Protein Production
293FT, 293E, CHO

Truly Functional Protein
95% Purity
1-10 mg in 2 weeks

GeneExpressoMax™
293Expresso™

Transfection Reagents
* 90% Efficiency
* 95% Viability
* No sera interference
* Simple protocol
* High-throughput
* Only $98/ml

Baculovirus
Functional Protein
95% Purity
Fast turnaround
1-10 mg from Sf9 cells

Adenovirus, AAV
& Lentivirus

ORF or shRNA
* High Titer
* Cre, FLP, ΦC31
* Protein Kinases
* Transcription Factors
* Luciferases, GFP, RFP
* Protein Production
* Stable Cell Line


Excellgen

Joseph Benjamin Rucker
Integral Molecular

Project start date: 2011-02-01

Project end date: 2013-01-31


Sponsored Links Excellgen http://Excellgen.com

Recombinant Lentivirus & Adenovirus
High Yield and High Titer up to 1010 (lentivirus) and 1013 (adenovirus) for Guaranteed Expression of GOI. $3000, $2500
Transient Protein Expression in CHO and HEK293 Cells
Transient Expression, Truly Functional Protein, 95% purity, 1~20 mg, fast turnaround. $5500, $3950
Baculovirus Protein Expression
Fast turn around, >95% purity functional protein. No outsourcing to China or India. $5500, $3950


Grants awarded to Joseph Benjamin Rucker

DEVELOPMENT OF TASTE RECEPTOR LIGANDS USING STRUCTURE-ACTIVITY STUDIES

Joseph Benjamin Rucker, Director, R & D
Integral Molecular, 3701 Market St, 4th Floor, Philadelphia, Pa 19104-5502

Grant 5R43DC010105-02 from National Institute On Deafness And Other Communication Disorders

Abstract: As the primary mechanism by which animals detect nutrient-rich foods and discriminate against toxins, the sense of taste has a significant impact on health and behavior. Bitter tastes are perceived with high sensitivity and broad specificity, and can evoke strong aversive reactions that influence health-related behaviors such as dietary preference and pharmaceutical compliance. Conversely, sweet taste facilitates the detection and consumption of high carbohydrate (and hence highly caloric) foods, but over-consumption of calories can lead to obesity and diabetes. It is therefore desirable in many circumstances to manipulate taste perception and/or to provide taste substitutes. Bitter, sweet, and umami (savory) tastes are detected at the cellular level by a family of taste receptors (TASRs), which belong to the G protein-coupled receptor (GPCR) superfamily of proteins. Because they are refractory to direct structural visualization such as x-ray crystallography, very little is known about the structural features of TASRs that are responsible for binding ligands. Elucidating TASR-ligand structural interactions could enable the development of health-related products, such as bitter blockers and sugar substitutes. The results of this proposal would enable ligands of TASRs, and possibly other GPCRs, to be developed. Taste ligands are currently used to mask aversive tastes, improve patient compliance, influence choice of foods, and modify caloric intake, so routinely influence daily human activity. This proposal will contribute to human health by using a research platform to discover novel taste ligands

Keywords: Abbreviations; Amino Acids; Animals; Assay; Behavior; Binding; Binding (Molecular Function); Binding Sites; Bioassay; Biologic Assays; Biological Assay; Caloric Intake; Calories; Carbohydrates; Cell Communication and Signaling; Cell Signaling; Chemical Structure; Combining Site; Compliance behavior; Computer Simulation; Computerized Models; Consumption; Crystallographies; Crystallography; Data; Detection; Development; Diabetes Mellitus; Energy Intake; Evaluation; Family; Flavoring; Flavoring Agents; Food; G Protein-Complex Receptor; G-Protein-Coupled Receptors; Genetics-Mutagenesis; Goals; Gustation; Health; Health behavior; Human; Human Activities; Human, General; Imagery; Intracellular Communication and Signaling; Lead; Libraries; Ligand Binding; Ligands; Man (Taxonomy); Man, Modern; Maps; Masks; Mathematical Model Simulation; Mathematical Models and Simulations; Mediating; Methods; Modeling; Models, Computer; Molecular Biology, Mutagenesis; Molecular Interaction; Mutagenesis; Nutrient; Obesity; Patient Compliance; Patient Cooperation; Pb element; Pharmaceutical Agent; Pharmaceuticals; Pharmacologic Substance; Pharmacological Substance; Phase; Proteins; Reaction; Reactive Site; Receptor Protein; Refractory; Research; Savory; Screening procedure; Shotguns; Signal Transduction; Signal Transduction Systems; Signaling; Simulation, Computer based; Specificity; Structural Models; Structure; Structure-Activity Relationship; Sugar Substitute; Sweeteners; Sweetening Agents; Taste; Taste Perception; Testing; Toxin; Treatment Compliance; Visualization; adiposity; aminoacid; base; biological signal transduction; caloric dietary content; calorie (nutrition); chemical structure function; compliance cooperation; computational modeling; computational models; computational simulation; computer based models; computerized modeling; computerized simulation; corpulence; corpulency; corpulentia; design; designing; diabetes; gene product; heavy metal Pb; heavy metal lead; improved; in silico; mutant; novel; obese; obese people; obese person; obese population; patient adherence; phase 1 study; preference; public health relevance; receptor; salicin; salicyl alcohol glucoside; screening; screenings; structure function relationship; sweet taste; sweet taste perception; therapy compliance; therapy cooperation; tool; virtual simulation

Relevance: Taste ligands are currently used to mask aversive tastes, improve patient compliance, influence choice of foods, and modify caloric intake, so routinely influence daily human activity. This proposal will contribute to human health by using a research platform to discover novel taste ligands

Project start date: 2009-07-01

Project end date: 2011-06-30

Budget start date: 1-JUL-2010

Budget end date: 30-JUN-2011

PFA/PA: PA-08-071

5R43DC010105-02 (2010): $373651


1R43DC010105-01 (2009): $322592