Abstract:
In some embodiments, method for producing liquid fuel from landfill gas, the method including providing landfill gas to a tri-reformer, performing a tri-reforming process on the landfill gas within the tri-reformer to convert the landfill gas into synthesis gas, wherein the tri-reforming process combines carbon dioxide reforming, steam reforming, water-gas shifting, and methane oxidation and wherein the synthesis gas has a H2:CO ratio of approximately 2:1, providing the synthesis gas to a Fischer-Tropsch synthesis (FTS) reformer, and converting the synthesis gas into liquid fuel within the FTS reformer.
Abstract:
In some embodiments, a system for producing liquid fuel from landfill gas includes a tri-reformer that receives landfill gas and produces synthesis gas having a H2:CO ratio of approximately 2:1, and a Fischer-Tropsch synthesis (FTS) reformer that receives the synthesis gas from the tri-reformer and produces liquid fuel.
Abstract:
In some embodiments, a system for producing liquid fuel from landfill gas includes a tri-reformer that receives landfill gas and produces synthesis gas having a H2:CO ratio of approximately 2:1, and a Fischer-Tropsch synthesis (FTS) reformer that receives the synthesis gas from the tri-reformer and produces liquid fuel.
Abstract:
A system for autonomous camera control includes a first robot having a surgical tool mounted as an end effector and a second robot having a camera mounted as an end effector. A controller may be provided for manipulating the second robot, where the controller stores a first kinematic model for the first robot and a second kinematic model for the second robot. The controller may be configured to automatically manipulate the second robot to position the camera based on the second kinematic model and an expected position of the surgical tool according the first kinematic model of the first robot. The controller is further configured to identify a threshold angle from a viewing axis of the camera, calculate a tool angle from the viewing axis of the camera, and move the camera toward or further away from the tool depending on if the tool angle is greater than or less than the threshold angle.
Abstract:
The invention is directed to a device and method to prevent migration of Human Mesenchymal Stem Cells (hMSCs) from a delivery site while allowing communication between the stem cells and native cardiomyocytes. The device is characterized by scaffold pore size, fiber diameter and biomaterial selection. The invention includes a two part polyurethane scaffold that prevents migration of stem cells, allows gap junction formation through pores and is packaged for minimally invasive delivery.
Abstract:
The present invention relates to pyrrolidine-2,5-dione compounds, and methods of preparation of these compounds. The present invention also relates to pharmaceutical compositions comprising pyrrolidine-2,5-dione compounds. The present invention provides methods of treating a cell proliferative disorder, such as a cancer, by administering to a subject in need thereof a therapeutically effective amount of a compound or pyrrolidine-2,5-dione compound of the present invention. (Ia) (Ib) (IIa) (IIIb) Where U is independently selected from: (I) or (II) where U is independently selected from:
Abstract:
Novel peptides that inhibit the release of microparticles from cells are disclosed. The peptide contains at least one VGFPV motif at the N-terminal and has a length of 10-100 amino acids. Also disclosed is polynucleotide encoding the peptide, expression vectors carrying the polynucleotide, and methods for treating AIDS and tumors using the novel peptides.
Abstract:
Wellbore-cleaning compositions comprising microemulsions are useful during cementing operations. The microemulsion solvent may be selected from the group comprising methyl esters and ethoxylated alcohols. The microemulsion surfactants comprise a water-wetting surfactant, a cleaning surfactant, an emulsifying surfactant, a non-ionic surfactant and a non-ionic co-surfactant. The wellbore-cleaning compositions may be pumped alone, ahead of a conventional spacer fluid or scavenger slurry and behind a conventional spacer fluid or scavenger slurry. In addition, the wellbore-cleaning composition may be incorporated into a carrier fluid such as (but not limited to) a conventional spacer fluid or scavenger slurry. The resulting fluid mixture may be pumped as a spacer fluid.
Abstract:
The current application discloses a method of removing debris from a wellbore including contacting debris in a wellbore with a treatment fluid, wherein the fluid contains degradable fibers, collecting at least a portion of the treatment fluid, and allowing the degradable fibers to degrade. The current application also discloses a method of removing debris from a wellbore including contacting debris in a wellbore with a treatment fluid, wherein the fluid contains degradable fibers, collecting the treatment fluid, and exposing the fluid to a composition to encourage the degradable fibers to degrade.
Abstract:
A fluid loss control method uses a fluid loss control pill in a well in advance of a completion operation. An embodiment of the fluid loss control pill comprises polyester solids that are hydrolysable and can exhibit plastic deformation at formation conditions. An embodiment of the method comprises spotting the fluid loss control pill in the well adjacent to a formation to form a filtercake to inhibit fluid entry from the well into the formation, performing a completion operation comprising contacting the filtercake with overbalanced wellbore fluid, and degrading the filtercake wherein the polyester particles are hydrolyzed to remove formation damage.