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Posts Tagged ‘Dr. Sag’

A NEW ERA OF GENETIC MANIPULATION  

Posted in Academic Publishing, Bacterial Resistance, Diagnostics and Lab Tests, Disease Biology, Small Molecules in Development of Therapeutic Drugs, Gene Regulation, Genetics & Pharmaceutical, Genome Biology, tagged , , , , , , , , , , , , , , , , , , on April 14, 2015| Leave a Comment »


Demet Sag, PhD, CRA, GCP

 

Gene engineering and editing specifically are becoming more attractive. There are many applications derived from microbial origins to correct genomes in many organisms including human to find solutions in health.

There are four customizable DNA specific binding protein applications to edit the gene expression in translational genomics. The targeted DNA double-strand breaks (DSBs) could greatly stimulate genome editing through HR-mediated recombination events.  We can mainly name these site-specific DNA DSBs:

 

  1. meganucleases derived from microbial mobile genetic elements (Smith et al., 2006),
  2. zinc finger (ZF) nucleases based on eukaryotic transcription factors (Urnov et al., 2005;Miller et al., 2007),
  3. transcription activator-like effectors (TALEs) from Xanthomonasbacteria (Christian et al., 2010; Miller et al., 2011; Boch et al., 2009; Moscou and Bogdanove, 2009), and
  4. most recently the RNA-guided DNA endonuclease Cas9 from the type II bacterial adaptive immune system CRISPR (Cong et al., 2013;Mali et al., 2013a).

There is a new ground breaking study published in Science by Valentino Gantz and Ethan Bier of the University of California, San Diego, described an approach called mutagenic chain reaction (MCR).

This group developed a new technology for editing genes that can be transferable change to the next generation by combining microbial immune defense mechanism, CRISPR/Cas9 that is the latest ground breaking technology for translational genomics with gene therapy-like approach.

  • In short, this so-called “mutagenic chain reaction” (MCR) introduces a recessive mutation defined by CRISPR/Cas9 that lead into a high rate of transferable information to the next generation. They reported that when they crossed the female MCR offspring to wild type flies, the yellow phenotype observed more than 95 percent efficiency.

 

Development and Applications of CRISPR-Cas9 for Genome Engineeri

Structural and Metagenomic Diversity of Cas9 Orthologs

(A) Crystal structure of Streptococcus pyogenes Cas9 in complex with guide RNA and target DNA.

(B) Canonical CRISPR locus organization from type II CRISPR systems, which can be classified into IIA-IIC based on their cas gene clusters. Whereas type IIC CRISPR loci contain the minimal set of cas9, cas1, andcas2, IIA and IIB retain their signature csn2 and cas4 genes, respectively.

(C) Histogram displaying length distribution of known Cas9 orthologs as described in UniProt, HAMAP protein family profile MF_01480.

(D) Phylogenetic tree displaying the microbial origin of Cas9 nucleases from the type II CRISPR immune system. Taxonomic information was derived from greengenes 16S rRNA gene sequence alignment, and the tree was visualized using the Interactive Tree of Life tool (iTol).

(E) Four Cas9 orthologs from families IIA, IIB, and IIC were aligned by ClustalW (BLOSUM). Domain alignment is based on the Streptococcus pyogenes Cas9, whereas residues highlighted in red indicate highly conserved catalytic residues within the RuvC I and HNH nuclease domains.

(Cell. Author manuscript; available in PMC 2015 Feb 27.Published in final edited form as:

Cell. 2014 Jun 5; 157(6): 1262–1278.doi:  10.1016/j.cell.2014.05.010)

 

The uniqueness of this study comes from:

 

  • There is a big difference between the new type of mutation and traditional mutation is expressivity of the character since previously mutations were passive and non-transferable at 100% rate. However,  in classical Mendelian Genetics, only one fourth f the recessive traits can be presented in new generation. Yet, in this case this can be achieve about 97% plus transferred to new generation.

 

  • MCR alterations is active that is they convert matching sequences at the same target site so mutated sites took over the wild type character without degenerating by wild type alleles segregating independently during the breeding process

 

  • Therefore, the altered sequences routinely replace the wild type (original) sequences at that site. The data demonstrated that among 92 flies, only one female became wild type but remaining 41 females had yellow eyes yet all 50 males showed wild type eye coloring at the second generation.

 

  • The genetic engineering of the genome occurred in a single generation with high efficiency.

 

Their technique developed by Gantz and Bier had three basic parts:

 

  1. Both somatic and germline cells expressed a Cas9 gene,

 

  1. A guide RNA (gRNA) targeted to a genomic sequence of interest,

 

  1. The Cas9/gRNA cassettes have the flanking homolog arms that matches the two genomic sequences immediately adjacent to either side of the target cut site

 

There are many applications in translational genomics that requires multiple steps to make it perfect for complicated organisms, such as plants, mosquitoes and human diseases.

Short Walk from Past to the Future of CRISPR/Cas9

Development and Applications of CRISPR-Cas9 for Genome Engineeri

The RNA-guided Cas9 nuclease from the microbial clustered regularly interspaced short palindromic repeats (CRISPR) adaptive immune system can be used to facilitate efficient genome engineering in eukaryotic cells by simply specifying a 20-nt targeting sequence within its guide RNA.

CRISPR/Cas systems are part of the adaptive immune system of bacteria and archaea, protecting them against invading nucleic acids such as viruses by cleaving the foreign DNA in a sequence-dependent manner.

The latest ground-breaking technology for genome editing is based on RNA-guided engineered nucleases, which already hold great promise due to their:

  • simplicity,
  • efficiency and
  • versality

Although CRISPR arrays were first identified in the Escherichia coli genome in 1987 (Ishino et al., 1987),

their biological function was not understood until 2005, when it was shown that the spacers were homologous to viral and plasmid sequences suggesting a role in adaptive immunity (Bolotin et al., 2005; Mojica et al., 2005; Pourcel et al., 2005).

Two years later, CRISPR arrays were confirmed to provide protection against invading viruses when combined with Cas genes (Barrangou et al., 2007).

The mechanism of this immune system based on RNA-mediated DNA targeting was demonstrated shortly thereafter (Brouns et al., 2008; Deltcheva et al., 2011; Garneau et al., 2010; Marraffini and Sontheimer, 2008).

 

The most widely used system is the type II clustered regularly interspaced short palindromic repeat (CRISPR)/Cas9 (CRISPR-associated) system from Streptococcus pyogenes (Jinek et al., 2012).

Then, five independent groups demonstrated that the two-component system was functional in eukaryotes (human, mouse and zebrafish), indicating that the other functions of the CRISPR locus genes were supported by endogenous eukaryotic enzymes (Cho et al., 2013, Cong et al., 2013, Hwang et al., 2013, Jinek et al., 2013 and Mali et al., 2013).

Beginning with target design, gene modifications can be achieved within as little as 1-2 weeks, and modified colonial cell lines can be derived within 2-3 weeks

 

Development and Applications of CRISPR-Cas9 for Genome Engineeri

Genome editing with site-specific nucleases.

Double-strand breaks induced by a nuclease at a specific site can be repaired either by non-homologous end joining (NHEJ) or homologous recombination (HR).  In most cases, NHEJ causes random insertions or deletions (indels), which can result in frameshift mutations if they occur in the coding region of a gene, effectively creating a gene knockout.

Alternatively, when the DSB generates overhangs, NHEJ can mediate the targeted introduction of a double-stranded DNA template with compatible overhangs

Even though the generation of breaks in both DNA strands induces recombination at specific genomic loci, NHEJ is by far the most common DSB repair mechanism in most organisms, including higher plants, and the frequency of targeted integration by HR remains much lower than random integration.

  • Unlike its predecessors, the CRISPR/Cas9 system does not require any protein engineering steps, making it much more straightforward to test multiple gRNAs for each target gene

 

  • Unlike ZFNs and TALENs, the CRISPR/Cas9 system can cleave methylated DNA in human cells (Hsu et al., 2013), allowing genomic modifications that are beyond the reach of the other nucleases (Ding et al., 2013).

 

  • The main practical advantage of CRISPR/Cas9 compared to ZFNs and TALENs is the ease of multiplexing. The simultaneous introduction of DSBs at multiple sites can be used to edit several genes at the same time (Li et al., 2013; Mao et al., 2013) and can be particularly useful to knock out redundant genes or parallel pathways.

 

  • Finally, the open access policy of the CRISPR research community has promoted the widespread uptake and use of this technology in contrast, for example, to the proprietary nature of the ZFN platform.

The community provides access to plasmids (e.g., via the non-profit repository Addgene), web tools for selecting gRNA sequences and predicting specificity:

Downside:

One area that will likely need to be addressed when moving to more complex genomes, for instance, is off-target CRISPR/Cas9 activity since fruit fly has only four chromosomes and less likely to have off-target effects. However, this study provided proof of principle.

  • Yet, this critics is not new since one of the few criticisms of the CRISPR/Cas9 technology is the relatively high frequency of off-target mutations reported in some of the earlier studies (Cong et al., 2013; Fu et al., 2013; Hsu et al., 2013; Jiang et al., 2013a; Mali et al., 2013; Pattanayak et al., 2013).

 

Several strategies have been developed to reduce off-target genome editing, the most important of which is the considered design of the gRNA.

 

  • fusions of catalytically inactive Cas9 and FokI nuclease have been generated, and these show comparable efficiency to the nickases but substantially higher (N140-fold) specificity than the wild-type enzyme (Guilinger et al., 2014; Tsai et al., 2014)

 

  • Altering the length of the gRNA can also minimize non-target modifications. Guide RNAs with two additional guanidine residues at the 5′ end were able to avoid off-target sites more efficiently than normal gRNAs but were also slightly less active at on-target sites (Cho et al., 2014)

Development and Applications of CRISPR-Cas9 for Genome Engineeri

What more:

The CRISPR/Cas9 system can be used for several purposes in addition to genome editing:

  • The ectopic regulation of gene expression, which can provide useful information about gene functions and can also be used to engineer novel genetic regulatory circuits for synthetic biology applications.

 

  • The external control of gene expression typically relies on the use of inducible or repressible promoters, requiring the introduction of a new promoter and a particular treatment (physical or chemical) for promoter activation or repression.

 

  • Disabled nucleases can be used to regulate gene expression because they can still bind to their target DNA sequence. This is the case with the catalytically inactive version of Cas9 which is known as dead Cas9 (dCas9).

 

  • Preparing the host for an immunotherapy is possible if it is combined with TLR mechanism:

On the other hand, the host mechanism needs to be review carefully for the design of an effective outcome.

The mechanism of microbial response and infectious tolerance are complex.

 

During microbial responses, Toll-like receptors (TLRs) play a role to differentiate and determine the microbial structures as a ligand to initiate production of cytokines and pro-inflammatory agents to activate specific T helper cells.

 

Uniqueness of TLR comes from four major characteristics of each individual TLR :

 

  1. ligand specificity,
  2. signal transduction pathways,
  3. expression profiles and
  4. cellular localization.

 

Thus, TLRs are important part of the immune response signaling mechanism to initiate and design adoptive responses from innate (naïve) immune system to defend the host.

 

TLRs are expressed cell type specific patterns and present themselves on APCs (DCs, MQs, monocytes) with a rich expression  levels Specific TLR stimulat ion links innate and acquired responses through simple recognition of pathogen-associated molecular patterns (PAMPs) or co-stimulation of PAMPs with other TLR or non-TLR receptors, or even better with proinflammatory cytokines.

 

Some examples of ligand – TLR specificity shown in Table1, which are bacterial lipopeptides, Pam3Cys through TLR2, double stranded (ds) RNAs through TLR3, lipopolysaccharide (LPS) through TLR4, bacterial flagellin through TLR5, single stranded RNAs through TLR7/8, synthetic anti-viral compounds imiquinod through TLR 7 and resiquimod through TLR8, unmethylated CpG DNA motifs through TLR9.

 

The specificity is established by correct pairing of a TLR with its proinflammatory cytokine(s), so that these permutations influence creation and maintenance of cell differentiat ion.

Development and Applications of CRISPR-Cas9 for Genome Engineeri

 

  • Immunotherapy: The immune cells can be used as a sensor to scavenger the circulating malformed cells in vivo diagnostics or attack and remember them, for instance, relapse of cancer, re-infection with a same or similar agent (bacteria or virus) etc.

Not only using unique microbial and other model organism properties but also using the human host defense mechanism during innate immune responses may bring a new combat to create a new method of precision medicine. This can be a new type of immunotherapy, immune cell mediated gene therapy or vaccine even a step for an in vivo diagnostics.

 

Molecular Genetics took a long road from discovery of restriction enzymes, developing PCR assays, cloning were the beginning. Now, having technology to sequence and compare the sequences between organisms also help to design more sophisticated methods.

Generating mutant lines in Drosophila with the classical genetics methods relies on P elements, a type of transposon and balancers after crossing selected flies with specific markers. This fly pushing is a very tedious work but powerful to identify primary pathways, mechanisms and gene interactions in system and translational  genomics.

 Thus, Microbial Immunomodulation is an important factor not only using the microorganisms or their mechanisms but also modulating the immune cells based on the host interaction may generate new types of diagnostics and targeted therapy tools.

 

Microbial immunomodulation. Microbes from the environment, and from the various microbiota, modulate the immune system. Some of this is due to direct effects of defined microbial products on elements of the immune system. But modulation of the immune system also secondarily alters the host–microbiota relationship and leads to changes in the composition of the microbiota, and so to further changes in immunoregulation (shown as indirect pathways). At the end of the day balance is the key for survival.

microbial immunomodulationGrahamnihms199923f2 A. W. Rook,*,1 Christopher A. Lowry,2 and Charles L. Raison3  Microbial ‘Old Friends’, immunoregulation and stress resilience  Evol Med Public Health. 2013; 2013(1): 46–64. Published online 2013 Apr 9. doi:  10.1093/emph/eot004 PMCID: PMC3868387

http://www.ncbi.nlm.nih.gov/pmc/articles/PMC2881665/bin/nihms199923f2.jpg

 

CRISPR-Cas9 mediated NHEJ in transient transfection experiments.

Table 1.
Species Transformation method Cas9 codon optimization Promoters (Cas9,  gRNA) Target Mutation frequency Detection method Off-target (no. of sites analyzed) Detection method Multiplex (deletion) Reference
Arabidopsis thaliana PEG-protoplast transfection Arabidopsis (with intron) CaMV35SPDK, AtU6 PDS3<comma> FLS2 1.1–5.6% PCR + sequencing Li et al. (2013)
A. thaliana Leaf agroinfiltration Arabidopsis (with intron) CaMV35SPDK, AtU6 PDS3 2.70% PCR + sequencing Yes (48 bp) Li et al. (2013)
A. thaliana PEG-protoplast transfection Arabidopsis (with intron) CaMV35SPDK,  AtU6 RACK1b<comma> RACK1c 2.5–2.7% PCR + sequencing No (1 site) PCR + sequencing Li et al. (2013)
A. thaliana Leaf agroinfiltration C. reinhardtii CaMV35S, AtU6 Co-transfected GFP n.a. Pre-digested PCR + RE Jiang et al. 2013a and Jiang et al. 2013b
Nicotiana benthamiana PEG-protoplast transfection Arabidopsis (with intron) CaMV35SPDK, AtU6 PDS3 37.7–38.5% PCR + sequencing Li et al. (2013)
N. benthamiana Leaf agroinfiltration Arabidopsis (with intron) CaMV35SPDK,  AtU6 PDS3 4.80% PCR + sequencing Li et al. (2013)
N. benthamiana Leaf agroinfiltration Human CaMV35S,  AtU6 PDS 1.8–2.4% PCR + RE No (18 sites) PCR + RE Nekrasov et al. (2013)
N. benthamiana Leaf agroinfiltration C. reinhardtii CaMV35S, AtU6 Co-transfected GFP n.a. pre-digested PCR + RE Jiang et al. 2013a and Jiang et al. 2013b
N. benthamiana Leaf agroinfiltration Human CaMV35S, CaMV35S PDS 12.7–13.8% Upadhyay et al. (2013)
Nicotiana tabacum PEG-protoplast transfection Tobacco 2xCaMV35S, AtU6 PDS<comma> PDR6 16.27–20.3% PCR + RE Yes (1.8 kb) Gao et al. (2014)
Oryza sativa PEG-protoplast transfection Rice 2xCaMV35S, OsU3 PDS<comma> BADH2<comma> MPK2<comma> Os02g23823 14.5–38.0% PCR + RE Noa (3 sites) PCR + RE Shan et al. (2013)
O. sativa PEG-protoplast transfection Human CaMV35S,  OsU3 or OsU6 MPK5 3–8% RE + qPCR and T7E1 assay No (2 sites) Yes (1 site with a mismatch at position 12) RE + PCR Xie and Yang (2013)
O. sativa PEG-protoplast transfection Rice CaMV35S,  OsU6 SWEET14 n.a. pre-digested PCR + RE Jiang et al. 2013a and Jiang et al. 2013b
O. sativa PEG-protoplast transfection Rice ZmUbi,  OsU6 KO1 KOL5; CPS4 CYP99A2; CYP76M5 CYP76M6 n.a. PCR + sequencing Yes (115<comma> 170<comma> 245 kb) Zhou et al. (2014)
Triticum aestivum PEG-protoplast transfection Rice 2xCaMV35S, TaU6 MLO 28.50% PCR + RE Shan et al. (2013)
T. aestivum PEG-protoplast transfection Plant ZmUbi, TaU6 MLO-A1 36% T7E1 Wang et al. 2014a and Wang et al. 2014b
T. aestivum Agrotransfection of cells from immature embryos Human CaMV35S,  CaMV35S PDS<comma> INOX 18–22% PCR + sequencing Upadhyay et al. (2013)
T. aestivum Agrotransfection of cells from immature embryos Human CaMV35S,  CaMV35S INOX PCR + sequencing No* PCR + RE Yes (53 bp) Upadhyay et al. (2013)
Zea mays PEG-protoplast transfection Rice 2xCaMV35S,  ZmU3 IPK 16.4–19.1% PCR + RE Liang et al. (2014)
Citrus sinensis Leaf agroinfiltration Human CaMv35S,  CaMV35S PDS 3.2–3.9% PCR + RE No (8 sites) PCR + RE Jia et al. (2014)

 

 

 

References:

A brief overview of CRISPR-mediated immunity and explain how the emerging new properties of this defense system are being repurposed for genome engineering in bacteria, yeast, human cells, insects, fish, worms, plants, frogs, pigs, and rodents.

Also look at F1000Prime Rep. 2014; 6: 3. For the list of microorganisms use in CRISPR applications.

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Previously Published at Leaders in Pharmaceutical Intelligence:

 

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About the author:

Dr Sag has a Bachelor’s degree in Basic and Industrial Microbiology as a Sum cum Laude among 450 graduating class of Science faculty,  an MSc in Microbial Engineering and Biotechnology (Bioprocessing improvement) and PhD in Molecular and Developmental Genetics (Functional Genome and Stem Cell Biology).

She is an translational functional genomic scientist to develop diagnostics and targeted therapies by non-invasive methods for personalized medicine from bench to bedside and engineering tools through clinical trials and regulatory affairs.

You may contact with her at 858-729-4942 or by demet.sag@gmail.com if you have questions.

 

 

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Pancreatic Cancer and Crossing Roads of Metabolism

Posted in Best evidence, Biomarkers & Medical Diagnostics, Calcium Signaling, Calmodulin Kinase and Contraction, Cancer and Current Therapeutics, CANCER BIOLOGY & Innovations in Cancer Therapy, Cancer Prevention: Research & Programs, Cancer Screening, Cell Biology, Signaling & Cell Circuits, Diabetes Mellitus, Diagnostic Immunology, Disease Biology, Drug Delivery Platform Technology, Gene Regulation, Gene Regulation and Evolution, Genetics & Innovations in Treatment, Genetics & Pharmaceutical, Genome Biology, Genomic Testing: Methodology for Diagnosis, Immunodiagnostics, Metabolism, Molecular Genetics & Pharmaceutical, Personal Health Applications: Tech Innovations serves HealhCare, Personalized and Precision Medicine & Genomic Research, Pharmaceutical Drug Discovery, Translational Research, Translational Science, tagged , , , , , , , , , , , , , , , , , , , , , on March 18, 2015| 6 Comments »


Pancreatic Cancer and Crossing Roads of Metabolism

Curator: Demet Sag, PhD

 

PART I: Pancreatic Cancer

  • Intro
  • What is Pancreas cancer
  • What are the current and possible applications for treatment and early diagnosis
  • How pancreatic cancer is related to obesity, overweight, BMI, diabetes
  • Genetics of Pancreatic Cancer

PART II : Translational Research on Molecular Genetics Studies at Immune Response Mechanism 

  • Natural Killer Cells
  • IL-17
  • Chemokines

search_result- pancreatic cancer clinical trial studies

https://clinicaltrials.gov/ct2/results?term=Pancreatic+Cancer&Search=Searchpc 1

PART I: Pancreatic Cancer

Introduction:

Our body works a s a system even during complex diseases that is sometimes forgotten.  From nutrition to basic immune responses since we are born we start to change how we respond and push the envelope to keep hemostasis in our body.

During this time additional factors also increase or decrease the rate of changes such as life style, environment, inherited as well acquired genetic make-up, types of infections, weight and stress only some of them. As a result we customized our body so deserve a personalized medicine for a treatment. Customized approach is its hype with developing technology to analyze data and compare functional genomics of individuals.

However, still we need the basic cell differentiation to solve the puzzle to respond well and connect the dots for physiological problems.  At the stem of the changes there is a cell that respond and amplify its reaction to gain a support to defend at its best . Thus, in this review I like to make a possible connection for pancreatic cancer, obesity-diabetes and innate immune response through natural killer cells.

Pancreatic cancer is one of the most lethal malignancies. Pancreatic cancer is one of the most difficult cancers to treat. Fewer than 5% of patients survive more than 5 years after diagnosis. The 5-year survival rate is despite therapeutic improvements still only 6%. More than 80% of the pancreatic tumors are classified as pancreatic ductal adenocarcinoma (PDA).

When cells in the pancreas that secrete digestive enzymes (acinar cells) turn into duct-like structures, pancreatic cancer can develop. Oncogenic signaling – that which causes the development of tumors – can influence these duct-like cells to form lesions that are a cancer risk.

 

Crossing roads

The recent publication brought up the necessity to understand how pancreatic cancer and IL17 are connected.

Schematic diagram showing the central role of IL-17B–IL-17RB signaling in pancreatic cancer metastasis.

Adapted from an illustration by Heng-Hsiung Wu and colleagues

http://jem.rupress.org/content/212/3/284/F2.large.jpg

 

Simply, obesity and diabetes increases the risks of cancers, cardiovascular disease, hypertension, and type-2 DM.  There is a very big public health concern as obesity epidemic, the incidence of diabetes is increasing globally, with an estimated 285 million people, or 6.6% of the population from 20 to 79 years of age, affected this is especially more alarming as child obesity is on the rise.

According to a World Health Organization (WHO) report showing that 400 million people are obese in the world, with a predicted increase to 700 million by 2015  and in the US, 30–35 percent of adults are obese.  In addition, high BMI and increased risk of many common cancers, such as liver, endometrium, breast, pancreas, and colorectal cancers have a linear increasing relationship.

The BMI is calculated by dividing body weight in kilograms by height squared in meters kg/m2). The current standard categories of BMI are as follows: underweight, <18.5; normal weight, 18.5–24.9; overweight, 25.0–29.9; obese, 30.0–34.9; and severely obese, > or = 35.0).

Furthermore, natural killer cells not only control innate immune responses but have function in other immune responses that was not recognized well before.

Recently, there have been reports regarding Natural Killer cells on was about the function of IL17 that is produced by iNKT, a subtype of NK, for a possible drug target.  In addition, regulation of receptors that are up or downregulated by NK cells for a precise determination between compromised cells and healthy cells.

Therefore, instead of sole reliance on SNPs, or GWAS for early diagnostics or only organ system base pathology, compiling the overall health of the system is necessary for a proper molecular diagnostics and targeted therapies.

  • What is Pancreas cancer

SNAP SHOT:

Incidence

  • It is a rare type of cancer.
  • 20K to 200K US cases per year

 Medically manageable

Treatment can help

 Requires a medical diagnosis

  1. lab tests or imaging
  2. spreads rapidly and has a poor prognosis.
  3. treatments may include: removing the pancreas, radiation, and chemotherapy.

 Ages affected; even though person may develop this cancer from age 0 to 60+ there is a high rate of incidence after age 40.

 

People may experience:

  • Pain: in the abdomen or middle back
  • Whole body: nausea, fatigue, or loss of appetite
  • Also common: yellow skin and eyes, fluid in the abdomen, weight loss, or dark urine
  • The pancreas secretes enzymes that aid digestion and hormones that help regulate the metabolism of sugars.

Prescription

  • Chemotherapy regimen by injection: Irinotecan, Gemcitabine (Gemzar), Oxaliplatin (Eloxatin)
  • Other treatments: Leucovorin by injection, Fluorouracil by injection (Adrucil)

 

Also common

  • Chemotherapy regimen: Gemcitabine-Oxaliplatin regimen, Docetaxel-Gemcitabine regimen
  • Procedures: Radiation therapy, Pancreatectomy, surgery to remove pancreatic tumors

 

Specialists

  • Radiologist: Uses images to diagnose and treat disease within the body.
  • Oncologist: Specializes in cancer.
  • Palliative medicine: Focuses on improving quality of life for terminally ill patients.
  • General surgeon: Performs a range of surgeries on the abdomen, skin, breast, and soft tissue.
  • Gastroenterologist: Focuses on the digestive system and its disorders.

What are the current and possible applications for treatment and early diagnosis

Diagnostics

Several imaging techniques are employed in order to see if cancer exists and to find out how far it has spread. Common imaging tests include:

  • Ultrasound – to visualize tumor
  • Endoscopic ultrasound (EUS) – thin tube with a camera and light on one end
  • Abdominal computerized tomography (CT) scans – to visualize tumor
  • Endoscopic retrograde cholangiopancreatography (ERCP) – to x-ray the common bile duct
  • Angiogram – to x-ray blood vessels
  • Barium swallows to x-ray the upper gastrointestinal tract
  • Magnetic resonance imaging (MRI) – to visualize tumor
  • Positron emission tomography (PET) scans – useful to detect if disease has spread

 

New solutions in Diagnostics;

The study, published in Nature Communications, suggests that targeting the gene in question – protein kinase D1 (PKD1) – could lead to new ways of halting the development of one of the most difficult tumors to treat.

“As soon as pancreatic cancer develops, it begins to spread, and PKD1 is key to both processes. Given this finding, we are busy developing a PKD1 inhibitor that we can test further,” says the study’s co-lead investigator, Dr. Peter Storz.

Do we have new markers?

Is it possible check the cancer along with glucose levels or insulin at the point of care or companion diagnostics?

Therapy

New Solutions in Therapies

ABRAXANE (paclitaxel formulated as albumin bound nanoparticles; nab-paclitaxel), in combination with gemcitabine, has been recommended for use within NHS Scotland by the Scottish Medicines Consortium (SMC) for the treatment of metastatic adenocarcinoma of the pancreas.

The SMC decision is based on results from the MPACT (Metastatic Pancreatic Adenocarcinoma Clinical Trial) study, published in the October 2013 edition of the New England Journal of Medicine, which demonstrated an increase in median overall survival of 1.8 months when compared to gemcitabine alone [(8.5 months vs. 6.7 months respectively) (HR 0.72; 95% CI 0.62 to 0.83 P<0.001)]. 

Updated results from post-hoc analysis of the MPACT trial based on an extended data cut-off (8 months) at the time the trial was closed demonstrated an increase in the median overall survival benefit of 2.1 months when compared to gemcitabine alone [(8.7 months vs. 6.6 months respectively) (HR 0.72,95% CI = 0.62 to 0.83, P<.001)].

Using radioactive bacteria to stop the spread of pancreatic cancer – scientists from Albert Einstein College of Medicine of Yeshiva University used bacteria to carry radioisotopes commonly used in cancer treatment directly into pancreatic cancer cells. They found in animal experiments that the incidence of secondary tumors went down dramatically – i.e. the cancer was much less likely to spread (metastasize).

Targeting stroma is another approached that is followed by TGen to potentially extend patient survival in all cases including advanced cases based on a report at Clinical Cancer Research, published online by the American Association for Cancer Research. Thus this eliminates one of the limiting factor to reach tumor cells and destroying the accumulation of stroma — the supporting connective tissue that includes hyaluronan and few other collagen types.

One of the study leaders, Andrew Biankin, a Cancer Research UK scientist at the University of Glasgow in the UK said that “Being able to identify which patients would benefit from platinum-based treatments would be a game-changing moment for treating pancreatic cancer, potentially improving survival for a group of patients.” 

 In the journal Nature, the international team- including scientists from Cancer Research UK showed the evidence of large chunks of DNA being shuffled around, which they were able to classify according to the type of disruption they created in chromosomes.

The study concludes there are four subtypes of pancreatic cancer, depending on the frequency, location and types of DNA rearrangement. It terms the subtypes: stable, locally rearranged, scattered and unstable.

Can we develop an immunotherapy?

 Genetics of Pancreatic Cancer 

There are many ongoing studies to develop diagnostics technologies and treatments. However, the etiology of PC is not well understood. Pancreas has dual functions that include 2% of endocrine hormone secretion and 98% exocrine secretion, enzymes, to help digestion. As a result, pancreatic cancer is related to obesity, overweight, diabetes.

First, eliminating the risk factors can be the simplest path. Next approach is dropping the obesity and diabetes to prevent the occurrence of cancers since in the U.S. population, 50 percent are overweight, 30 percent are medically obese and 10 percent have diabetes mellitus (DM). Tobacco smoking, alcohol consumptions, chronic pancreatitis, and genetic risk factors, have been recognized as potential risk factors for the development and progression of PC.

Many studies showed that the administration of anti-diabetic drugs such as metformin and thiazolidinediones (TZD) class of PPAR-γ agonists decreases the risk of cancers.  Thus, these agents are thought to be the target to diagnose or cure PC.

Type 2 diabetes mellitus has been associated with an increased risk of several human cancers, such as liver, pancreatic, endometrial, colorectal, breast, and bladder cancer. The majority of the data show that metformin therapy decreases, while insulin secretagog drugs slightly increase the risk of certain types of cancers in type 2 diabetes.

Metformin can decrease cell proliferation and induce apoptosis in certain cancer cell lines. Endogenous and exogenous (therapy induced) hyperinsulinemia may be mitogenic and may increase the risk of cancer in type 2 diabetes. Type 2 diabetes mellitus accounts for more than 95% of the cases.

In PDA these cells have been reported to express specific genes such as Aldh1 or CD133. To date, more than 20 case-control studies and cohort and nested case-control studies with information on the association between diabetes and pancreatic cancer, BMI and cancer, and obesity and cancer have been reported.

Meta analysis and cohort studies:

 

  1. Meta studies for Diabetes and PC

Most of the diabetes and PC studies were included in two meta-analyses, in 1995 and in 2005, investigating the risk of pancreatic cancer in relation to diabetes.

The first meta-analysis, conducted in 1995, included 20 of these 40 published case-control and cohort studies and reported an overall estimated relative risk (RR) of pancreatic cancer of 2.1 with a 95% confidence interval (CI) of 1.6-2.8. These values were relatively unchanged when the analyses were restricted to patients who had diabetes for at least 5 years (RR, 2.0 [95% CI, 1.2-3.2]).

The second meta-analysis, which was conducted in 2005, included 17 case-control and 19 cohort and nested case-control studies published from 1996 to 2005 and demonstrated an overall odds ratio (OR) for pancreatic cancer of 1.8 and 95% CI of 1.7-1.9 .   Individuals diagnosed with diabetes within 4 years before their pancreatic cancer diagnosis had a 50% greater risk of pancreatic cancer than did those diagnosed with diabetes more than 5 years before their cancer diagnosis (OR, 2.1 [95% CI, 1.9-2.3] versus OR, 1.5 [95% CI, 1.3-1.8]; P = 0.005).

  1. In a recent pooled analysis of 2192 patients with pancreatic cancer and 5113 cancer-free controls in three large case-control studies conducted in the United States (results of two of the three studies were published after 2005),
  2. Risk estimates decreased as the number of years with diabetes increased.
  3. Individuals with diabetes for 2 or fewer, 3-5, 6-10, 11-15, or more than 15 years had ORs (95% CIs) of 2.9 (2.1-3.9), 1.9 (1.3-2.6), 1.6 (1.2-2.3), 1.3 (0.9-2.0), and 1.4 (1.0-2.0), respectively (P < 0.0001 for trend).

pc2

  1. Meta Studies between BMI and PC

Meta studies in 2003 and 2008 showed a week positive association between BMI and PC.  In 2003, a meta-analysis of six case-control and eight prospective studies including 6,391 PC cases 2% increase in risk per 1 kg/m2 increase in BMI. In 2008, 221 datasets, including 282,137 incidence of cancer cases with 3,338,001 subjects the results were similar  RR, 1.12; CI, 1.02–1.22.

In 2007, 21 prospective studies handled , 10 were from the United States, 9 were from Europe, and 2 were from Asia and studies was conducted including 3,495,981 individuals and 8,062 PC cases. There was no significant difference between men and women and the estimated summary risk ratio (RR) per 5 kg/m2 increase in BMI was 1.12 (95% CI, 1.06–1.17) in men and women combined.

This study concluded that concluded that there was a positive association between BMI and risk of PC, per  a 5 kg/m2 increase in BMI may be equal to  a 12% increased risk of PC.

  • The location and type of the obesity may also signal for a higher risk. The recent Women’s Health Initiative study in the United States among 138,503 postmenopausal showed that  women central obesity  in relation to PC (n=251) after average of 7.7 years of follow-up duration demonstrated that central adiposity is related to developing PC at a higher risk. Based on their result “women in the highest quintile of waist-to-hip ratio have a 70 percent (95% CI, 10–160%) greater risk of PC compared with women in the lowest quintile”
  • Age of obesity or being overweight versus risk of developing PC was also examined.
  • Regardless of their DM status they were at risk and decreased their survival even more so among men than women between age of 14-59.

overweight   14 to 39 years   (highest odds ratio [OR], 1.67; 95% CI, 1.20–2.34) or

obese            20 to 49 years     (highest OR, 2.58; 95% CI, 1.70–3.90)   , independent of DM status.

  • This association was different between men and women from the ages of 14 to 59:

stronger in men               (adjusted OR, 1.80; 95% CI, 1.45–2.23)

weaker in women            (adjusted OR, 1.32; 95% CI, 1.02–1.70).

  • The effect of BMI , obesity and overweight had reduced overall survival of PC regardless of disease stage and tumor resection status

high BMI (= or > 25)                          20 to 49 years , an earlier onset of PC by 2 to 6 years.

obese patients: hazard ratio,               1.86, 95% CI, 1.35–2.56).

overweight or obese                             30 to 79 years,  in the year prior to recruitment

overweight patients: hazard ratio,       1.26, 95% CI, 0.94–1.69;

Similarly, the authors concluded that:

  • Being overweight or obese during early adulthood was associated with a greater risk of PC and a younger age of disease onset, whereas obesity at an older age was associated with a lower overall survival in patients diagnosed with PC.
  • More recently, several large prospective cohort studies with a long duration of follow-up has been conducted in the U.S. showing a positive association between high BMI and the risk of PC (adjusted RR 1.13–1.54), suggesting the role of obesity and overweight with higher risk in the development and eventual death due to PC.
  • Although the role of smoking and gender in the association of obesity and PC is not clear, the new evidence strongly supports a positive association of high BMI with increased risk of PC, consistent with the majority of early findings; however, all recent studies strongly suggest that obesity and overweight are independent risk factor of PC.
  • Diabetes was associated with a 1.8-fold increase in risk of pancreatic cancer (95% CI, 1.5-2.1).

How pancreatic cancer is related to obesity, overweight, BMI, diabetes

 pc3

Connections in Physiology and Pathology:

Altogether cumulative data suggest that DM has a three-fold increased risk for the development of PC and a two-fold risk for biliary cancer insulin resistance and abnormal glucose metabolism, even in the absence of diabetes, is associated with increased risk for the development of PC.  Obesity alters the metabolism towards insulin resistance through affecting gene expression of inflammatory cytokines, adipose hormones such as adipokines, and PPAR-γ.

Furthermore, adiponectin also pointed out to be a negative link factor for cancers such as colon, breast, and PC.  Therefore, insulin resistance is one of the earliest negative effects of obesity, early altered glucose metabolism, chronic inflammation, oxidative stress and decreased levels of adipose hormone adiponectin and PPAR-γ, key regulators for adipogenesis.

Potential pathways directly linking obesity and diabetes to pancreatic cancer. Obesity and diabetes cause mutiple alterations in glucose and lipid hemastasis, microenvironments, and immune responses, which result in the activation of several oncogenic signaling pathways.

These deregulations increase cell survival and proliferation, eventually leading to the development and progression of pancreatic cancer. ROS, reactive oxygen species; IGF-1, insulin-like growth factor-1; IR, insulin receptors; IGF-1R, insulin-like growth factor-1 receptors; TNFR, tumor necrosis factor receptors; TLR, Toll-like receptors; HIF-1α, hypoxia-inducible factor-α1; AMPK, AMP kinase; IKK, IκB kinase; PPAR-γ, peroxisome proliferator-activated receptor-γ; VEGF, vascular endothelial growth factor; MAPK, MAP kinase; mTOR, mammalian target of rapamycin; TSC, tuberous sclerosis complex; Akt, protein kinase B. PI3K, phosphoinositide-3-kinase; STAT3, activator of transcription-3; JNK, c-Jun NH2-terminal kinase.

Top six pathways interacting with obesity or diabetes in modifying the risk of pancreatic cancer are Chemokine Signaling, Pathways in cancer, Cytokine-cytokine receptor interaction, Calcium signaling pathway. MAPK signaling pathway.

This analysis showed

  • GNGT2,
  • RELA,
  • TIAM1,
  • CBLC,
  • IFNA13, 
  • IL22RA1, 
  • IL2RA
  • GNAS,
  • MAP2K7,
  • DAPK3, 
  • EPAS1 and 
  • FOS as contributor genes.

  Furthermore, top overrepresented canonical pathways, including

  1. Role of RIG1-like Receptors in Antiviral Innate Immunity,
  2. Role of PI3K/AKT Signaling in the Pathogenesis of Influenza, and
  3. Molecular Mechanisms of Cancer

in genes interacting with risk factors (P < 10−8) are

  • TRAF6, 
  • RELA,
  • IFNA7,
  • IFNA4,
  • NFKB2,
  • IFNA10,
  • IFNA16,
  • NFKB1,
  • IFNA1/IFNA13,
  • IFNA5,
  • IFNA14,
  • IFNA,
  • GSK3B,
  • IFNA16,
  • IFNA14,
  • TP53,
  • FYN,
  • ARHGEF4,
  • GNAS,
  • CYCS ,
  • AXIN1,
  • ADCY4,
  • PRKAR2A,
  • ARHGEF1 ,
  • CDC42,
  • RAC,3
  • SIN3A,
  • RB1,
  • FOS ,
  • CDH1,
  • NFKBIA,
  • GNAT1,
  • PAK3,
  • RHOA,
  • RASGRP1,
  • PIK3CD,
  • BMP6,
  • CHEK2, and
KEGG code Pathway description Risk factor No. of genes/genes with marginal effecta No. of SNPs/eigenSNPs in the interaction analysisb PG x Ec Major contributing genesd
hsa04062e Chemokine Signalinge Obesity 175/27 695/181 3.29 × 10−6 GNGT2 RELA TIAM1
hsa05200 Pathways in cancer Obesity 315/37 806/212 5.35 × 10−4 CBLC RELA
hsa04060 Cytokine-cytokine receptor interaction Obesity 247/36 422/149 6.97 × 10−4 IFNA13 IL22RA1 IL2RA
hsa04020 Calcium signaling pathway Diabetes 171/24 759/190 1.57 × 10−4 GNAS
hsa04010 MAPK signaling pathway Diabetes 260/32 523/154 3.56 × 10−4 FOS MAP2K7
hsa05200 Pathways in cancer Diabetes 315/37 806/212 4.46 × 10−4 DAPK3 EPAS1 FOS

aNumber of genes making up the pathway/ number of genes survived the PCA-LRT (P ≤ 0.10).

bNumber of SNPs in the “reconstructed” pathways/number of principal components for LRT.

cP value was estimated by LRT in logistic regression model with adjustment of age, sex, study site, pack years(continuous), obesity or diabetes as appropriate, and five principal components for population structure.

dGenes with PG x E ≤ 0.05 in logistic regression and P ≤ 0.10 in PCA-LRT.

ePathways remained significant after Bonferroni correction (P < 1.45 × 10−4)

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Top overrepresented canonical pathways in genes interacting with risk factors (P < 10−8)

Biological process Risk factor P Valuea Ratiob Contributing genes
Role of RIG1-like Receptors in Antiviral Innate Immunity Obesity 6.71 × 10−11 12/49 (0.25) TRAF6 RELA IFNA7 IFNA4 NFKB2 IFNA10 IFNA16 NFKB1
IFNA1/IFNA13 IFNA5 IFNA14 IFNA6
Role of PI3K/AKT Signaling in the Pathogenesis of Influenza Obesity 8.64 × 10−9 12/74 (0.12) RELA IFNA7 IFNA4 NFKB2 GSK3B IFNA10 IFNA16 NFKB1
IFNA1/IFNA13 IFNA5 IFNA14 IFNA6
Molecular Mechanisms of Cancer Diabetes 1.03 × 10−9 24/378 (0.063) TP53 FYN ARHGEF4 GNAS CYCS AXIN1 ADCY4 PRKAR2A
ARHGEF1 CDC42 RAC3 SIN3A RB1 FOS CDH1 NFKBIA GNAT1
PAK3 RHOA RASGRP1 PIK3CD BMP6 CHEK2 E2F2

aCalculated using Fisher’s exact test (right-tailed).

bNumber of genes interacting with a risk factor of interest (P ≤ 0.05) in a given pathway divided by total number of genes making up that pathway.

Pancreatic Cancer and Diabetes:

We conclude that diabetes type II has a fundamental influence on pancreatic ductal adenocarcinoma by stimulating cancer cell proliferation, while metformin inhibits cancer cell proliferation. Chronic inflammation had only a minor effect on the pathophysiology of an established adenocarcinoma.

  • Diabetes increases tumor size and proliferation of carcinoma cells
  • Diabetes does not decrease cell death in carcinomas
  • Diabetes II like syndrome reduces the number of Aldh1+cells within the tumor
  • Metformin decreases tumor size and proliferation of carcinoma cells

 

Much is known about factors increasing the likelihood to develop PDA. Identified risk factors include among others chronic pancreatitis, long lasting diabetes, and obesity. Patients with chronic and especially hereditary pancreatitis have a very high relative risk of developing pancreatic cancer of 13.3 and 69.0, respectively. Patients with diabetes and obesity have a moderately increased relative risk of 1.8 and 1.3. These studies indicate that a substantial number of patients with PDA also suffer from local inflammation or diabetes.

http://www.biomedcentral.com/1471-2407/15/51/figure/F3?highres=y

http://www.biomedcentral.com/content/figures/s12885-015-1047-x-4.jpg

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Potential mechanisms underlying the associations of diabetes and cancer.

  • AdipoR1/R2, adiponectin receptor 1/2;
  • AMPK, 5′-AMPactivated protein kinase;
  • IGF-1, insulin-like growth factor-1;
  • IGF-1R, insulin-like growth factor-1 receptor;
  • IKK, IκA;B kinase; IR, insulin receptor;
  • IRS-1, insulin receptor substrate-1;
  • MAPK, mitogen-activated-protein-kinase;
  • mTOR, mammalian target of rapamycin;
  • NF-κA;B, nuclear factor-κA;B;
  • ObR, leptin receptor;
  • PAI-1, plasminogen activator inhibitor-1;
  • PI3-K, phosphatidylinositol 3-kinase;
  • ROS, Reactive oxygen species;
  • TNF-α, tumor necrosis factor- α;
  • TNF-R1, tumor necrosis factor-receptor 1;
  • uPA, urokinase-type plasminogen activator;
  • uPAR, urokinase-type plasminogen activator receptor;
  • VEGF, vascular endothelial growth factor;
  • VEGFR, vascular endothelial growth factor receptor.

http://www.ncbi.nlm.nih.gov/core/lw/2.0/html/tileshop_pmc/tileshop_pmc_inline.html?title=Click%20on%20image%20to%20zoom&p=PMC3&id=3238796_nihms-277874-f0001.jpg

Type 2 diabetes mellitus is likely the third modifiable risk factor for pancreatic cancer after cigarette smoking and obesity. The relationship between diabetes and pancreatic cancer is complex. Diabetes or impaired glucose tolerance is present in more than 2/3rd of pancreatic cancer patients.

Epidemiological investigations have found that long-term type 2 diabetes mellitus is associated with a 1.5-fold to 2.0-fold increase in the risk of pancreatic cancer. A causal relationship between diabetes and pancreatic cancer is also supported by findings from prediagnostic evaluations of glucose and insulin levels in prospective studies.

Insulin resistance and associated hyperglycemia, hyperinsulinemia, and inflammation have been suggested to be the underlying mechanisms contributing to development of diabetes-associated pancreatic cancer.

Stem Cells

http://www.ncbi.nlm.nih.gov/core/lw/2.0/html/tileshop_pmc/tileshop_pmc_inline.html?title=Click%20on%20image%20to%20zoom&p=PMC3&id=3410675_nihms295920f1.jpg

http://www.ncbi.nlm.nih.gov/pmc/articles/PMC3932318/

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“A study by Permert et al.using glucose tolerance tests in patients with newly diagnosed pancreatic cancer showed that 75% of patients met criteria for diabetes. Pannala et al. used fasting blood glucose values or previous use of antidiabetic medications to define diabetes in patients with pancreatic cancer (N.=512) and age-matched control non-cancer subjects attending primary care clinics (N.=933) “

Distribution of fasting blood glucose among pancreatic cancer cases and controls. From Pannala et al.

“ They reported a nearly seven-fold higher prevalence of diabetes in pancreatic cancer patients compared to controls (47% vs. 7%). In a retrospective study using similar criteria, Chari et al. found the prevalence of diabetes in pancreatic cancer patients to be 40%.  http://www.ncbi.nlm.nih.gov/pmc/articles/PMC3932318/”

 

Relationship between type 2 diabetes and risk of pancreatic cancer in case-control and nested case control studies. “Diamond: point estimate representing study-specific relative risks or summary relative risks with 95% CIs. Horizontal lines: represent 95% confidence intervals (CIs). Test for heterogeneity among studies: P<0.001, I2=93.6%. 1, cohort studies (N.=27) use incidence or mortality rate as the measurements of relative risk; 2, cohort studies (N.=8) use standardized incidence/mortality rate as the measurement of relative risk. From Benet al.”

 http://www.ncbi.nlm.nih.gov/pmc/articles/PMC3932318/

Table II

Sensitivity and specificity for biomarkers for pancreatic cancer.

Biomarker Study Sensitivity Specificity N.
CA19-9 Goonetilleke 68 79 82 Meta-analysis
Steinberg 69 81 90 Meta-analysis
CA125 Duraker 85 57 78 123
Haguland 86 45 76 95
CEA Ni 87 45 75 68
Haglund 86 54 76 95
Zhao 88 25 86 143
Duraker 85 39 91 123
SPan-1 Kiriyama 74 81 76 64
Chung 89 92 83 67
Kobayashi 90 82 85 200
Du-PAN 2 Satake 83 48 85 239
Sawabu 91 72 94 32
Kawa 92 64 – 200

NIHMS552557.html

PART II:  Targets for Immunomodulation to develop a therapy


Natural Killer Cells:

Natural Killer cells usually placed under non-specific immune response as a first defend mechanism during innate immunity.  NKs responses to innate immune reactions but not only viruses but also bacteria and parasitic infections develop a new line of defense.  These reactions involve amplification of many cytokines based on the specific infection or condition.  Thus, these activities help NKs to evolve.

However, their functions proven to be more than innate immune response since from keeping the pregnancy term to prevent recurrent abortions to complex diseases such as cancer, diabetes and cardiovascular conditions they have roles thorough awakening chemokines and engaging them specifically with their receptors to activate other immune cells.  For example, there is a signaling mechanism connection between NKs and DCs to respond attacks.  Furthermore, there are interactions between various types of immune cells and they are specific for example between NK and Tregs.

During pregnancy there is a special kind of interaction between NK cells and Tregs.

  • There can be several reasons such as to protect pregnancy from the immunosuppressive environment so then the successful implantation of the embryo and tolerance of the mother to the embryo can be established. In normal pregnancy, these cells are not killers, but rather provide a microenvironment that is pregnancy compatible and supports healthy placentation.
  • During cancer development tumors want to build a microenvironment through an array of highly orchestrated immune elements to generate a new environment against the host. In normal pregnancy, decidua, the uterine endometrium,  is critical for the development of placental vasculature.
  • This is the region gets thicks and thin during female cycles to prevent or accept pregnancies. As a result, mother nature created that 70% of all human decidual lymphocytes are NK cells, defined as uterine or decidual NK (dNK) cells.
  • The NK cell of decidua (dNK) and  peripheral blood NK cells are different since  dNK cells are characterized as CD56brightCD16−CD3−, express killer cell immunoglobulin-like receptors and exhibit low killing capacity despite the presence of cytolytic granules, and a higher frequency of CD4+CD25bright   

The lesson learn here is that pregnancy and mammary tissue are great examples of controlling cellular differentiation and growth since after pregnancy all these cells go back to normal state.

Understanding these minute differences and relations to manipulate gene expression may help to:

  1. Develop better biomaterials to design long lasting medical devices and to deliver vaccines without side effects.
  2. Generate safer vaccines as NKcells are the secret weapons in DC vaccination and studying their behavior together with T-cell activation in vaccinated individuals might predict clinical outcome.
  3. Establish immunotherapies based on interactions between NK cells and Tregs for complex diseases not only cancer, but also many more such as autoimmune disorder, transplants, cardiovascular, diabetes.

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Trascription factors are the silence players of the gene expression that matches input to output as a cellular response either good or bad but this can be monitored and corrected with a proper meical device or diagnostics tool to provide successful treatment regimen.

  • Therefore, the effects of Tregs on NK during gene regulation analyzed and compared among other living organisms for concerved as well as signature sequence targets even though the study is on human.
  • Unfortunatelly we can’t mutate the human for experimental purposes so comparative developmental studies now its widely called stem cell biology with a system biology approach may help to establish the pathway.

NK and T reg regulation share a common interest called T box proteins. These proteins are conserved and also play role in development of heart at very early development, embryology.  What is shared among all T-box is simply lie behind the capacity for DNA binding through the T-box domain and transcriptional regulatory activity, which plays a role in controlling the expression of developmental gene in all animal species.

 The Special T box protein: T-bet

The first identified T-box protein was Brachyury (T). in a nut shell

  • The T-box domain is made up of about 180 amino-acid residues that includes a specific sequence of DNA
  • called T-box  domain,  TCACACCT between residues 135 and 326 in mouse.
  • However, T-bet which is the T-box protein expressed in T cells and also called as TBX21 is quite conserved in 18 members of the T-box protein (TBX) family
  • since it has a crucial dual role during development and for coordination of both innate and adaptive immune responses.

T-Bet was originally cloned for its role in Th1 lineage, it has a role in Th2 development, too. 

The whole mechanism based on direct activation and modulation mechanisms in that  T-Bet directly activates IFN-γ gene transcription and enhances development of Th1 cells at the same time modulates IL-2 and Th2 cytokines in an IFN-γ-independent manner that creates an attenuation of Th2 cell development.

Thus, certain lipids ligands or markers can be utilized during vaccine design to steer the responses for immune therapies against autoimmune diseases.   As a result, tumors can be removed and defeated by manipulating NKs action.

 

INKT:

NKT has functions in diabetes, asthma. One cell type that has been proposed to contribute immensely to the development of asthma is NKT cells, which constitute a small population of lymphocytes that express markers of both T cells (T-cell receptor, TCR) and NK cells (e.g., NK1.1, NKG2D). NKT cells can be subdivided into at least three subtypes, based on their TCR. Type I NKT cells or invariant NKT (iNKT) cells express invariant TCR chains (V14–J18 in mice and V24–J18 in humans) coupled with a limited repertoire of V chains (V8, V7 and V2 in mice and V11 in humans).

The studies in the past decade showed the protective mechanism of NKT cells during the development of Type 1 diabetes can be complex.

  1. First, NKT cells can impair the differentiation of anti-islet reactive T cells into Th1 effector cells in a cell–cell contact dependent manner, which did not require Th2 cytokine production or CD1d recognition.
  2. Second, NKT cells accumulating in the pancreas can indirectly suppress diabetogenic CD4+T cells via IFN-γ production.
  3. Last, anergic iNKT cells induced by protracted αGalCer stimulation can induce the production of noninflammatory DCs, which inhibit diabetes development in an Ag-specific fashion.

These findings point to an important protective role for NKT cells during autoimmune pathogenesis in the pancreas.

A crucial role has been suggested for invariant natural killer T cells (iNKT) in regulating the development of asthma, a complex and heterogeneous disease characterized by airway inflammation and airway hyperreactivity (AHR).

iNKT cells constitute a unique subset of T cells responding to endogenous and exogenous lipid antigens, rapidly secreting a large amount of cytokines, which amplify both innate and adaptive immunity.

IL17:

Terashima A et al (2008) identified a novel subset of natural killer T (NKT) cells that expresses the interleukin 17 receptor B (IL-17RB) for IL-25 (also known as IL-17E) and is essential for the induction of Airway hypersensitive reaction (AHR). IL-17RB is preferentially expressed on a fraction of CD4(+) NKT cells but not on other splenic leukocyte populations tested.

They strongly suggested that IL-17RB(+) CD4(+) NKT cells play a crucial role in the pathogenesis of asthma.

NKT connection can be established between through targeting IL17 and IL17RB. There is a functional specialization of interleukin-17 family members. Interleukin-17A (IL-17A) is the signature cytokine of the recently identified T helper 17 (Th17) cell subset. IL-17 has six family members (IL-17A to IL-17F).

Although IL-17A and IL-17F share the highest amino acid sequence homology, they perform distinct functions; IL-17A is involved in the development of autoimmunity, inflammation, and tumors, and also plays important roles in the host defenses against bacterial and fungal infections, whereas IL-17F is mainly involved in mucosal host defense mechanisms. IL-17E (IL-25) is an amplifier of Th2 immune responses.

 There is no one easy answer for the role of IL-17 in pancreatic cancer as there are a number of unresolved issues and but it can be only suggested that  pro-tumorigenic IL-17 activity is confined to specific subsets of patients with pancreatic cancer since there is a increased expression of IL-17RB in these patients about ∼40% of pancreatic cancers presented on their histochemical staining (IHC-  immunohistochemistry.

IL17 and breast cancer:

In addition, during breast cancer there is an increased signaling of interleukin-17 receptor B (IL-17RB) and IL-17B.  They promoted tumor formation in breast cancer cells in vivo and even created acinus formation in immortalized normal mammary epithelial cells in vitro cell culture assays.

  • Furthermore, the elevated expression of IL-17RB not only present itself  stronger than HER2 for a better prognosis but also brings the shortest survival rate if patients have increased  IL-17RB and HER2 levels.
  • However, decreased level of IL-17RB in trastuzumab-resistant breast cancer cells significantly reduced their tumor growth.  This may prompt a different independent  role for  IL-17RB and HER2  in breast cancer development.
  • In addition, treatment with antibodies specifically against IL-17RB or IL-17B effectively attenuated tumorigenicity of breast cancer cells.

These results suggest that the amplified IL-17RB/IL-17B signaling pathways may serve as a therapeutic target for developing treatment to manage IL-17RB-associated breast cancer.

IL 17 and Asthma:

A requirement for iNKT cells has also been shown in a model of asthma induced with air pollution, ozone and induced with respiratory viruses chronic asthma studied in detail. In these studies specific types of NKT cells found to that specific types of NK and receptors trigger of asthma symptoms. Taken together, these studies indicate that both Th2 cells (necessary for allergen-specific responses) and iNKT cells producing IL-4 and IL-13 are required for the development of allergen-induced AHR.

Although CD4+ IL-4/IL-13-producing iNKT cells (in concert with antigen-specific Th2 cells) are crucial in allergen-induced AHR, NK1.1–IL-17-producing iNKT cells have a major role in ozone-induced AHR.

A main question in iNKT cell biology involves the identification of lipid antigens that can activate iNKT cells since this allow to identify which microorganisms to attack as  a result, the list of microorganisms that produce lipids that activate iNKT cells is rapidly growing.

Invariant natural killer T cells (iNKT) cell function in airway hyperreactivity (AHR). iNKT cells secrete various cytokines, including Th2 cytokines, which have direct effects on hematopoietic cells, airway smooth muscle cells, and goblet cells. Alternatively, iNKT cells could regulate other cell types that are known to be involved in asthma pathogenesis, e.g., neutrophils and alveolar macrophages.

http://www.nature.com/mi/journal/v2/n5/images/mi200996f1.jpg

Chemokines:

Chemokines  have a crucial role in organogenesis of various organs including lymph nodes, arising from their key roles in stem cell migration. Moreover, most homeostatic chemokines can control the movement of lymphocytes and dendritic cells and eventually adaptive immunity. Chemokines are heparin-binding proteins with 4 cysteine residues in the conserved positions.

The human chemokine system has about 48 chemokines. They are subgrouped based on:

  • Number of cysteines
  • Number of amino acid separating cysteines
  • Presence or absence of ELR motif includes, 3-amino acid sequence, glutamic acid-leucine-arginine
  • functionally classified as inflammatory, homeostatic, or both, based on their expression patterns

Chemokines are structurally divided into 4 subgroups :CXC, CC, CX3C, and C. X represent an aminoacid so the first 2 cysteines are separated by 1 is grouped as CXC and 3 amino acids is called CX3C chemokines but in CC  the first 2 cysteines are adjacent. In the C chemokines there is no second and fourth cysteines.

Various types of inflammatory stimuli induce abundantly the expression of inflammatory chemokines to induce the infiltration of inflammatory cells such as granulocytes and monocytes/macrophages.

  • inflammatory chemokines are CXC chemokines with ELR motif and CCL2.
  • homeostatic chemokines are expressed constitutively in specific tissues or cells.

cmi20132f2

Chemokines exert their biological activities by binding their corresponding receptors, which belong to G-protein coupled receptor (GPCR) with 7-span transmembrane portions. Thus, the target cell specificity of each chemokine is determined by the expression pattern of its cognate receptor .

Moreover, chemokines can bind to proteoglycans and glycosaminoglycans with a high avidity, because the carboxyl-terminal region is capable of binding heparin.

Consequently, most chemokines are produced as secretory proteins, but upon their secretion, they are immobilized on endothelium cells and/or in extracellular matrix by interacting with proteoglycans and glycosaminoglycans. The immobilization facilitates the generation of a concentration gradient, which is important for inducing the target cells to migrate in a directed way.

The human chemokine system.

Chemokine receptor Chemokines Receptor expression in
Leukocytes Epithelium Endothelium
CXCR1 CXCL6, 8 PMN + −
CXCR2 CXCL1, 2, 3, 5, 6, 7, 8 PMN + +
CXCR3 CXCL4, 9, 10, 11 Th1, NK − +
CXCR4 CXCL12 Widespread + +
CXCR5 CXCL13 B − −
CXCR6 CXCL16 Activated T + −
CXCR7 (ACKR3) CXCL12, CXCL11 Widespread + +
Unknown CXCL14 (acts on monocytes)
CCR1 CCL3, 4, 5, 7, 14, 15, 16, 23 Mo, Mϕ, iDC, NK + +
CCR2 CCL2, 7, 8, 12, 13 Mo, Mϕ, iDC, NK
activated T, B		 + +
CCR3 CCL5, 7, 11, 13, 15, 24, 26, 28 Eo, Ba, Th2 − +
CCR4 CCL2, 3, 5, 17, 22 iDC, Th2, NK, T, Mϕ − −
CCR5 CCL3, 4, 5, 8 Mo, Mϕ, NK, Th1
activated T		 + −
CCR6 CCL20 iDC, activated T, B + −
CCR7 CCL19, 21 mDC, Mϕ, naïve T
activated T		 + −
CCR8 CCL1, 4, 17 Mo, iDC, Th2, Treg − −
CCR9 CCL25 T + −
CCR10 CCL27, 28 Activated T, Treg + −
Unknown CCL18 (acts on mDC and naïve T)
CX3CR1 CX3CL1 Mo, iDC, NK, Th1 + −
XCR1 XCL1, 2 T, NK − −
Miscellaneous Scavenger receptors for chemokines
Duffy antigen (ACKR1) CCL2, 5, 11, 13, 14
CXCL1, 2, 3, 7, 8
D6 (ACKR2) CCL2, 3, 4, 5, 7, 8, 12
CCL13, 14, 17, 22
CCRRL1 (ACKR4) CCL19, CCL21, CCL25

Leukocyte anonyms are as follows. Ba: basophil, Eo: eosinophil, iDC: immature dendritic cell, mDC: mature dendritic cell, Mo: monocyte, Mϕ: macrophage, NK: natural killer cell, Th1: type I helper T cell, Th2: type II helper T cell, and Treg: regulatory T cell.

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There are differences between  human liver and peripheral NK cells. Regulation of NK cell functions by CD226, CD96 and TIGIT.close. CD226 binding to CD155 or CD112 at the cell surface of transformed or infected cells triggers cytotoxic granule exocytosis and target cell lysis by natural killer (NK) cells. TIGIT, CD226, CD96 and CRTAM ligand specificity and signalling.close.

Regulation of NK cell-mediated cancer immunosurveillance through CD155 expression.close.   CD155 is frequently overexpressed by cancer cells.

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Liver NK cells Circulating NK cells References
CD3-CD56+ 30.6% (11.6–51.3%) 12.8% (1–22%) 17
CD56bright/total NK cell ~50% ~10% 18,19
CD56dim/total NK cell ~50% ~90% 18,19
CD27 high low 20,21
CD16 − + 18,22
CD69 +/−, higher +/− 16
Chemokine receptor CCR7 and CXCR3
(CD56bright)		 CXCR1, CX3CR1
(CD56dim)		 13,23
Inhibitory receptor (NKG2A) high low 24
Natural cytotoxicity higher high 18,19
TRAIL high low 1
Perforin, Granzyme B high low 2
Cytokine production high
(MIP-1α/β, IL-10,
TNF-α, TNF-β, IFN-γ,
GM-CSF)		 low
(TNF-α, TNF-β, IFN-γ,
GM-CSF, IL-10)		 18
ADCC – high 25
  • In conclusion, having to develop precise early diagnostics is about determining the overlapping genes as key among diabetes, obesity, overweight and pancreas functions even pregnancy can be suggested.

 

  • It seems feasible to develop an immunotherapy for pancreatic cancer with the focus on chemokines and primary  signaling between iNKT and Tregs such as one of the recent plausable target IL-17 and IL17 RB.

References:

 Heng-Hsiung Wu,1et al Targeting IL-17B–IL-17RB signaling with an anti–IL-17RB antibody blocks pancreatic cancer metastasis by silencing multiple chemokines. Published March 2, 2015 // JEM vol. 212 no. 3 333-349 

MUNIRAJ1andS. T. CHARI2 Minerva Gastroenterol Dietol. 2012 Dec; 58(4): 331–345.PMCID: PMC3932318

Beaudoin L. et al. NKT cells inhibit the onset of diabetes by impairing the development of pathogenic T cells specific for pancreatic β cells. Immunity. 2002;17:725–736.

Wang J, Cho S, Ueno A, et al. Ligand-dependent induction of noninflammatory dendritic cells by anergic invariant NKT cells minimizes autoimmune inflammation.J. Immunol. 2008;181:2438–2445.

Lee HH, Meyer EH, Goya S, et al. Apoptotic cells activate NKT cells through T cell Ig-like mucin-like-1 resulting in airway hyper-reactivity. J. Immunol.2010;185:5225–5235.

Huang CK1, et al  6. Autocrine/paracrine mechanism of interleukin-17B receptor promotes breast tumorigenesis through NF-κB-mediated antiapoptotic pathway. Oncogene. 2014 Jun 5;33(23):2968-77.

Terashima A1 et al  A novel subset of mouse NKT cells bearing the IL-17 receptor B responds to IL-25 and contributes to airway hyperreactivity. J Exp Med. 2008 Nov 24;205(12):2727-33.

Isaksson B et al. Lifestyle factors and pancreatic cancer risk: a cohort study from the Swedish Twin Registry. Int J Cancer. 2002;98:480–482.

Larsson SC et al Overall obesity, abdominal adiposity, diabetes and cigarette smoking in relation to the risk of pancreatic cancer in two Swedish population-based cohorts. Br J Cancer.2005;93:1310–1315.

Michaud DS et al Physical activity, obesity, height, and the risk of pancreatic cancer. JAMA.2001;286:921–929.

Patel AV et al Obesity, recreational physical activity, and risk of pancreatic cancer in a large U.S. Cohort.Cancer Epidemiol Biomarkers Prev. 2005;14:459–466.

Rapp K et al  Obesity and incidence of cancer: a large cohort study of over 145,000 adults in Austria. Br J Cancer. 2005;93:1062–1067.

Shibata A et al. A prospective study of pancreatic cancer in the elderly. Int J Cancer. 1994;58:46–49.

Howe GR, Jain M, Miller AB. Dietary factors and risk of pancreatic cancer: results of a Canadian population-based case-control study. Int J Cancer.1990;45:604–608.

Nilsen TI, Vatten LJ. A prospective study of lifestyle factors and the risk of pancreatic cancer in Nord-Trondelag, Norway. Cancer Causes Control.2000;11:645–652.

Zatonski W et al Nutritional factors and pancreatic cancer: a case-control study from south-west Poland. Int J Cancer. 1991;48:390–394.

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Key Papers:

These papers, Gilfian et all and Iguchi-Manaka et al,  were the first to show the role of CD226 in NK cell- and CD8+ T cell-mediated tumour immunosurveillance using Cd226−/− mice.

  • Gilfillan, S.et al. DNAM-1 promotes activation of cytotoxic lymphocytes by nonprofessional antigen-presenting cells and tumors. J. Exp. Med. 205, 2965–2973 (2008).
  • Iguchi-Manaka, A.et al. Accelerated tumor growth in mice deficient in DNAM-1 receptor.  Exp. Med. 205, 2959–2964 (2008).

Johnston, R. J. et al. The immunoreceptor TIGIT regulates antitumor and antiviral CD8+ T cell effector function. Cancer Cell 26, 923–937 (2014).
This study shows that TIGIT is expressed by PD1+ exhausted tumour-infiltrating T cells and that targeting these receptors with monoclonal antibodies represents a promising strategy to restore CD8+ T cell functions in cancer or in chronic infectious disease.

Khakoo, S. I. et al. HLA and NK cell inhibitory receptor genes in resolving hepatitis C virus infection. Science 305, 872–874 (2004).

Fang, M. et al. CD94 is essential for NK cell-mediated resistance to a lethal viral disease.Immunity 34, 579–589 (2011).
This study using CD94-deficient mice shows that the activating receptor formed by CD94 and NKG2E is essential for the resistance of C57BL/6 mice to mousepox.

Pradeu, T., Jaeger, S. & Vivier, E. The speed of change: towards a discontinuity theory of immunity? Nature Rev. Immunol. 13, 764–769 (2013).
This is an outstanding review on the formulation of a new immune paradigm ‘the discontinuity theory’

Further Reading:

Vol 13, No 4 (2012): July – p. 330-469 Molecular Biology of Pancreatic Cancer: How Useful Is It in Clinical Practice? ABSTRACT  HTML  PDF
George H Sakorafas, Vasileios Smyrniotis
Vol 13, No 4 (2012): July – p. 330-469 Endoscopic Findings of Upper Gastrointestinal Lesions in Patients with Pancreatic Cancer ABSTRACT  HTML  PDF
Koushiro Ohtsubo, Hiroyuki Watanabe, Hisatsugu Mouri, Kaname Yamashita, Kazuo Yasumoto, Seiji Yano
Vol 13, No 5 (2012): September – p. 470-547 Two Avirulent, Lentogenic Strains of Newcastle Disease Virus Are Cytotoxic for Some Human Pancreatic Tumor Lines In Vitro ABSTRACT  HTML  PDF
Robert J Walter, Bashar M Attar, Asad Rafiq, Megan Delimata, Sooraj Tejaswi
Vol 14, No 3 (2013): May – p. 221-303 Duration of Diabetes and Pancreatic Cancer in a Case-Control Study in the Midwest and the Iowa Women’s Health Study (IWHS) Cohort ABSTRACT  HTML  PDF
Sarah A Henry, Anna E Prizment, Kristin E Anderson
Vol 16, No 1 (2015): January – p. 1-99 Endoscopic Management of Pain in Pancreatic Cancer ABSTRACT  HTML  PDF
Parit Mekaroonkamol, Field F Willingham, Saurabh Chawla
Vol 14, No 2 (2013): March – p. 109-220 Advancements in the Management of Pancreatic Cancer: 2013 ABSTRACT  HTML  PDF
Muhammad Wasif Saif
Vol 15, No 5 (2014): September – p. 413-540 New-onset Diabetes: A Clue to the Early Diagnosis of Pancreatic Cancer ABSTRACT  HTML  PDF
Suresh T Chari
Vol 13, No 5 (2012): September – p. 470-547 Effects of Porcine Pancreatic Enzymes on the Pancreas of Hamsters. Part 2: Carcinogenesis Studies ABSTRACT  HTML  PDF
Fumiaki Nozawa, Mehmet Yalniz, Murat Saruc, Jens Standop, Hiroshi Egami, Parviz M Pour
Vol 14, No 5 (2013): September – p. 475-527 Synchronous Triple Cancers of the Pancreas, Stomach, and Cecum Treated with S-1 Followed by Pancrelipase Treatment of Pancreatic Exocrine Insufficiency ABSTRACT  HTML  PDF
Koushiro Ohtsubo, Daisuke Ishikawa, Shigeki Nanjo, Shinji Takeuchi, Tadaaki Yamada, Hisatsugu Mouri, Kaname Yamashita, Kazuo Yasumoto, Toshifumi Gabata, Osamu Matsui, Hiroko Ikeda, Yasushi Takamatsu, Sakae Iwakami, Seiji Yano
Vol 13, No 1 (2012): January – p. 1-123 Newcastle Disease Virus LaSota Strain Kills Human Pancreatic Cancer Cells in Vitro with High Selectivity ABSTRACT  HTML  PDF
Robert J Walter, Bashar M Attar, Asad Rafiq, Sooraj Tejaswi, Megan Delimata
Vol 13, No 3 (2012): May – p. 252-329 Rare Solid Tumors of the Pancreas as Differential Diagnosis of Pancreatic Adenocarcinoma ABSTRACT  HTML  PDF
Sabine Kersting, Monika S Janot, Johanna Munding, Dominique Suelberg, Andrea Tannapfel, Ansgar M Chromik, Waldemar Uhl, Uwe Bergmann
Vol 14, No 4 (2013): July – p. 304-474 A Proteomic Comparison of Formalin-Fixed Paraffin-Embedded Pancreatic Tissue from Autoimmune Pancreatitis, Chronic Pancreatitis, and Pancreatic Cancer ABSTRACT  HTML  PDF  SUPPL. TABLES 1-4 (PDF)
Joao A Paulo, Vivek Kadiyala, Scott Brizard, Peter A Banks, Hanno Steen, Darwin L Conwell
Vol 13, No 4 (2012): July – p. 330-469 Highlights on the First Line Treatment of Metastatic Pancreatic Cancer ABSTRACT  HTML  PDF
Krishna S Gunturu, Jamie Jarboe, Muhammad Wasif Saif
Vol 14, No 2 (2013): March – p. 109-220 Pancreatic Cancer: Updates on Translational Research and Future Applications ABSTRACT  HTML  PDF
Evangelos G Sarris, Konstantinos N Syrigos, Muhammad Wasif Saif
Vol 14, No 4 (2013): July – p. 304-474 Pancreatic Cancer: What About Screening and Detection? ABSTRACT  HTML  PDF
Froso Konstantinou, Kostas N Syrigos, Muhammad Wasif Saif
Vol 14, No 4 (2013): July – p. 304-474 Diabetes and Pancreatic Cancer ABSTRACT  HTML  PDF
Najla Hatem El-Jurdi, Muhammad Wasif Saif
Vol 13, No 5 (2012): September – p. 470-547 Effects of Porcine Pancreatic Enzymes on the Pancreas of Hamsters. Part 1: Basic Studies ABSTRACT  HTML  PDF
Murat Saruc, Fumiaki Nozawa, Mehmet Yalniz, Atsushi Itami, Parviz M Pour
Vol 14, No 2 (2013): March – p. 109-220 Analysis of Endoscopic Pancreatic Function Test (ePFT)-Collected Pancreatic Fluid Proteins Precipitated Via Ultracentrifugation ABSTRACT  HTML  PDF  SUPPL.(XLS)  SUPPL.(PDF)
Joao A Paulo, Vivek Kadiyala, Aleksandr Gaun, John F K Sauld, Ali Ghoulidi, Peter A Banks, Hanno Steen, Darwin L Conwell
Vol 16, No 1 (2015): January – p. 1-99 Regulation Mechanisms of the Hedgehog Pathway in Pancreatic Cancer: A Review ABSTRACT  HTML  PDF
Kim Christin Honselmann, Moritz Pross, Carlo Maria Felix Jung, Ulrich Friedrich Wellner, Steffen Deichmann, Tobias Keck, Dirk Bausch
Vol 14, No 5S (2013): September (Suppl.) – p. 528-602 History of Previous Cancer in Patients Undergoing Resection for Pancreatic Adenocarcinoma ABSTRACT  PDF
Francesca Gavazzi, Maria Rachele Angiolini, Cristina Ridolfi, Maria Carla Tinti, Marco Madonini, Marco Montorsi, Alessandro Zerbi
Vol 13, No 4 (2012): July – p. 330-469 Molecular Biology of Pancreatic Cancer: How Useful Is It in Clinical Practice? ABSTRACT  HTML  PDF
George H Sakorafas, Vasileios Smyrniotis
Vol 13, No 4 (2012): July – p. 330-469 Endoscopic Findings of Upper Gastrointestinal Lesions in Patients with Pancreatic Cancer ABSTRACT  HTML  PDF
Koushiro Ohtsubo, Hiroyuki Watanabe, Hisatsugu Mouri, Kaname Yamashita, Kazuo Yasumoto, Seiji Yano
Vol 13, No 5 (2012): September – p. 470-547 Two Avirulent, Lentogenic Strains of Newcastle Disease Virus Are Cytotoxic for Some Human Pancreatic Tumor Lines In Vitro ABSTRACT  HTML  PDF
Robert J Walter, Bashar M Attar, Asad Rafiq, Megan Delimata, Sooraj Tejaswi
Vol 14, No 3 (2013): May – p. 221-303 Duration of Diabetes and Pancreatic Cancer in a Case-Control Study in the Midwest and the Iowa Women’s Health Study (IWHS) Cohort ABSTRACT  HTML  PDF
Sarah A Henry, Anna E Prizment, Kristin E Anderson
Vol 16, No 1 (2015): January – p. 1-99 Endoscopic Management of Pain in Pancreatic Cancer ABSTRACT  HTML  PDF
Parit Mekaroonkamol, Field F Willingham, Saurabh Chawla
Vol 14, No 2 (2013): March – p. 109-220 Advancements in the Management of Pancreatic Cancer: 2013 ABSTRACT  HTML  PDF
Muhammad Wasif Saif
Vol 15, No 5 (2014): September – p. 413-540 New-onset Diabetes: A Clue to the Early Diagnosis of Pancreatic Cancer ABSTRACT  HTML  PDF
Suresh T Chari
Vol 13, No 5 (2012): September – p. 470-547 Effects of Porcine Pancreatic Enzymes on the Pancreas of Hamsters. Part 2: Carcinogenesis Studies ABSTRACT  HTML  PDF
Fumiaki Nozawa, Mehmet Yalniz, Murat Saruc, Jens Standop, Hiroshi Egami, Parviz M Pour
Vol 14, No 5 (2013): September – p. 475-527 Synchronous Triple Cancers of the Pancreas, Stomach, and Cecum Treated with S-1 Followed by Pancrelipase Treatment of Pancreatic Exocrine Insufficiency ABSTRACT  HTML  PDF
Koushiro Ohtsubo, Daisuke Ishikawa, Shigeki Nanjo, Shinji Takeuchi, Tadaaki Yamada, Hisatsugu Mouri, Kaname Yamashita, Kazuo Yasumoto, Toshifumi Gabata, Osamu Matsui, Hiroko Ikeda, Yasushi Takamatsu, Sakae Iwakami, Seiji Yano
Vol 13, No 1 (2012): January – p. 1-123 Newcastle Disease Virus LaSota Strain Kills Human Pancreatic Cancer Cells in Vitro with High Selectivity ABSTRACT  HTML  PDF
Robert J Walter, Bashar M Attar, Asad Rafiq, Sooraj Tejaswi, Megan Delimata
Vol 13, No 3 (2012): May – p. 252-329 Rare Solid Tumors of the Pancreas as Differential Diagnosis of Pancreatic Adenocarcinoma ABSTRACT  HTML  PDF
Sabine Kersting, Monika S Janot, Johanna Munding, Dominique Suelberg, Andrea Tannapfel, Ansgar M Chromik, Waldemar Uhl, Uwe Bergmann
Vol 14, No 4 (2013): July – p. 304-474 A Proteomic Comparison of Formalin-Fixed Paraffin-Embedded Pancreatic Tissue from Autoimmune Pancreatitis, Chronic Pancreatitis, and Pancreatic Cancer ABSTRACT  HTML  PDF  SUPPL. TABLES 1-4 (PDF)
Joao A Paulo, Vivek Kadiyala, Scott Brizard, Peter A Banks, Hanno Steen, Darwin L Conwell
Vol 13, No 4 (2012): July – p. 330-469 Highlights on the First Line Treatment of Metastatic Pancreatic Cancer ABSTRACT  HTML  PDF
Krishna S Gunturu, Jamie Jarboe, Muhammad Wasif Saif
Vol 14, No 2 (2013): March – p. 109-220 Pancreatic Cancer: Updates on Translational Research and Future Applications ABSTRACT  HTML  PDF
Evangelos G Sarris, Konstantinos N Syrigos, Muhammad Wasif Saif
Vol 14, No 4 (2013): July – p. 304-474 Pancreatic Cancer: What About Screening and Detection? ABSTRACT  HTML  PDF
Froso Konstantinou, Kostas N Syrigos, Muhammad Wasif Saif
Vol 14, No 4 (2013): July – p. 304-474 Diabetes and Pancreatic Cancer ABSTRACT  HTML  PDF
Najla Hatem El-Jurdi, Muhammad Wasif Saif
Vol 13, No 5 (2012): September – p. 470-547 Effects of Porcine Pancreatic Enzymes on the Pancreas of Hamsters. Part 1: Basic Studies ABSTRACT  HTML  PDF
Murat Saruc, Fumiaki Nozawa, Mehmet Yalniz, Atsushi Itami, Parviz M Pour
Vol 14, No 2 (2013): March – p. 109-220 Analysis of Endoscopic Pancreatic Function Test (ePFT)-Collected Pancreatic Fluid Proteins Precipitated Via Ultracentrifugation ABSTRACT  HTML  PDF  SUPPL.(XLS)  SUPPL.(PDF)
Joao A Paulo, Vivek Kadiyala, Aleksandr Gaun, John F K Sauld, Ali Ghoulidi, Peter A Banks, Hanno Steen, Darwin L Conwell
Vol 16, No 1 (2015): January – p. 1-99 Regulation Mechanisms of the Hedgehog Pathway in Pancreatic Cancer: A Review ABSTRACT  HTML  PDF
Kim Christin Honselmann, Moritz Pross, Carlo Maria Felix Jung, Ulrich Friedrich Wellner, Steffen Deichmann, Tobias Keck, Dirk Bausch
Vol 14, No 5S (2013): September (Suppl.) – p. 528-602 History of Previous Cancer in Patients Undergoing Resection for Pancreatic Adenocarcinoma ABSTRACT  PDF
Francesca Gavazzi, Maria Rachele Angiolini, Cristina Ridolfi, Maria Carla Tinti, Marco Madonini, Marco Montorsi, Alessandro Zerbi

Patents

1.       www.uspto.gov

http://www.uspto.gov/web/patents/patog/week10/OG/html/1412-2/US08974784-20150310.html

Anti-pancreatic cancer antibodies: David M. Goldenberg, Mendham, NJ (US); Hans J. Hansen, Picayune, MS (US); Chien-Hsing Chang, Downingtown, PA (US); …

2.       www.uspto.gov

http://www.uspto.gov/web/patents/patog/week42/OG/html/1407-3/US08865413-20141021.html

A method of diagnosing pancreatic cancer in a human, the method comprising detecting the level of golgi apparatus protein 1 in a sample from the …

3.       www.uspto.gov

http://www.uspto.gov/web/patents/patog/week10/OG/html/1412-2/US08974802-20150310.html

A method for the treatment of pancreatic cancer, which comprises the administration to a human patient with pancreatic cancer of an effective …

4.       www.uspto.gov

http://www.uspto.gov/web/patents/patog/week50/OG/html/1409-3/US08912191-20141216.html

A method of treatment of melanoma, colorectal cancer, or pancreatic cancerwherein the treatment inhibits the progress of, reduces the rate of …

5.       www.uspto.gov

http://www.uspto.gov/web/patents/patog/week10/OG/html/1412-2/US08975401-20150310.html

A method of treating a cancer selected from breast cancer, hepatocellular carcinoma … gastric carcinoma, leukemia and pancreatic cancer in a subject …

6.       www.uspto.gov

http://www.uspto.gov/web/patents/patog/week42/OG/html/1407-3/US08865173-20141021.html

Treatments for pancreatic cancer metastases: Suzanne M. Spong, San Francisco, CA (US); Thomas B. Neff, Atherton, CA (US); and Stephen J. Klaus, San …

7.       www.uspto.gov

http://www.uspto.gov/web/patents/patog/week48/OG/html/1409-1/US08901093-20141202.html

Custom vectors for treating and preventing pancreatic cancer: Dennis L. Panicali, Acton, MA (US); Gail P. Mazzara, Winchester, MA (US); Linda R. …

8.       www.uspto.gov

http://www.uspto.gov/web/patents/patog/week09/OG/html/1412-1/US08969366-20150303.html

A method for treating a disease selected from the group consisting of melanoma, stomach cancer, liver cancer, colorectal cancer, pancreatic …

9.       Drug composition cytotoxic for pancreatic cancer cells

http://www.uspto.gov/web/patents/patog/week13/OG/html/1401-1/US08685941-20140401.html

Drug composition cytotoxic for pancreatic cancer cells: James Turkson, Orlando, Fla. (US) Assigned to University of Central Florida Research …

10.    [PDF] J. John Shimazaki, Esq. 1539 Lincoln Way, Suite 204

http://www.uspto.gov/web/offices/com/sol/foia/tac/2.66/74713131.pdf

  1. John Shimazaki, Esq. 1539 Lincoln Way, Suite 204 … containing the Of fice Action because Applicant™s president™s father was ill withpancreatic…

11.    [PDF] Written Comments on Genetic Diagnostic Testing Study

http://www.uspto.gov/aia_implementation/gen_e_lsi_20130207.pdf

Page 5 of 23 extracolonic cancers of LS include liver cancer, pancreatic cancer, gall bladder duct cancer, prostate cancer, sarcomas, thyroid cancer …

12.    Detection of digestive organ cancer, gastric cancer …

http://www.uspto.gov/web/patents/patog/week02/OG/html/1410-2/US08932990-20150113.html

Detection of digestive organ cancer, gastric cancer, colorectal cancer, pancreatic cancer, and biliary tract cancer by gene expression profiling

13.    www.uspto.gov

http://www.uspto.gov/web/patents/patog/week06/OG/html/1399-2/US08648112-20140211.html

wherein said cancer is selected from the group consisting of a sarcoma, … a nervous system cancer, prostate cancer, pancreatic cancer, and colon can …

14.    Treatment of hyperproliferative diseases with vinca …

http://www.uspto.gov/web/patents/patog/week45/OG/html/1408-2/US08883775-20141111.html

A method of treating or ameliorating a hyperproliferative disorder selected from the group consisting of glioblastoma, lung cancer, breast cancer . …

15.    www.uspto.gov

http://www.uspto.gov/web/patents/patog/week30/OG/html/1404-5/US08791125-20140729.html

A method for treating a Weel kinase mediated cancer selected from the group consisting of breast cancer, lung cancer, pancreatic cancer, colon …

16.    www.uspto.gov

http://www.uspto.gov/web/patents/patog/week08/OG/html/1411-4/US08962891-20150224.html

wherein said proliferative disorder is breast cancer or pancreatic cancer. …

17.    Immunoconjugates, compositions for making them, and …

http://www.uspto.gov/web/patents/patog/week40/OG/html/1407-1/US08852599-20141007.html

A method for treating a cancer in a subject suffering from such cancer, … pancreatic cancer, ovarian cancer, lymphoma, colon cancer, mesothelioma, …

18.    www.uspto.gov

http://www.uspto.gov/web/patents/patog/week11/OG/html/1400-3/US08673898-20140318.html

A method of treating cancer, … lung cancer, melanoma, neuroblastomas, oral cancer, ovarian cancer, pancreatic cancer, prostate cancer , rectal cance …

19.    www.uspto.gov

http://www.uspto.gov/web/patents/patog/week43/OG/html/1407-4/US08871744-20141028.html

A method for treating a subject having breast cancer, ovarian cancer, or pancreatic cancer in need of therapy thereof comprising administering to …

20.    [PDF] Pamela Scudder <pscudder@windstream.net> Sent: Saturday …

http://www.uspto.gov/sites/default/files/aia_implementation/gene-comment-scudder.pdf

My daughter died of ovarian cancer. My other daughter and many … (mutation) is known to cause a higher incidence of pancreatic (for instance) cancer …

21.    Methods of treating cancer using pyridopyrimidinone …

http://www.uspto.gov/web/patents/patog/week48/OG/html/1409-1/US08901137-20141202.html

A method of treating pancreatic cancer which method comprises administering to a patient a therapeutically effective amount of a compound that is:

22.    Heteroaryl substituted pyrrolo[2,3-B]pyridines and pyrrolo …

http://www.uspto.gov/web/patents/patog/week02/OG/html/1410-2/US08933086-20150113.html

A method of treating pancreatic cancer in a patient, comprising administering to said patient a therapeutically effective amount of a compound …

23.    www.uspto.gov

http://www.uspto.gov/web/patents/patog/week49/OG/html/1409-2/US08906934-20141209.html

… wherein the cell proliferative disorder is selected from the group consisting of cervical cancer, colon cancer, ovarian cancer, pancreatic cancer, …

24.    www.uspto.gov

http://www.uspto.gov/web/patents/patog/week32/OG/html/1405-2/US08802703-20140812.html

A method of inhibiting MEK in a cancer cell selected from the group consisting of human melanoma cells and human pancreatic cancer cells …

25.    Antibody-based arrays for detecting multiple signal …

http://www.uspto.gov/web/patents/patog/week08/OG/html/1399-4/US08658388-20140225.html

A method for performing a multiplex, high-throughput immunoassay for facilitating a cancer diagnosis, the method comprising:

26.    www.uspto.gov

http://www.uspto.gov/web/patents/patog/week48/OG/html/1409-1/US08901147-20141202.html

A method for the treatment of colorectal cancer, lung cancer, breast cancer, prostatecancer, urinary cancer, kidney cancer, and pancreatic …

27.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week16/OG/patentee/alphaY.htm

Yamaue, Hiroki; to Onco Therapy Science, Inc. Combination therapy for pancreatic cancer using an antigenic peptide and chemotherapeutic agent 08703713 …

28.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week48/OG/patentee/alphaP_Utility.htm

… The Custom vectors for treating and preventing pancreatic cancer … system and apparatus for control of pancreatic beta cell function to improve …

29.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week16/OG/patentee/alphaW.htm

Whatcott, Cliff; and Han, Haiyong, to Translational Genomics Research Institute, The Therapeutic target for pancreatic cancer cells 08703736 Cl. …

30.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week10/OG/patentee/alphaG.htm

Goldenberg, David M.; Hansen, Hans J.; Chang, Chien-Hsing; and Gold, David V., to Immunomedics, Inc. Anti-pancreatic cancer antibodies 08974784 Cl. …

31.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week42/OG/patentee/alphaD.htm

… Narayan, Vaibhav; and Patterson, Scott, to Celera Corporation Pancreatic cancertargets and uses thereof 08865413 Cl. 435-7.1. Domsch, Matthew L.; …

32.    [PDF] 15 March 2005 – United States Patent and Trademark Office

http://www.uspto.gov/web/trademarks/tmog/20050315_OG.pdf

15 March 2005 – United States Patent and Trademark Office

33.    www.uspto.gov

http://www.uspto.gov/web/patents/patog/week10/OG/html/1412-2/US08975248-20150310.html

Combinations of therapeutic agents for treating cancer: … myeloma, colorectal adenocarcinoma, cervical carcinoma and pancreatic carcinoma, …

34.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week05/OG/patentee/alphaG_Utility.htm

… Inc. Medium-chain length fatty acids, salts and triglycerides in combination with gemcitabine for treatment of pancreatic cancer 08946190 Cl. …

35.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week13/OG/patentee/alphaT_Utility.htm

Turkson, James; to University of Central Florida Research Foundation, Inc. Drug composition cytotoxic for pancreatic cancer cells 08685941 Cl. 514-49.

36.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week31/OG/patentee/alphaG_Utility.htm

… David M., to Immunomedics, Inc. Anti-mucin antibodies for early detection and treatment of pancreatic cancer 08795662 Cl. 424-130.1. Gold, …

37.    [PDF] www.uspto.gov

http://www.uspto.gov/web/trademarks/tmog/20110816_OG.pdf

http://www.uspto.gov

38.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week29/OG/patentee/alphaG.htm

Goggins, Michael G.; and Sato, Norihiro, to Johns Hopkins University, The Aberrantly methylated genes in pancreatic cancer 08785614 Cl. 536-24.3. …

39.    www.uspto.gov

http://www.uspto.gov/web/patents/patog/week46/OG/html/1408-3/US08889697-20141118.html

wherein said cancer is pancreatic cnacer, chronic myelogenous leukemia (CML), acute myelogenous leukemia (AML), acute lymphoblastic leukemia (ALL …

40.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week39/OG/patentee/alphaM_Utility.htm

Malafa, Mokenge P.; and Sebti, Said M., to University of South Florida Delta-tocotrienol treatment and prevention of pancreatic cancer 08846653 Cl. …

41.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week02/OG/patentee/alphaK_Utility.htm

… Taro, to National University Corporation Kanazawa University Detection of digestive organ cancer, gastric cancer, colorectal cancer, pancreatic …

42.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week11/OG/patentee/alphaK_Utility.htm

Kirn, David; to Sillajen Biotherapeutics, Inc. Oncolytic vaccinia virus cancer therapy 08980246 Cl. 424-93.2. Kirn, Larry J.; …

43.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week39/OG/patentee/alphaM_Utility.htm

Malafa, Mokenge P.; and Sebti, Said M., to University of South Florida Delta-tocotrienol treatment and prevention of pancreatic cancer 08846653 Cl. …

44.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week35/OG/patentee/alphaS_Utility.htm

list of patentees to whom patents were issued on the 2nd day of september, 2014 and to whom reexamination certificates were issued during the week …

45.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week42/OG/patentee/alphaS.htm

… Therapeutics Inc. Compounds and compositions for stabilizing hypoxia inducible factor-2 alpha as a method for treating cancer 08865748 Cl. …

46.    [PDF] Paper No. 12 UNITED STATES PATENT AND TRADEMARK OFFICE …

http://www.uspto.gov/sites/default/files/ip/boards/bpai/decisions/prec/bhide.pdf

high incidence of ras involvement, such as colon and pancreatic tumors. By … withcancer or pre-cancerous states will serve to treat or palliate the …

47.    CPC Scheme – C07K PEPTIDES – United States Patent and …

http://www.uspto.gov/web/patents/classification/cpc/html/cpc-C07K.html

PEPTIDES (peptides in … Cancer-associated SCM-recognition factor, CRISPP} [2013‑01] … Kazal type inhibitors, e.g. pancreatic secretory inhibitor, …

48.    Class Definition for Class 514 – DRUG, BIO-AFFECTING AND …

http://www.uspto.gov/web/patents/classification/uspc514/defs514.htm

… compound X useful as an anti-cancer … certain rules as to patent … Cystic fibrosis is manifested by faulty digestion due to a deficiency of pa …

49.    United States Patent and Trademark Office

http://www.uspto.gov/web/patents/classification/cpc/html/cpc-G01N_3.html

Cancer-associated SCM-recognition factor, CRISPP . G01N 2333/4748. . . . . … Bovine/basic pancreatic trypsin inhibitor (BPTI, aprotinin) G01N …

50.    Class Definition for Class 530 – CHEMISTRY: NATURAL RESINS …

http://www.uspto.gov/web/patents/classification/uspc530/defs530.htm

CLASS 530 , CHEMISTRY: NATURAL … Typically the processes of this subclass include solvent extraction of pancreatic … as well as with some forms of …

51.    CPC Definition – A61K PREPARATIONS FOR MEDICAL, DENTAL, OR …

http://www.uspto.gov/web/patents/classification/cpc/html/defA61K.html

PREPARATIONS FOR MEDICAL, DENTAL, OR TOILET PURPOSES … i.e. Pancreatic stem cells are classified in A61K 35/39, … preparations containing cancer a …

52.    Class 530: CHEMISTRY: NATURAL RESINS OR DERIVATIVES …

http://www.uspto.gov/web/offices/ac/ido/oeip/taf/def/530.htm

Typically the processes of this subclass include solvent extraction of pancreatic … 828 for cancer -associated proteins … provided for in Class …

53.    United States Patent and Trademark Office

http://www.uspto.gov/web/patents/classification/cpc/html/cpc-G01N_1.html

Home page of the United States Patent and … Pancreatic cells} G01N 33/5073 … – relevant features relating to a specifically defined cancer are …

54.    *****TBD***** – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/classification/shadowFiles/defs514sf.htm?514_971&S&10E&10F

class 514, drug, bio-affecting and body treating compositions …

55.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week47/OG/patentee/alphaN_Utility.htm

… Dale E., to Buck Institute for Age Research, The Reagents and methods for cancertreatment and … useful for diagnosis and treatment of pancreati …

56.    United States Patent and Trademark Office

http://www.uspto.gov/web/patents/classification/cpc/html/cpc-C12Y_2.html

Pancreatic ribonuclease (3.1.27.5) C12Y 301/27006. . Enterobacter ribonuclease (3.1.27.6) C12Y 301/27007. . Ribonuclease F (3.1.27.7) C12Y 301/27008. …

57.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week01/OG/patentee/alphaI_Utility.htm

Institute for Cancer Research: See … and Segev, Hanna, to Technion Research & Development Foundation Limited Populations of pancreatic …

58.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week53/OG/patentee/alphaC.htm

Cancer Research Technology Limited: See–Collins, Ian; Reader, John Charles; Klair, Suki; Scanlon, Jane; Addison, Glynn; and Cherry, Michael 08618121 …

59.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week12/OG/patentee/alphaP_Utility.htm

… to University Health Network Cyclic inhibitors of carnitine palmitoyltransferase and treating cancer … progenitor cells and pancreatic endocrine …

60.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week47/OG/patentee/alphaI.htm

… to King Fahd University of Petroleum and Minerals Cytotoxic compounds for treatingcancer … or preventing a pancreatic dysfunction 08894972 Cl …

61.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week50/OG/patentee/alphaC.htm

… and Taylor-Papadimitriou, Joyce, to Københavns Universitet Generation of a cancer-specific … to CuRNA, Inc. Treatment of pancreatic …

62.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week29/OG/patentee/alphaP_Utility.htm

… to Cedars-Sinai Medical Center Drug delivery of temozolomide for systemic based treatment of cancer … Pancreatic enzyme compositions and …

63.    Class 424: DRUG, BIO-AFFECTING AND BODY TREATING …

http://www.uspto.gov/web/offices/ac/ido/oeip/taf/def/424.htm

… a disclosed or even specifically claimed utility (i.e., compound X having an attached radionuclide useful as an anti-cancer diagnostic or …

64.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week25/OG/patentee/alphaT_Utility.htm

… Chang-Jer, to Gold Nanotech Inc. Physical nano-complexes for preventing and treating cancer and … and protective solution for protecting pancrea …

65.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week27/OG/patentee/alphaA_Utility.htm

… Thomas T., to Penn State Research Foundation, The In vivo photodynamic therapy ofcancer via a near infrared … of pancreatic beta-cells by …

66.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week32/OG/patentee/alphaB_Utility.htm

Birnie, Richard; to University of York, The Cancer vaccine 08802619 Cl. 514-1. Birtwhistle, Daniel P.; Long, James R.; and Reinke, Robert E., …

67.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week20/OG/patentee/alphaC_Utility.htm

… to Cornell University Method for treating cancer 08729133 Cl. 514-673 … methods for promoting the generation of PDX1+ pancreatic cells …

68.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week49/OG/patentee/alphaL_Utility.htm

… Kurt, to Abbvie Biotherapeutics Inc. Compositions against cancer antigen LIV-1 and uses … H., to Amylin Pharmaceuticals, LLC Pancreatic …

69.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week11/OG/patentee/alphaS_Utility.htm

… Kenji; and Matsuda, Hirokazu, to Kyoto University Molecular probe for imaging ofpancreatic islets and use … use in the treatment of cancer …

70.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week36/OG/patentee/alphaK.htm

… Emi; Matsumi, Chiemi; and Saitoh, Yukie, to Actgen Inc Antibody having anti-cancer … The Plectin-1 targeted agents for detection and treatment …

71.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week53/OG/patentee/alphaK.htm

list of patentees to whom patents were issued on the 31th day of december, 2013 and to whom reexamination certificates were issued during the week …

72.    Patentee Index – United States Patent and Trademark Office

http://www.uspto.gov/web/patents/patog/week40/OG/patentee/alphaK_Utility.htm

… Uemoto, Shinji; and Kawaguchi, Yoshiya, to Kyoto University Method of culturingpancreatic islet-like tissues by a … of breast cancer 08853183 …

Clinical Trials:

Region Name   Number of Studies
World 1824  
Africa   [map]   10  
Central America   [map]   4  
East Asia   [map]   179  
Japan 40   [studies]
Europe   [map]   444  
Middle East   [map]   46  
North America 1189  
Canada   [map]   102   [studies]
Mexico 11   [studies]
United States   [map]   1144   [studies]
Alabama 60   [studies]
Alaska 4   [studies]
Arizona 107   [studies]
Arkansas 23   [studies]
California 235   [studies]
Colorado 79   [studies]
Connecticut 51   [studies]
Delaware 15   [studies]
District of Columbia 36   [studies]
Florida 187   [studies]
Georgia 77   [studies]
Hawaii 15   [studies]
Idaho 11   [studies]
Illinois 139   [studies]
Indiana 94   [studies]
Iowa 51   [studies]
Kansas 39   [studies]
Kentucky 48   [studies]
Louisiana 46   [studies]
Maine 11   [studies]
Maryland 189   [studies]
Massachusetts 142   [studies]
Michigan 116   [studies]
Minnesota 114   [studies]
Mississippi 14   [studies]
Missouri 91   [studies]
Montana 27   [studies]
Nebraska 42   [studies]
Nevada 32   [studies]
New Hampshire 25   [studies]
New Jersey 64   [studies]
New Mexico 27   [studies]
New York 230   [studies]
North Carolina 111   [studies]
North Dakota 22   [studies]
Ohio 136   [studies]
Oklahoma 41   [studies]
Oregon 54   [studies]
Pennsylvania 180   [studies]
Rhode Island 23   [studies]
South Carolina 72   [studies]
South Dakota 23   [studies]
Tennessee 115   [studies]
Texas 212   [studies]
Utah 36   [studies]
Vermont 11   [studies]
Virginia 69   [studies]
Washington 83   [studies]
West Virginia 12   [studies]
Wisconsin 74   [studies]
Wyoming 9   [studies]
North Asia   [map]   24  
Pacifica   [map]   39  
South America   [map]   30  
South Asia   [map]   23  
Southeast Asia   [map]   25  

Search Results for ‘pancreas cancer’

Genomics and Epigenetics: Genetic Errors and Methodologies – Cancer and Other Diseases on March 25, 2015 |  Read Full Post »

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NIH Study Demonstrates that a New Cancer Immunotherapy Method could be Effective against a wide range of Cancers  on May 12, 2014 |

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A Synthesis of the Beauty and Complexity of How We View Cancer

on March 26, 2014 Read Full Post »

 

Pancreatic Cancer Diagnosis: Four Novel Histo-pathologies Screening Characteristics offers more Reliable Identification of Cellular Features associated with Cancer

on November 13, 2013 | Read Full Post »

 

What`s new in pancreatic cancer research and treatment?

on October 21, 2013 | Read Full Post »

 

Family History of Cancer may increase the Risk of Close Relatives developing the Same Type of Cancer as well as Different Types

on July 25, 2013 Read Full Post »

 

2013 Perspective on “War on Cancer” on December 23, 1971

on July 5, 2013 Read Full Post »

 

Mesothelin: An early detection biomarker for cancer (By Jack Andraka) on April 21, 2013 |  Read Full Post »

Pancreatic Cancer: Genetics, Genomics and Immunotherapy

on April 11, 2013 |  Read Full Post »

New methods for Study of Cellular Replication, Growth, and Regulation on March 25, 2015 Read Full Post »

Diet and Diabetes on March 2, 2015 |  Read Full Post »

Neonatal Pathophysiology on February 22, 2015 |  Read Full Post »

Endocrine Action on Midbrain on February 12, 2015 | Read Full Post »

Gastrointestinal Endocrinology on February 10, 2015 | Read Full Post »

Parathyroids and Bone Metabolism on February 10, 2015 | Read Full Post »

Pancreatic Islets on February 8, 2015 | Read Full Post »

Pituitary Neuroendocrine Axis on February 4, 2015 |Read Full Post »

Highlights in the History of Physiology on December 28, 2014 | Read Full Post »

Outline of Medical Discoveries between 1880 and 1980 on December 3, 2014 | Read Full Post »

Diagnostics Industry and Drug Development in the Genomics Era: Mid 80s to Present on November 21, 2014  Read Full Post »

Implantable Medical Devices to 2015 – Industry Market Research, Market Share, Market Size, Sales, Demand Forecast, Market Leaders, Company Profiles, Industry Trends on November 17, 2014 | Read Full Post »

Pharmacological Action of Steroid Hormones on October 27, 2014 | Read Full Post »

Metabolomics Summary and Perspective on October 16, 2014 | Read Full Post »

Pancreatic Tumors take nearly 20 years to become Lethal after the first Genetic Perturbations – Discovery @ The Johns Hopkins University  on October 15, 2014 |Read Full Post »

Isoenzymes in cell metabolic pathways on October 6, 2014 | Read Full Post »

Metformin, thyroid-pituitary axis, diabetes mellitus, and metabolism on September 28, 2014 | Read Full Post »

Carbohydrate Metabolism on August 13, 2014 | Read Full Post »

A Primer on DNA and DNA Replication on July 29, 2014 | Read Full Post »

The Discovery and Properties of Avemar – Fermented Wheat Germ Extract: Carcinogenesis Suppressor on June 7, 2014 | Read Full Post »

Previous Articles posted on Prostate Cancer

@Mayo Clinic: Inhibiting the gene, protein kinase D1 (PKD1), and its protein could stop spread of this form of Pancreatic Cancer 2012pharmaceutical 2015/02/24
Published
Thymoquinone, an extract of nigella sativa seed oil, blocked pancreatic cancer cell growth and killed the cells by enhancing the process of programmed cell death. larryhbern 2014/07/15
Published
Moringa Oleifera Kills 97% of Pancreatic Cancer Cells in Vitro larryhbern 2014/06/21
Published
The Gonzalez protocol: Worse than useless for pancreatic cancer sjwilliamspa 2014/06/17
Published
An alternative approach to overcoming the apoptotic resistance of pancreatic cancer 2012pharmaceutical 2014/06/03
Published
Locally Advanced Pancreatic Cancer: Efficacy of FOLFIRINOX 2012pharmaceutical 2014/06/01
Published
Consortium of European Research Institutions and Private Partners will develop a microfluidics-based lab-on-a-chip device to identify Pancreatic Cancer Circulating Tumor Cells (CTC) in blood 2012pharmaceutical 2014/04/10
Published
Pancreatic Cancer Diagnosis: Four Novel Histo-pathologies Screening Characteristics offers more Reliable Identification of Cellular Features associated with Cancer 2012pharmaceutical 2013/11/13
Published
What`s new in pancreatic cancer research and treatment? 2012pharmaceutical 2013/10/21
Published
Pancreatic Cancer: Genetics, Genomics and Immunotherapy tildabarliya 2013/04/11
Published
Pancreatic cancer genomes: Axon guidance pathway genes – aberrations revealed 2012pharmaceutical 2012/10/24
Published
Biomarker tool development for Early Diagnosis of Pancreatic Cancer: Van Andel Institute and Emory University 2012pharmaceutical 2012/10/24
Published
Personalized Pancreatic Cancer Treatment Option 2012pharmaceutical 2012/10/16
Published
Battle of Steve Jobs and Ralph Steinman with Pancreatic cancer: How we lost ritusaxena 2012/05/21
Published
Early Biomarker for Pancreatic Cancer Identified pkandala 2012/05/17
Published
Usp9x: Promising therapeutic target for pancreatic cancer ritusaxena 2012/05/14
Published
War on Cancer Needs to Refocus to Stay Ahead of Disease Says Cancer Expert sjwilliamspa 2015/03/27
Published
Antibiotics that target mitochondria effectively eradicate cancer stem cells, across multiple tumor types: Treating cancer like an infectious disease 2012pharmaceutical 2015/02/15
Published
Pancreatic Islets larryhbern 2015/02/08
Publ
Vol 13, No 4 (2012): July – p. 330-469 Molecular Biology of Pancreatic Cancer: How Useful Is It in Clinical Practice? ABSTRACT  HTML  PDF
George H Sakorafas, Vasileios Smyrniotis
Vol 13, No 4 (2012): July – p. 330-469 Endoscopic Findings of Upper Gastrointestinal Lesions in Patients with Pancreatic Cancer ABSTRACT  HTML  PDF
Koushiro Ohtsubo, Hiroyuki Watanabe, Hisatsugu Mouri, Kaname Yamashita, Kazuo Yasumoto, Seiji Yano
Vol 13, No 5 (2012): September – p. 470-547 Two Avirulent, Lentogenic Strains of Newcastle Disease Virus Are Cytotoxic for Some Human Pancreatic Tumor Lines In Vitro ABSTRACT  HTML  PDF
Robert J Walter, Bashar M Attar, Asad Rafiq, Megan Delimata, Sooraj Tejaswi
Vol 14, No 3 (2013): May – p. 221-303 Duration of Diabetes and Pancreatic Cancer in a Case-Control Study in the Midwest and the Iowa Women’s Health Study (IWHS) Cohort ABSTRACT  HTML  PDF
Sarah A Henry, Anna E Prizment, Kristin E Anderson
Vol 16, No 1 (2015): January – p. 1-99 Endoscopic Management of Pain in Pancreatic Cancer ABSTRACT  HTML  PDF
Parit Mekaroonkamol, Field F Willingham, Saurabh Chawla
Vol 14, No 2 (2013): March – p. 109-220 Advancements in the Management of Pancreatic Cancer: 2013 ABSTRACT  HTML  PDF
Muhammad Wasif Saif
Vol 15, No 5 (2014): September – p. 413-540 New-onset Diabetes: A Clue to the Early Diagnosis of Pancreatic Cancer ABSTRACT  HTML  PDF
Suresh T Chari
Vol 13, No 5 (2012): September – p. 470-547 Effects of Porcine Pancreatic Enzymes on the Pancreas of Hamsters. Part 2: Carcinogenesis Studies ABSTRACT  HTML  PDF
Fumiaki Nozawa, Mehmet Yalniz, Murat Saruc, Jens Standop, Hiroshi Egami, Parviz M Pour
Vol 14, No 5 (2013): September – p. 475-527 Synchronous Triple Cancers of the Pancreas, Stomach, and Cecum Treated with S-1 Followed by Pancrelipase Treatment of Pancreatic Exocrine Insufficiency ABSTRACT  HTML  PDF
Koushiro Ohtsubo, Daisuke Ishikawa, Shigeki Nanjo, Shinji Takeuchi, Tadaaki Yamada, Hisatsugu Mouri, Kaname Yamashita, Kazuo Yasumoto, Toshifumi Gabata, Osamu Matsui, Hiroko Ikeda, Yasushi Takamatsu, Sakae Iwakami, Seiji Yano
Vol 13, No 1 (2012): January – p. 1-123 Newcastle Disease Virus LaSota Strain Kills Human Pancreatic Cancer Cells in Vitro with High Selectivity ABSTRACT  HTML  PDF
Robert J Walter, Bashar M Attar, Asad Rafiq, Sooraj Tejaswi, Megan Delimata
Vol 13, No 3 (2012): May – p. 252-329 Rare Solid Tumors of the Pancreas as Differential Diagnosis of Pancreatic Adenocarcinoma ABSTRACT  HTML  PDF
Sabine Kersting, Monika S Janot, Johanna Munding, Dominique Suelberg, Andrea Tannapfel, Ansgar M Chromik, Waldemar Uhl, Uwe Bergmann
Vol 14, No 4 (2013): July – p. 304-474 A Proteomic Comparison of Formalin-Fixed Paraffin-Embedded Pancreatic Tissue from Autoimmune Pancreatitis, Chronic Pancreatitis, and Pancreatic Cancer ABSTRACT  HTML  PDF  SUPPL. TABLES 1-4 (PDF)
Joao A Paulo, Vivek Kadiyala, Scott Brizard, Peter A Banks, Hanno Steen, Darwin L Conwell
Vol 13, No 4 (2012): July – p. 330-469 Highlights on the First Line Treatment of Metastatic Pancreatic Cancer ABSTRACT  HTML  PDF
Krishna S Gunturu, Jamie Jarboe, Muhammad Wasif Saif
Vol 14, No 2 (2013): March – p. 109-220 Pancreatic Cancer: Updates on Translational Research and Future Applications ABSTRACT  HTML  PDF
Evangelos G Sarris, Konstantinos N Syrigos, Muhammad Wasif Saif
Vol 14, No 4 (2013): July – p. 304-474 Pancreatic Cancer: What About Screening and Detection? ABSTRACT  HTML  PDF
Froso Konstantinou, Kostas N Syrigos, Muhammad Wasif Saif
Vol 14, No 4 (2013): July – p. 304-474 Diabetes and Pancreatic Cancer ABSTRACT  HTML  PDF
Najla Hatem El-Jurdi, Muhammad Wasif Saif
Vol 13, No 5 (2012): September – p. 470-547 Effects of Porcine Pancreatic Enzymes on the Pancreas of Hamsters. Part 1: Basic Studies ABSTRACT  HTML  PDF
Murat Saruc, Fumiaki Nozawa, Mehmet Yalniz, Atsushi Itami, Parviz M Pour
Vol 14, No 2 (2013): March – p. 109-220 Analysis of Endoscopic Pancreatic Function Test (ePFT)-Collected Pancreatic Fluid Proteins Precipitated Via Ultracentrifugation ABSTRACT  HTML  PDF  SUPPL.(XLS)  SUPPL.(PDF)
Joao A Paulo, Vivek Kadiyala, Aleksandr Gaun, John F K Sauld, Ali Ghoulidi, Peter A Banks, Hanno Steen, Darwin L Conwell
Vol 16, No 1 (2015): January – p. 1-99 Regulation Mechanisms of the Hedgehog Pathway in Pancreatic Cancer: A Review ABSTRACT  HTML  PDF
Kim Christin Honselmann, Moritz Pross, Carlo Maria Felix Jung, Ulrich Friedrich Wellner, Steffen Deichmann, Tobias Keck, Dirk Bausch
Vol 14, No 5S (2013): September (Suppl.) – p. 528-602 History of Previous Cancer in Patients Undergoing Resection for Pancreatic Adenocarcinoma ABSTRACT  PDF
Francesca Gavazzi, Maria Rachele Angiolini, Cristina Ridolfi, Maria Carla Tinti, Marco Madonini, Marco Montorsi, Alessandro Zerbi
Vol 13, No 4 (2012): July – p. 330-469 Molecular Biology of Pancreatic Cancer: How Useful Is It in Clinical Practice? ABSTRACT  HTML  PDF
George H Sakorafas, Vasileios Smyrniotis
Vol 13, No 4 (2012): July – p. 330-469 Endoscopic Findings of Upper Gastrointestinal Lesions in Patients with Pancreatic Cancer ABSTRACT  HTML  PDF
Koushiro Ohtsubo, Hiroyuki Watanabe, Hisatsugu Mouri, Kaname Yamashita, Kazuo Yasumoto, Seiji Yano
Vol 13, No 5 (2012): September – p. 470-547 Two Avirulent, Lentogenic Strains of Newcastle Disease Virus Are Cytotoxic for Some Human Pancreatic Tumor Lines In Vitro ABSTRACT  HTML  PDF
Robert J Walter, Bashar M Attar, Asad Rafiq, Megan Delimata, Sooraj Tejaswi
Vol 14, No 3 (2013): May – p. 221-303 Duration of Diabetes and Pancreatic Cancer in a Case-Control Study in the Midwest and the Iowa Women’s Health Study (IWHS) Cohort ABSTRACT  HTML  PDF
Sarah A Henry, Anna E Prizment, Kristin E Anderson
Vol 16, No 1 (2015): January – p. 1-99 Endoscopic Management of Pain in Pancreatic Cancer ABSTRACT  HTML  PDF
Parit Mekaroonkamol, Field F Willingham, Saurabh Chawla
Vol 14, No 2 (2013): March – p. 109-220 Advancements in the Management of Pancreatic Cancer: 2013 ABSTRACT  HTML  PDF
Muhammad Wasif Saif
Vol 15, No 5 (2014): September – p. 413-540 New-onset Diabetes: A Clue to the Early Diagnosis of Pancreatic Cancer ABSTRACT  HTML  PDF
Suresh T Chari
Vol 13, No 5 (2012): September – p. 470-547 Effects of Porcine Pancreatic Enzymes on the Pancreas of Hamsters. Part 2: Carcinogenesis Studies ABSTRACT  HTML  PDF
Fumiaki Nozawa, Mehmet Yalniz, Murat Saruc, Jens Standop, Hiroshi Egami, Parviz M Pour
Vol 14, No 5 (2013): September – p. 475-527 Synchronous Triple Cancers of the Pancreas, Stomach, and Cecum Treated with S-1 Followed by Pancrelipase Treatment of Pancreatic Exocrine Insufficiency ABSTRACT  HTML  PDF
Koushiro Ohtsubo, Daisuke Ishikawa, Shigeki Nanjo, Shinji Takeuchi, Tadaaki Yamada, Hisatsugu Mouri, Kaname Yamashita, Kazuo Yasumoto, Toshifumi Gabata, Osamu Matsui, Hiroko Ikeda, Yasushi Takamatsu, Sakae Iwakami, Seiji Yano
Vol 13, No 1 (2012): January – p. 1-123 Newcastle Disease Virus LaSota Strain Kills Human Pancreatic Cancer Cells in Vitro with High Selectivity ABSTRACT  HTML  PDF
Robert J Walter, Bashar M Attar, Asad Rafiq, Sooraj Tejaswi, Megan Delimata
Vol 13, No 3 (2012): May – p. 252-329 Rare Solid Tumors of the Pancreas as Differential Diagnosis of Pancreatic Adenocarcinoma ABSTRACT  HTML  PDF
Sabine Kersting, Monika S Janot, Johanna Munding, Dominique Suelberg, Andrea Tannapfel, Ansgar M Chromik, Waldemar Uhl, Uwe Bergmann
Vol 14, No 4 (2013): July – p. 304-474 A Proteomic Comparison of Formalin-Fixed Paraffin-Embedded Pancreatic Tissue from Autoimmune Pancreatitis, Chronic Pancreatitis, and Pancreatic Cancer ABSTRACT  HTML  PDF  SUPPL. TABLES 1-4 (PDF)
Joao A Paulo, Vivek Kadiyala, Scott Brizard, Peter A Banks, Hanno Steen, Darwin L Conwell
Vol 13, No 4 (2012): July – p. 330-469 Highlights on the First Line Treatment of Metastatic Pancreatic Cancer ABSTRACT  HTML  PDF
Krishna S Gunturu, Jamie Jarboe, Muhammad Wasif Saif
Vol 14, No 2 (2013): March – p. 109-220 Pancreatic Cancer: Updates on Translational Research and Future Applications ABSTRACT  HTML  PDF
Evangelos G Sarris, Konstantinos N Syrigos, Muhammad Wasif Saif
Vol 14, No 4 (2013): July – p. 304-474 Pancreatic Cancer: What About Screening and Detection? ABSTRACT  HTML  PDF
Froso Konstantinou, Kostas N Syrigos, Muhammad Wasif Saif
Vol 14, No 4 (2013): July – p. 304-474 Diabetes and Pancreatic Cancer ABSTRACT  HTML  PDF
Najla Hatem El-Jurdi, Muhammad Wasif Saif
Vol 13, No 5 (2012): September – p. 470-547 Effects of Porcine Pancreatic Enzymes on the Pancreas of Hamsters. Part 1: Basic Studies ABSTRACT  HTML  PDF
Murat Saruc, Fumiaki Nozawa, Mehmet Yalniz, Atsushi Itami, Parviz M Pour
Vol 14, No 2 (2013): March – p. 109-220 Analysis of Endoscopic Pancreatic Function Test (ePFT)-Collected Pancreatic Fluid Proteins Precipitated Via Ultracentrifugation ABSTRACT  HTML  PDF  SUPPL.(XLS)  SUPPL.(PDF)
Joao A Paulo, Vivek Kadiyala, Aleksandr Gaun, John F K Sauld, Ali Ghoulidi, Peter A Banks, Hanno Steen, Darwin L Conwell
Vol 16, No 1 (2015): January – p. 1-99 Regulation Mechanisms of the Hedgehog Pathway in Pancreatic Cancer: A Review ABSTRACT  HTML  PDF
Kim Christin Honselmann, Moritz Pross, Carlo Maria Felix Jung, Ulrich Friedrich Wellner, Steffen Deichmann, Tobias Keck, Dirk Bausch
Vol 14, No 5S (2013): September (Suppl.) – p. 528-602 History of Previous Cancer in Patients Undergoing Resection for Pancreatic Adenocarcinoma ABSTRACT  PDF
Francesca Gavazzi, Maria Rachele Angiolini, Cristina Ridolfi, Maria Carla Tinti, Marco Madonini, Marco Montorsi, Alessandro Zerbi

Read Full Post »

Natural Drug Target Discovery and Translational Medicine in Human Microbiome

Posted in Biological Networks, Gene Regulation and Evolution, Biomarkers & Medical Diagnostics, CANCER BIOLOGY & Innovations in Cancer Therapy, Ecosystems & Industrial Concentration in the Medical Device Sector, Evidence-based decision-making, Genome Biology, Genomic Expression, Metabolomics, Molecular Genetics & Pharmaceutical, Nitric Oxide in Health and Disease, Nutrigenomics, Nutrition, Personalized and Precision Medicine & Genomic Research, Pharmaceutical Industry Competitive Intelligence, Pharmaceutical R&D Investment, Pharmacogenomics, Pre-Clinical Animal Model Development, Technology Transfer: Biotech and Pharmaceutical, Translational Research, Translational Science, tagged , , , , , , , , , , , , , , , , , , , on March 23, 2014| Leave a Comment »


Natural Drug Target Discovery and Translational Medicine in Human Microbiome

Author and Curator: Demet Sag, PhD

 

Remember Ecology 101, simple description of ecosystem includes both living, biotic, and non-living, abiotic, that response to differentiation based on external and internal factors.  Hence, biodiversity changes since living systems are open systems and always try to reach stability. Both soil and human body are rich in microbial life against ever changing conditions. Previously, discovery of marine microorganisms for treatment of complex diseases especially cancer and drug discovery for pharmaceutical applications was discussed. (https://pharmaceuticalintelligence.com/2014/03/20/without-the-past-no-future-but-learn-and-move-genomics-of-microorganisms-to-translational-medicine/)

Here, the focus will be given to clinical drug discovery based on how lactose intolerance and human microbiome related to treat cancer patients or other diseases. In sum, creating clinical relevance with human microbiome require knowledge of both of the worlds to make best of it to solve complex diseases naturally.

The huge undertake as a roadmap to biomedical research originated by NIH under The Human Microbiome Project (HMP) (http://nihroadmap.nih.gov) with 250 healthy individuals as a starting point.  Recent developments opened the doors to pursue us to understand how human microbiome reflects on metabolism, drug interactions and numerous diseases.  Finally, association between clinical states and microbiome are improving with advanced algorithms, bioinformatics and genomics. In classical reading tests questions finding the simile between two groups of words can well relate how microbiome- human and soil-earth relates.  Both are rich in microbial life with quite changing characters to survive through commensal living.

Thus, it is also good to talk about how we can synthesize existing info on interactions between soil microorganisms and decomposers for human diseases and human microbiome. Epidemiology of living organisms is diverse but they all share common interest. In soil, for example, radioactively contaminated soil can’t support plant growth well so Nitrosomonas may support to bring the life to soil through supplying nitrogen. And others can be added to bring a favorable enriched soil.

In human microbiome nutrition-diseases interacts in such a harmony with genetic make up (the information received at time of birth germline- or acquired later in life due to mutations by various reasons). For example, the simplest example is lactose intolerance and the other is development of diabetes.  Generally, it is described as If person is missing a gene to metabolize lactose (sugar) this person become Lactose intolerant yet this can be gained before birth or after. The fix is easy since avoiding certain food groups i.e. milk products.

Yet, this is not that simple!

In human microbiome, the rich gastrointestinal (GI) tract contains many organisms and one of the most important ones is Enterococci that are often simply described as lactic-acid–producing bacteria—by under- appreciation of their power of microbial physiology and outcomes as well as their ubiquitous nature of enterococci.  Schleifer & Kilpper-Bälz, 1984 also reported that the Group D streptococci, such as Streptococcus faecalis and Streptococcus faecium, were included in the new genus called Enterococcus.

The importance of this genius, consists of 37 species, coming from their spectrum of  habitats that include the gastrointestinal microbiota of nearly every animal phylum and flexibility with ability to widely colonize, intrinsic resistance to many inhabitable conditions even though they don’t have spores but they can survive against desiccation and can persist for months on dried surfaces.  Furthermore, they can tolerate extreme conditions such as pH changes, ionizing radiation, osmotic and oxidative stresses, high heavy metal concentrations, and antibiotics.

There is a double sword application as these organisms used as probiotics to improve immune system of the host.  If it is human to prevent contaminated food related diseases or in animals prevent transmitting them to the consumers. Thus, E. faecium and E. faecalis strains are used as probiotics and are ingested in high numbers, generally in the form of pharmaceutical preparations to treat diarrhea, antibiotic-associated diarrhea or irritable bowel syndrome, to lower cholesterol levels or to improve host immunity.

When it comes to human body within each system specific organs may create distinct values.  For example the pH values of GI tract vary and during diseases since pH levels are not at at correct levels.  As a result, due to mal-absorption of nutrients and elements such as food, vitamins and minerals body can’t heal itself. This changing microbial genomics on the surface of GI reflects on general health.  Entrococcus family among the other GI’s natural flora has the microbial physiology adopt these various pH conditions well. 

 

Our body has its own standards to function, such as  pH, temperature, oxygen etc these are basics so that enzymatic reactions may happen to metabolize,synthesizing (making) or catalyzing (breaking) what we eat.  The pH is the measure of hydrogen-ion concentration  in solution.  For example, human blood has a narrow pH (7.35 – 7.45 ) and below or above this range means symptoms and disease yet if blood pH moves to much below 6.8 or above 7.8, cells stop functioning and the patient dies since the ideal pH for blood is 7.4.  This value is unified.  On the other hand, the pH in the human digestive tract or GI changes tremendously to adopt and carry on its function, the pH of saliva (6.5 – 7.5), upper portion of the stomach (4.0 – 6.5) where “predigestion” occurs, the lower portion of the stomach is secreting hydrochloric acid (HCI) and pepsin until it reaches a pH between 1.5 – 4.0; duodenum, small intestine, (7.0 – 8.5) where 90% of the absorption of nutrients is taken in by the body while the waste products are passed out through the colon (pH 4.0 – 7.0).

 

Why is pH important and how related to anything?

Development and presence of cancer always require an acid pH and lack of oxygen.  Thus, prevention of these two factors may be the key for treatment of cancer as it progress the acidity increases such that the level raises even up to 1000 more than normal levels.

Mainly, due to Warburg effect body opt to get its energy from fermentation of glucose and produce lactic acid that decreases the body pH from 7.3 down to 7 then to 6.5 in advanced stages of cancer.  Furthermore, during metastases this level even reaches to 6.0 and even 5.7 where body can’t fight back with the disease. (Warburg effect is well explained previously by Dr. Larry Berstein (www.linkedin.com/pub/larry-bernstein/38/94b/3aa).

How to bypass the lack of oxygen naturally?

One of the many solution can be a natural solution. The nature made the hemoglobin carrying bacteria, Vitreoscilla hemoglobin (VHb), which is first described by Dale Webster in 1966. The gram negative and obligate aerobic bacterium, Vitreoscilla synthesizes elevated quantities of a homodimeric hemoglobin (VHb) under hypoxic growth conditions.   The main role is likely the binding of oxygen at low concentrations and its direct delivery to the terminal respiratory oxidase(s) such as cytochrome o.  Then, after 1986 with detailed description of the molecule other hemoglobins and flavohemoglobins were identified in a variety of microbes, indicating the widespread occurrence of Hb-like proteins.   Currently, it is the most studied bacterial hemoglobin with application potentials in biotechnology.

It is a plausible solution to integrate Vitroscilla and Enterobacter powers for cancer detection and treatment naturally with body’s own microbiome.

However, there are many microbial organisms and differ person to person based on gender, age, background, genetic make-up, food intake, habits, location etc.  The huge undertake as a roadmap to biomedical research originated by NIH under The Human Microbiome Project (HMP) (http://nihroadmap.nih.gov) with 250 healthy individuals as a starting point.

There were three goals in the agenda of The Human Microbiome Project (HMP) simply:

 1. Utilize advanced high throughput technology,

2. Identify any association between microbiome and disease/health stages,

3. Initiate scientific studies to collect more data.

In sum, creating clinical relevance with human microbiome require knowledge of both of the worlds to make best of it to solve complex diseases naturally.

Previously  Discussed:

AMPK Is a Negative Regulator of the Warburg Effect and Suppresses Tumor Growth In Vivo
Reporter-Curator: Stephen J. Williams, Ph.D.
https://pharmaceuticalintelligence.com/2013/03/12/ampk-is-a-negative-regulator-of-the-warburg-effect-and-suppresses-tumor-growth-in-vivo/

Is the Warburg Effect the Cause or the Effect of Cancer: A 21st Century View?
Author: Larry H. Bernstein, MD, FCAP
https://pharmaceuticalintelligence.com/2012/10/17/is-the-warburg-effect-the-cause-or-the-effect-of-cancer-a-21st-century-view/

Otto Warburg, A Giant of Modern Cellular Biology
Reporter: Larry H Bernstein, MD, FCAP
https://pharmaceuticalintelligence.com/2012/11/02/otto-warburg-a-giant-of-modern-cellular-biology/

Targeting Mitochondrial-bound Hexokinase for Cancer Therapy
Author: Ziv Raviv, PhD
https://pharmaceuticalintelligence.com/2013/04/06/targeting-mito…cancer-therapy

Nitric Oxide has a ubiquitous role in the regulation of glycolysis -with a concomitant influence on mitochondrial function
Curator, Larry H. Bernstein, MD, FCAP
https://pharmaceuticalintelligence.com/2012/09/16/nitric-oxide-has-a-ubiquitous-role-in-the-regulation-of-glycolysis-with-a-concomitant-influence-on-mitochondrial-function/

Potential Drug Target: Glucolysis Regulation – Oxidative stress-responsive microRNA-320
Reporter: Aviva Lev-Ari, PhD, RN
https://pharmaceuticalintelligence.com/2012/07/25/potential-drug-target-glucolysis-regulation-oxidative-stress-responsive-microrna-320/

Differentiation Therapy – Epigenetics Tackles Solid Tumors
Author-Writer: Stephen J. Williams, Ph.D.
https://pharmaceuticalintelligence.com/2013/01/03/differentiation-therapy-epigenetics-tackles-solid-tumors/

Prostate Cancer Cells: Histone Deacetylase Inhibitors Induce Epithelial-to-Mesenchymal Transition
Reporter-Curator: Stephen J. Williams, Ph.D.
https://pharmaceuticalintelligence.com/2012/11/30/histone-deacetylase-inhibitors-induce-epithelial-to-mesenchymal-transition-in-prostate-cancer-cells/

Mitochondrial Damage and Repair under Oxidative Stress
Curator: Larry H Bernstein, MD, FCAP
https://pharmaceuticalintelligence.com/2012/10/28/mitochondrial-damage-and-repair-under-oxidative-stress/

Mitochondria: Origin from oxygen free environment, role in aerobic glycolysis, metabolic adaptation
Curator: Larry H Bernsatein, MD, FCAP
https://pharmaceuticalintelligence.com/2012/09/26/mitochondria-origin-from-oxygen-free-environment-role-in-aerobic-glycolysis-metabolic-adaptation/

Expanding the Genetic Alphabet and Linking the Genome to the Metabolome
Reporter& Curator: Larry Bernstein, MD, FCAP
https://pharmaceuticalintelligence.com/2012/09/24/expanding-the-genetic-alphabet-and-linking-the-genome-to-the-metabolome/

What can we expect of tumor therapeutic response?
Author: Larry H. Bernstein, MD, FCAP
https://pharmaceuticalintelligence.com/2012/12/05/what-can-we-expect-of-tumor-therapeutic-response/

A Second Look at the Transthyretin Nutrition Inflammatory Conundrum
Larry H. Bernstein, MD, FACP
https://pharmaceuticalintelligence.com/2012/12/03/a-second-look-at-the-transthyretin-nutrition-inflammatory-conundrum/

 

Further  Readings and References:

Palmer KL, van Schaik W, Willems RJL, Gilmore MS. “Enterococcal Genomics Enterococci: From Commensals to Leading Causes of Drug Resistant Infection.” 2014-.2014 Feb 8

Franz CM, Holzapfel WH, Stiles ME. “ Enterococci at the crossroads of food safety?

Int J Food Microbiol.” 1999 Mar 1; 47(1-2):1-24.

Franz CM, Huch M, Abriouel H, Holzapfel W, Gálvez A.Int J Food Microbiol. “Enterococci as probiotics and their implications in food safety.” 2011 Dec 2; 151(2):125-40. Epub 2011 Sep 8.

Kayser FH.”Safety aspects of enterococci from the medical point of view.” Int J Food Microbiol. 2003 Dec 1; 88(2-3):255-62.

Webster DA, Hackett DP (1966). “The purification and properties of cytochrome o fromVitreoscilla“. J Biol Chem 241 (14): 3308–3315

Stark BC, Dikshit KL, Pagilla KR (2011). “Recent advances in understanding the structure, function, and biotechnological usefulness of the hemoglobin from the bacterium Vitreoscilla“. Biotechnol Lett 33 (9): 1705–1714

Stark BC, Dikshit KL, Pagilla KR (2012). “The Biochemistry  of Vitreoscillahemoglobin“. Computational and Structural Biotechnology Journal 3 (4): e201210002.

Brenner K, You L, Arnold F. (2008). “Engineering microbial consortia: A new frontier in synthetic biology.” Trends in Biotechnology 26: 483–489.

Dunbar J, White S, Forney L. (1997). “Genetic diversity through the looking glass: Effect of enrichment bias.” Applied and Environmental Microbiology 63: 1326–1331.

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