movably connected to an outside of the first connector portion is disclosed. The lever is rotatable with respect to the first connection portion and the lever is translatable with respect to the first connection portion. A guide projection is connected to the lever and the connector further has a second connector portion. The second connector portion has a guide channel having an open upper part, at least a portion of the guide channel having a sloped portion being sloped with respect to a direction in which the first connector portion is connectable to the second connector portion, the guide channel configured to receive the guide projection through the open upper part of the guide channel.