| BIOLOGY | ||||
| TECH ID | TITLE | PATENTS | TECH SUMMARY | |
|
BIO00290 |
Process for transforming corn and the product thereof |
US Patent No.: 6,020,539 US Patent No.: 5,187,073 US Patent No.: 5,177,010 AU Patent No.: 606,874 JP Patent No.: 3,234,534 JP Patent No.: 2,693,443 CA Patent No.: 1,341,455 |
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| BIO00196 | Panel of antibodies for detecting cadherins and catenins in tissues and method of using the panel of antibodies | US Patent No.: 5,895,748 | ||
| BIO00196 | Panel of antibodies for detecting cadherins, catenins and plaque proteins in tissues and method of using the panel | US Patent No.: 5,997,866 | ||
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BIO01005 |
Altered peptide ligands of GAD65 |
Patent Pending |
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| CHEMISTRY | ||||
| TECH ID | TITLE | PATENTS | TECH SUMMARY | |
|
CHM00591 |
Method of delivery of a cytotoxic compound to a cancer cell using a plasminogen activator material |
US Patent No: 5,679,350 EP Patent No: 0643584 AR Patent No: 250,204 MX Patent No: 189,898 |
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| CHM01291 | Method of depositing a metal film on a silyl hydride containing surface of a solid and products produced thereby | US Patent No.: 5,281,440 |
This patent discloses a method of depositing a metal film on a silyl hydride surface of a solid such as silica gel, the solid normally having hydroxyl groups, the metal with a valence of zero being deposited on the surface by reaction of a metal ion in a solution with the hydrogens of the silyl hydrides. The above method is used to easily remove metal ions from a solution and also the method is a basis for determining the number of silyl hydride groups on the surface of the solid. | |
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CHM00107 |
Enhancement of dye-sensitized solar cells using colloidal metal nanoparticles |
Patent Pending |
This patent application comprises an enhancement for dye-sensitized solar cells. Dye-sensitized solar cells (DSSCs) are a promising potential alternative to the high-cost solar cells that are currently on the market, such as silicon based and thin film devices. DSSCs may be far cheaper than competing technologies, but they are also much less efficient at converting solar energy into useful electrical energy. Herein is described a method for using colloidal metal nanoparticles to improve the conversion efficiency of dye-sensitized solar cells. | |
| CHM00503 | Iterative one-pot oligosaccharide synthesis | Patent Pending | ||
| CHM00105 | Fabrication of zirconium oxide thin films by spray technology | |||
| CHM00205 | Elelctrodeposition of CR metal from solutions containing CR(III) cations | |||
| D2008-11 | Biochemical Assay for Acyltransferase Enzymes and Signaling Composition Useful Therein |
Patent Pending | ||
| ENGINEERING | ||||
| TECH ID | TITLE | PATENTS | TECH SUMMARY | |
|
ENG00390 |
High Efficiency Voltage Converter |
US Patent No.: 5,235,501 |
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|
ENG00491 |
A bioartificail pancreas organoid for the treatment of insulin dependent diabetes mellitus | US Patent No.: 5,425,764
US Patent No.: 5,674,289 US Patent No.: 5,855,616 |
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| ENG00192 | Active suspension systems and components using piezoelectric sensing and actuation devices | US Patent No.: 5,390,949 | ||
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ENG00593 |
AC to DC Converter System with Ripple Feedback Circuit |
US Patent No.: 5,237,492 |
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| ENG00196 ENG00796 |
Battery equalization circuit with ramp converter | US Patent No.: |
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| ENG00197 | Vortex generation for the control of the airflow along the surface of an airfoil | US Patent No.: 6,302,360 | ||
| ENG00398 | A blast load simulation system | US Patent No.: 6,536,258 |
This patent covers a system which includes a glass panel having two surfaces. The system also includes a membrane for covering at least one of the two surfaces of the glass panel. The system also includes means for delivering an impulse with a given characteristic to the glass panel through the membrane. | |
| ENG00102 | Bioartificial intervertebral disc | US Patent No.: 6,598,078 | ||
| ENG00603 | Conical bearingless motor/generator | Patent Pending |
Disclosures ENG00603 and ENG00803 cover a bearingless motor/generator (M/G) (note that this technology can be applied to a motor, a generator, or a motor/generator). Potential applications for bearingless M/Gs include flywheels, turbines, pumps, and machine tools. M/Gs consist of a rotor (the rotating portion) and a stator (the stationary part, which generates the drive field to spin the rotor). Typical M/Gs also have mechanical bearings, which hold the rotor in place while allowing it to spin freely. Mechanical bearings have many disadvantages; they generate friction (and thus losses), compromise the performance of the M/G (limit motor speed and allowable operating temperature), require lubrication, and can cause motor failure through mechanical breakdown. This patent describes a M/G design that will eliminate the need for mechanical bearings. | |
| ENG00803 | Novel control scheme for improved bearingless motor/generator | Patent Pending |
Disclosures ENG00603 and ENG00803 cover a bearingless motor/generator (M/G) (note that this technology can be applied to a motor, a generator, or a motor/generator). Potential applications for bearingless M/Gs include flywheels, turbines, pumps, and machine tools. M/Gs consist of a rotor (the rotating portion) and a stator (the stationary part, which generates the drive field to spin the rotor). Typical M/Gs also have mechanical bearings, which hold the rotor in place while allowing it to spin freely. Mechanical bearings have many disadvantages; they generate friction (and thus losses), compromise the performance of the M/G (limit motor speed and allowable operating temperature), require lubrication, and can cause motor failure through mechanical breakdown. This patent describes a M/G design that will eliminate the need for mechanical bearings. | |
|
ENG00204 |
A battery charger for combined battery ultra capacitor energy storage systems | Patent Pending | ||
| ENG00905 | Peak power tracking system for a solar array with a DC load | Patent Pending | ||
|
ENG01105 |
Compressible Self-Distracting Joint Replacement Assembly |
Patent Pending | ||
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ENG00106 |
High Frame Rate Imaging System |
Patent Pending | ||
|
ENG00306 |
Using Endogenous Polarization-Sensitive Fluorescence to Monitor Metabolic Changes in Living Cells |
Patent Pending |
This invention provides a method for determining the state cell metabolism and evaluating the changes in fluorescence from endogenous fluorophores within the cell. | |
|
ENG00706 |
Heart Rate Synchronizing System |
Patent Pending | ||
| ENG00807 |
Integrated system for measuring and equalizing cell voltages in large batteries |
Patent Pending | ||
|
ENG01106 |
Artificial facet system for lumbar spine |
Patent Pending | ||
|
ENG01206 |
Bioreactor for In Vitro Formation of the Nucleus Pulpuosus |
Patent Pending | ||
|
ENG01306 |
Sulfur-Tolerant Catalysts and Synthesis Thereof |
Patent Pending | ||
| D2008-01 | Nano-crystalline metal oxide thin film sensors |
Patent Pending |
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| D2008-03 | High throughput carbon nanotube growth system |
Patent Pending |
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| D2008-04 | Device to Assist in Standing and Sitting |
Patent Pending |
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| D2008-08 | Method to Fill Pinholes, Weak Shunts, and Scribe Lines, of Photovoltaic Devices |
Patent Pending |
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| D2008-13 | In Situ Visualization of Skin-Associated Dendritic Cell Behavior |
Patent Pending |
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| D2008-20 | Identification of Immediate Dendritic Cell Precursor Populations and Uses Thereof |
Patent Pending |
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| D2008-23 | System for Sensing Chlorine Gas Without Ned for Heating |
Patent Pending |
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| D2008-25 |
Desulfurizer-Reformer Reactor System for use with Solid Oxide Fuel Cells
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Patent Pending |
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| D2008-30 |
Method to Obtain Cellular RNA Substantially Free of Protein and DNA |
Patent Pending |
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| D2008-31 | Anti-Bio-fouling Nanocomposite Polypropylene Membrane Feed Spacers |
Patent Pending |
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| D2008-37 | Methods and Compositions for Protecting Against Diet-Induced Obesity and Insulin Resistance |
Patent Pending |
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| D2009-05 |
Method for Glycemic Forecasting |
Patent Pending |
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| PHARMACY | ||||
| TECH ID | TITLE | PATENTS | TECH SUMMARY | |
|
PHR00194 |
Method for increasing HDL cholesterol levels using heteroaromatic phenylmethanes | US Patent No.: 6,103,733 | ||
| PHR00296 | Method of using alpha-substituted benzylamine chiral auxiliary synthetic reagents | US Patent No.: 5,977,409 | ||
| PHR00199 | Methods for producing two-substituted glycerols having various levels of protection | US Patent No.: 6,255,540 | ||
| Tulane2000 | Methods for protection of stratified squamous epthelium against injury by noxious substances and novel agents for use therefor | US Patent No.: 6,743,820 B2 |
Novel sulfate ester agents and the use of those agents for treating gastroesophageal reflux disease (GERD) are described, exemplary agents being of the formula: ##STR1## wherein X is --OCH.sub.2 -- or --CH.sub.2 O--; Y is a group pendant from X comprising at least one --OSO.sub.3 R.sup.4 moiety, wherein R.sup.4 is H or a pharmaceutically acceptable cation; n is an integer from 1-3; and R.sup.1 and R.sup.2 are each independently selected from the group consisting of --H, a halogen with an atomic number from 9 to 53, --SO.sub.3 R.sup.4, --NCS, --NCO, --NH(CO)--OR.sup.3, --NH(CS)SR.sup.3, --NH(C.dbd.NH)OR.sup.3, --NHCOCH.sub.2 Cl, --NHCOCH.sub.2 Br, --NHCO--CH.dbd.CH.sub.2, --NHC(O)--CF.sub.3, wherein R.sup.4 is H or a pharmaceutically acceptable cation. | |
| MBC00101 | Cyclic beta-sheet peptides useful as apoptotic/cytotoxic cancer agents | US Serial No.: 10/162,134 |
Peptides and pharmaceutical compositions of matter useful as cytotoxic compositions particularly for, but not limited to, treatment of cancers, that includes a synthetic peptide whose amino acid sequence is different from an initial loop of cobra cardiotoxin. | |
| PHR00101 | Methods for the selective removal of acyl-functionality attached to the 2 hydroxy-group of paclitaxel-related derivatives | US Patent No.: 6,846,937 |
This patent covers a method for removing acyl-groups appended by an ester linkage to the 2'-hydroxyl group present in paclitaxel-related molecules comprising treatment with alcohol under non-acidic conditions. 2',7-bis-Monochloroacetylpaclitaxel analogs are converted to their corresponding 7-monochloroacetyl derivatives by treatment with alcohol under non-acidic conditions ##STR1## | |
| PHR00102 | Paclitaxel hybrid derivatives | Patent Pending |
This patent application covers methods and compositions for treating cancer patients that include administering at least one or more hybrid derivatives of paclitaxel that simultaneously display improved aqueous solubility, chemical stability under physiological conditions, a decreased liability toward multi-drug resistance, and in certain instances enhanced selective toxicity toward cancer cells compared to normal cells. The derivative, paclitaxel substituted with at least one or more polar appendages at either the 7- or 10- positions as defined by a formula ?7-OR-10-OR?-paclitaxel?, is either deployed alone or in combination protocols with other chemotherapeutic agents. | |
| PHR00104 | PXR agonists for cardiovascular disease | Patent Pending | ||
| PHR00304 | New antimitotic epothilone analogues as anti-cancer agents | Patent Pending | ||
| PHR00307 | Method for synthesizing Xanthohumol |
Patent Pending |
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|
PHR00107 |
New epothilone analogues as antileukemic agents |
Patent Pending |
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| PHYSICS | ||||
| TECH ID | TITLE | PATENTS | TECH SUMMARY | |
|
PHYS0192 |
Process for RF sputtering of cadmium telluride photovoltaic cell | US Patent No.: 5,393,675 |
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| PHYS01094 | Sensor using long range surface plasmon resonance with diffraction double-grating | US Serial No.: 5,846,843 |
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| PHYS00199 | Method of measuring surface plasmon resonance using interference structure of reflected beam profile | US Patent No.: 6,731,388 |
Changes in optical properties of layered materials are measured by directing an incident wave of finite transverse dimensions toward layered materials under conditions that will produce a propagating surface mode or a waveguide mode in the layered materials. The intensity distribution is measured within the transverse beam profile of the total reflected beam. The profile shows asymmetric structure associated with the excitation of the propagating surface mode or a wave-guide mode. The index of refraction of the layered materials is modified and the reshaped intensity distribution within the transverse beam profile of the total reflected beam is again measured under the same incidence conditions. The measured intensity distributions are compared to detect differences in the indexes of refraction in the layered materials. | |
| PHYS00100 | Method of manufacturing semiconductor having group II-group VI compounds doped with nitrogen | US Patent No.: 6,852,614 |
A tunnel junction structure comprises an n-type tunnel junction layer of a first semiconductor material, a p-type tunnel junction layer of a second semiconductor material and a tunnel junction between the tunnel junction layers. The first semiconductor material includes gallium (Ga), nitrogen (N), arsenic (As) and is doped with a Group VI dopant. The probability of tunneling is significantly increased, and the voltage drop across the tunnel junction is consequently decreased, by forming the tunnel junction structure of materials having a reduced difference between the valence band energy of the material of the p-type tunnel junction layer and the conduction band energy of the n-type tunnel junction layer. Doping the first semiconductor material n-type with a Group VI dopant maximizes the doping concentration in the first semiconductor material, thus further improving the probability of tunneling. | |
| PHYS00102 | Method for improving thin-film photovoltaic stability | US Patent No.: 7,098,058 |
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| PHYS00202 | Method of making diode structures | US Serial No.: 10/722,643 |
A method of making a diode structure includes the step of depositing a transparent electrode layer of any one or more of the group ZnO, ZnS and CdO onto a substrate layer, and depositing an active semiconductor junction having an n-type layer and a p-type layer onto the transparent electrode layer under process conditions that avoid substantial degradation of the electrode layer. A back electrode coating layer is applied to form a diode structure. | |
|
PHYS00304 |
System for detecting nanoparticles using modulated surface plasmon resonance |
Patent Pending |
A method for detecting magnetic nanoparticles includes using the plasmon enhancement of a magneto-optical (MO) response in at least one nanoparticle. | |
|
PHYS00106 |
Corrosion resistant electrodes and corrosion resistant protective tunneling layers |
Patent Pending |
The invention introduces a new concept and construction of corrosion protective layer based on amorphous film made of electrically insulating material. | |
| D2008-06 | System for Diagnosis and Treatment of Structural Non-uniformities in Semiconductor Devices |
Patent Pending | ||
| D2008-17 | Nanodipole Photovoltaics |
Patent Pending |
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|
RESEARCH MATERIALS | ||||
|
Uncongugated Monoclonal Antibodies | ||||
| Name | Clone | Antigen | Reactivity | Applications |
| alpha Catenin | 1G5 | alpha Catenin (CTNNA1) | human | Immunofluorescence, Immunoprecipitation, Western Blot |
| beta Catenin | 9F2 | beta Catenin (CTNNB1) | human, mouse | Immunofluorescence, Immunoprecipitation, Western Blot |
| 15B8 | beta Catenin (CTNNB1) | human, cow, dog | Immunofluorescence, Immunocytochemistry, Western Blot | |
| 15B8 | beta Catenin (CTNNB1) | human, cow, dog | Immunofluorescence, Immunocytochemistry, Western Blot | |
| 12F7 | beta Catenin (CTNNB1) | human, mouse, rat, pig | Immunofluorescence, Immunohistochemistry - Parrafin, Immunoprecipitation, Western Blot | |
| gamma Catenin (Plakoglobin) | 11E4 | gamma Catenin (Plakoglobin) | human, mouse | Immunofluorescence, Immunoprecipitation, Western Blot |
| 15F11 | gamma Catenin (Plakoglobin) | human, mouse, rat, chicken, cow, dog | Immunofluorescence, Immunohistochemistry, Immunoprecipitation, Western Blot | |
| Calpain | P-1 | Calpain reg | human, cow | Immunofluorescence, Immunoprecipitation, Western Blot |
| P-9 | Calpain 1 | human, mouse, rat | Immunofluorescence, Immunoprecipitation, Western Blot | |
| 6C-12 | Calpain 1 | human | Immunofluorescence, Immunoprecipitation, Western Blot | |
| Calpastatin | PI-11 | Calpastatin | human | Immunofluorescence, Western Blot |
| Desmocollin | 7G6 | Desmocollin 2 / 3 | human | Immunofluorescence, Immunoprecipitation, Western Blot |
| Desmoglein 1 | 27B2 | Desmoglein 1 (Does not cross-react with Desmoglein 2 or 3) | human | Immunofluorescence, Immunohistology - Frozen, Immunoprecipitation, Western Blotting |
| Desmoglein 2 | 28E5 | Desmoglein 2 (Dsg 2) | human | Immunofluorescence, Immunoprecipitation, Western Blot |
| 6D8 | Desmoglein 2 (Dsg 2) | human | Immunohistology - Frozen, Immunoprecipitation, Western Blotting | |
| Desmogelin 3 | 5H10 | Desmoglein 3 (Dsg 3) | human | Immunofluorescence, Immunoprecipitation, Western Blot |
| 5G11 | Desmoglein 3 (Dsg 3) | human | Immunohistochemistry - Frozen, Immunohistochemistry - Parrafin, Immunoprecipitation, Western Blot | |
| N-Cadherin | 8C11 | N-Cadherin (Cadherin 2) | human | Immunofluorescence, Immunoprecipitation, Western Blot |
| 13A9 | N-Cadherin (Cadherin 2) | human | Immunohistochemistry, Immunohistochemistry, Immunoprecipitation, Western Blot | |
| P-Cadherin | 6A9 | P-Cadherin (Cadherin 3) | human | Immunofluorescence, Immunoprecipitation, Western Blot |
| 12H6 | P-Cadherin (Cadherin 3) | human | Immunofluorescence, Western Blot | |
| Plakophilin 1 | 10B2 | Plakophilin-1 | human | Immunofluorescence, Immunoprecipitation, Western Blot |
| Protocadherin 30 | 8C5 | FAT2 (PCDH30) | human | Immunofluorescence, Immunoprecipitation, Western Blot |