Abstract: A test cap (100) for fluid pressure testing of pipework is described. The test cap (100) comprises a body (30) releasably attachable to pipework, the body (30) having a chamber (la) capable of being in fluid communication with pipework when test cap (100) is attached to the pipework, and a pressure-sensitive indicator (4) for indicating the presence or absence of fluid in the chamber (la) or in the pipework, or a change of pressure in the chamber (la) or in the pipework, when the chamber (la) is in fluid communication with the pipework.

Abstract: The invention encompasses formulations and methods for the production thereof that permit the delivery of concentrated protein solutions. The inventive methods can yield a lower viscosity liquid formulation or a higher concentration of therapeutic or nontherapeutic proteins in the liquid formulation, as compared to traditional protein solutions.

Abstract: The invention encompasses formulations and methods for the production thereof that permit the delivery of concentrated protein solutions. The inventive methods can yield a lower viscosity liquid protein formulation or a higher concentration of therapeutic or nontherapeutic proteins in the liquid formulation, as compared to traditional protein solutions. The inventive methods can also yield a higher stability of a liquid protein formulation.

Abstract: The invention encompasses formulations and methods for the production thereof that permit the delivery of concentrated protein solutions. The inventive methods can yield a lower viscosity liquid formulation or a higher concentration of therapeutic or nontherapeutic proteins in the liquid formulation, as compared to traditional protein solutions.

Abstract: The invention encompasses formulations and methods for the production thereof that permit the delivery of concentrated protein solutions. The inventive methods can yield a lower viscosity liquid formulation or a higher concentration of therapeutic or nontherapeutic proteins in the liquid formulation, as compared to traditional protein solutions.

Abstract: Disclosed herein are methods for improving a parameter of a protein-related process comprising providing a viscosity-reducing excipient compound selected from the group consisting of hindered amines, anionic aromatics, functionalized amino acids, oligopeptides, short-chain organic acids, and low molecular weight aliphatic polyacids, and adding a viscosity-reducing amount of the viscosity-reducing excipient compound to a carrier solution for the protein-related process, wherein the carrier solution contains a protein of interest, and carrier solutions comprising a liquid medium in which is dissolved a protein of interest, and a viscosity-reducing excipient, wherein the viscosity of the carrier solution has a lower viscosity that that of a control solution that is substantially similar to the carrier solution except for the presence of the viscosity-reducing excipient.

Abstract: The invention encompasses formulations and methods for the production thereof that permit the delivery of concentrated protein solutions. The inventive methods can yield a lower viscosity liquid formulation or a higher concentration of therapeutic or nontherapeutic proteins in the liquid formulation, as compared to traditional protein solutions.

Abstract: Described herein is a method and techniques for subsurface monitoring. The system includes a downhole including a casting with a lumen, a wireless power transmitter within the casting, a micro-sensor cement mixture including a plurality of micro-sensors mixed with a cement, the micro-sensor cement mixture on a surface of the casting opposite from the lumen, a relay system including a plurality of relays, each of the plurality of relays including a charging component and a surface receiver. The wireless power transmitter configured to transmit a wireless power signal. At least one micro-sensor of the plurality of micro-sensors is configured to receive the wireless power signal, sense at least one attribute, and transmit a sensed signal. A series of relays are configured to receive the sensed signal and re-transmit the sensed signal and a surface receiver is configured to receive the sensed signal at a third time after the second time.

Abstract: Disclosed herein are methods for improving a parameter of a protein-related process comprising providing a viscosity-reducing excipient compound selected from the group consisting of hindered amines, anionic aromatics, functionalized amino acids, oligopeptides, short-chain organic acids, and low molecular weight aliphatic polyacids, and adding a viscosity-reducing amount of the viscosity-reducing excipient compound to a carrier solution for the protein-related process, wherein the carrier solution contains a protein of interest, and carrier solutions comprising a liquid medium in which is dissolved a protein of interest, and a viscosity-reducing excipient, wherein the viscosity of the carrier solution has a lower viscosity that that of a control solution that is substantially similar to the carrier solution except for the presence of the viscosity-reducing excipient.

Abstract: Disclosed herein are methods for improving a parameter of a protein-related process comprising providing a viscosity-reducing excipient compound selected from the group consisting of hindered amines, aromatics and anionic aromatics, functionalized amino acids, oligopeptides, short-chain organic acids, low molecular weight aliphatic polyacids, diones and sulfones, zwitterionic excipients, and crowding agents with hydrogen bonding elements, and adding a viscosity-reducing amount of the viscosity-reducing excipient compound to a carrier solution for the protein-related process, wherein the carrier solution contains a protein of interest, and carrier solutions comprising a liquid medium in which is dissolved a protein of interest, and a viscosity-reducing excipient, wherein the viscosity of the carrier solution has a lower viscosity that that of a control solution that is substantially similar to the carrier solution except for the presence of the viscosity-reducing excipient.

Abstract: Described herein is a method and techniques for subsurface monitoring. The system includes a downhole including a casting with a lumen, a wireless power transmitter within the casting, a micro-sensor cement mixture including a plurality of micro-sensors mixed with a cement, the micro-sensor cement mixture on a surface of the casting opposite from the lumen, a relay system including a plurality of relays, each of the plurality of relays including a charging component and a surface receiver. The wireless power transmitter configured to transmit a wireless power signal. At least one micro-sensor of the plurality of micro-sensors is configured to receive the wireless power signal, sense at least one attribute, and transmit a sensed signal. A series of relays are configured to receive the sensed signal and re-transmit the sensed signal and a surface receiver is configured to receive the sensed signal at a third time after the second time.

Abstract: The invention encompasses formulations and methods for the production thereof that permit the delivery of concentrated protein solutions. The inventive methods can yield a lower viscosity liquid protein formulation or a higher concentration of therapeutic or nontherapeutic proteins in the liquid formulation, as compared to traditional protein solutions. The inventive methods can also yield a higher stability of a liquid protein formulation.

Abstract: The invention encompasses formulations and methods for the production thereof that permit the delivery of concentrated protein solutions. The inventive methods can yield a lower viscosity liquid protein formulation or a higher concentration of therapeutic or nontherapeutic proteins in the liquid formulation, as compared to traditional protein solutions. The inventive methods can also yield a higher stability of a liquid protein formulation.

Abstract: The invention encompasses formulations and methods for the production thereof that permit the delivery of concentrated protein solutions. The inventive methods can yield a lower viscosity liquid protein formulation or a higher concentration of therapeutic or nontherapeutic proteins in the liquid formulation, as compared to traditional protein solutions. The inventive methods can also yield a higher stability of a liquid protein formulation.

Abstract: The invention encompasses formulations and methods for the production thereof that permit the delivery of concentrated protein solutions. The inventive methods can yield a lower viscosity liquid formulation or a higher concentration of therapeutic or nontherapeutic proteins in the liquid formulation, as compared to traditional protein solutions.

Abstract: A mobile liquid transferring system comprising a first articulating fluid conduit configured to couple to a first tank, a pump comprising a pump inlet in fluid communication with the first articulating fluid conduit, a flow meter comprising a first pickoff for a first liquid of a first viscosity and a second pickoff for a second liquid of a second viscosity, a meter register configured to control flow of the first liquid and the second liquid in accordance with one or more loading parameters and one or more liquid parameters, a flow control valve in fluid communication with the flow meter and configured to alter flow of at least one of the first liquid and the second liquid in response to a communication from the load rack controller, and a second articulating fluid conduit in fluid communication with the flow control valve and configured to couple to a second tank.

Abstract: Disclosed herein are methods for improving a parameter of a protein-related process comprising providing a viscosity-reducing excipient compound selected from the group consisting of hindered amines, anionic aromatics, functionalized amino acids, oligopeptides, short-chain organic acids, and low molecular weight aliphatic polyacids, and adding a viscosity-reducing amount of the viscosity-reducing excipient compound to a carrier solution for the protein-related process, wherein the carrier solution contains a protein of interest, and carrier solutions comprising a liquid medium in which is dissolved a protein of interest, and a viscosity-reducing excipient, wherein the viscosity of the carrier solution has a lower viscosity that that of a control solution that is substantially similar to the carrier solution except for the presence of the viscosity-reducing excipient.

Abstract: A mobile liquid transferring system comprising a first articulating fluid conduit configured to couple to a first tank, a pump comprising a pump inlet in fluid communication with the first articulating fluid conduit, a flow meter comprising a first pickoff for a first liquid of a first viscosity and a second pickoff for a second liquid of a second viscosity, a meter register configured to control flow of the first liquid and the second liquid in accordance with one or more loading parameters and one or more liquid parameters, a flow control valve in fluid communication with the flow meter and configured to alter flow of at least one of the first liquid and the second liquid in response to a communication from the load rack controller, and a second articulating fluid conduit in fluid communication with the flow control valve and configured to couple to a second tank.

Abstract: The invention encompasses formulations and methods for the production thereof that permit the delivery of concentrated protein solutions. The inventive methods can yield a lower viscosity liquid formulation or a higher concentration of therapeutic or nontherapeutic proteins in the liquid formulation, as compared to traditional protein solutions.

Abstract: The invention encompasses formulations and methods for the production thereof that permit the delivery of concentrated protein solutions. The inventive methods can yield a lower viscosity liquid protein formulation or a higher concentration of therapeutic or nontherapeutic proteins in the liquid formulation, as compared to traditional protein solutions. The inventive methods can also yield a higher stability of a liquid protein formulation.