1 Project Information 1 Project Title



Download 253.46 Kb.
Page3/3
Date28.05.2018
Size253.46 Kb.
#51334
1   2   3




Work Package number

4

Start month

3

Work Package Title

Biological evaluation

Partner organisation involved

IFP






















Objectives

The main aim of WP4 is to perform biological evaluation of the anti-tuberculosis activity and toxicity of the substances obtained in the WP2 and their host-guest complexes with cyclodextrins obtained in the WP3. The results on anti-tuberculosis activity and toxicity will be compared to the reference substances from the line of major anti-tuberculosis drugs and between the pure substances and their nano-encapsulated complexes.


Activities of the WP4 are divided according to the type of tests to be performed into 2 tasks:

Task 4.1 Anti-tuberculosis activity evaluation

Task 4.2 Toxicity evaluation





Description of work
Task 4.1 Anti-tuberculosis activity evaluation

Task leader: Dr. Valeriu Crudu

Study of the anti-tuberculosis activity will be performed in vitro on sensible and resistant strains of Mycobacterium tuberculosis. Minimal inhibitory concentration (MIC) and minimal bactericidal concentration (MBC) will be determined first for the pure substances, then for the encapsulated complexes. The obtained results will be compared with the reference substances and between the pure and the encapsulated substances.

The main phases of this task realization are:


  • anti-tuberculosis activity evaluation of the oxadiazole derivatives

  • anti-tuberculosis activity evaluation of the chinazolinone derivatives

  • anti-tuberculosis activity evaluation of the alkaloids

  • anti-tuberculosis activity evaluation of the nano-encapsulated oxadiazole derivatives

  • anti-tuberculosis activity evaluation of the nano-encapsulated chinazolinone derivatives

  • anti-tuberculosis activity evaluation of the nano-encapsulated alkaloids

The phases of this task will be distributed the following way:

  • by the end of Quarter 1, anti-tuberculosis activity evaluation of the oxadiazole derivatives will be performed, since it is only one month since the beginning of the work package.

  • by the end of Quarter 2, anti-tuberculosis activity evaluation of the nano-encapsulated oxadiazole derivatives and pure chinazolinone derivatives will be performed.

  • by the end of Quarter 3, anti-tuberculosis activity evaluation of the nano-encapsulated chinazolinone derivatives, pure and nano-encapsulated alkaloids will be performed.


Researchers responsible for the anti-tuberculosis activity evaluation:
Task 4.2 Toxicity evaluation

Task leader: Dr. Valeriu Crudu

Toxicity tests of the substances that will show the highest anti-tuberculosis activity will be performed on the animal models (mice). To determine the acute toxicity the lethal dose test (LD50) will be applied. For the alkaloids toxicity will be determined only for the encapsulated versions in the case of high activity determined. The toxicity of pure alkaloids is already well known.



The main phases of this task realization are:

  • toxicity evaluation of the most active oxadiazole derivatives

  • toxicity evaluation of the most active chinazolinone derivatives

  • toxicity evaluation of the most active nano-encapsulated oxadiazole derivatives

  • toxicity evaluation of the most active nano-encapsulated chinazolinone derivatives

  • toxicity evaluation of nano-encapsulated alkaloids in the case of high anti-tuberculosis activity proved

This phases will be distributed the following way:

  • by the end of Quarter 2, toxicity evaluation of the oxadiazole pure and encapsulated derivatives will be performed.

  • by the end of Quarter 3, toxicity evaluation of the chinazolinone pure and encapsulated derivatives will be performed.

  • by the end of Quarter 4, anti-tuberculosis activity evaluation of the encapsulated alkaloids will be performed


Researchers responsible for the toxicity evaluation:





Deliverables

D 4.1 Article, patent

D 4.2 Conference, symposium presentation




Milestones

M 4.1 Isolation of 3 pure substances with maximum activity

M 4.2 Determination of 2 nano-encapsulated substances with maximum activity

M 4.3 Isolation of 3 pure substances with minimum toxicity

M 4.4 Determination of 2 nano-encapsulated substances with minimum toxicity



Work Package number

5

Start month

1

Work Package Title

Market research

Partner organisation involved

ICH






















Objectives

The main aim of WP5 is to perform market research for the following application of the project results and/or obtaining of funding for continuation of the research.

The work package activities will be divided between two tasks:

Task 5.1 Market search for interested companies

Task 5.2 Market search for funding programs





Description of work
Task 5.1 Market search for interested companies

Task leader: Dr. Veaceslav Boldescu
By the end of Quarter 1, we will have developed a lists of 30 companies that might be interested in the results of our research and list of 10 events that can be visited for partnering opportunities. For the search we will use electronic databases, enterprise networks lists, lists of stakeholders of technology platforms in the field (Innovative Medicines Innitiative (IMI) Platform, Nanotechnologies and Nanoproducts Platform, Europe Enterprice Network (EEN)).

As well, we will gather and translate in 3 languages all the information about the group and its activities. This information will be used to complete the group web page and the group partner search profiles and activities presentations.

By the end of Quarter 2, we will have visited 2 events from the list of events for partnering opportunities, there we will try to meet the representatives of the companies selected in the previous quarter. We will have contacted the previously elaborated list of companies that might be interested in the results of our research concerning our possible collaboration. For the beginning, we will propose to establish the collaboration under a funding of external donors determined in the list above, unless other possibilities are proposed by the company. Moreover, we will have created and distributed to potential partners single-page presentations of the group in English, as well as group profiles on CORDIS, EEN, Innovative Medicines Initiative Platform.

By the end of Quarter 3, we will have developed and launched the group’s web-page. We will have selected 3 companies for further collaboration under different conditions: external funding, their private funding, mixed funding external/private, depending on their preferences and our agreements.


Researchers responsible for the market search for interested companies: Dr. Veaceslav Boldescu, Dr.hab. Fliur Macaev
Task 5.2 Market search for funding programs

Task leader: Dr. Veaceslav Boldescu
By the end of Quarter 1, we will have developed 15 funding organizations to which we can submit our follow-up research.

By the end of Quarter 2, we will have selected 3 funding organizations with the eligibility criteria, funding opportunities most favorable for our team. The group members will have attended at least 4 trainings, seminars, and info-days on funding opportunities, project writing, application procedures organized locally, or through webinars.

By the end of Quarter 3, we will have visited 4 more trainings, seminars, and info-days on funding opportunities, project writing, application procedures, project submission organized locally, or through webinars.

By the end of Quarter 4, with the companies selected previously, we will have created a consortium including other partners as well that will submit a project on anti-tuberculosis drugs to one of the 3 funding organizations we will determine by the end of 2nd Quarter.


Researchers responsible for the market search for interested companies: Dr. Veaceslav Boldescu, Dr. Valeriu Crudu




Deliverables

D 5.1 List of 30 companies
D 5.2 List of 15 funding organizations

D 5.3 List of 10 partnering events

D 5.4 Group profiles on CORDIS, EEN, IMI

D 5.5 Group single page and PowerPoint presentation

D 5.6 Group and project web page




Milestones

M 5.1 Increased visibility of the group measured by the number and popularity of the profiles and web-page created

M 5.2 Creation of consortium for the follow-on project submission


Table 3: List of milestones



Milestone n°

Milestone name

WPs n°

Responsible researcher

Delivery month

Comments

M 1.1

Successful realization of the project work packages

1

Fliur Macaev

18

Reaching all deliverables

M 1.2

Effective conflicts and issues management

1

Fliur Macaev

3, 6, 9, 12,18

Reduced number of conflicts. Time and resource efficient resolution of issues

M 1.3

Efficient risks management

1

Valeriu Crudu

3, 6, 9, 12, 18

Time and resource efficient implementation of the project goals

M 1.4

Efficient quality management

1

Valeriu Crudu

3, 6, 9, 12, 18

Time and resource efficient implementation of the project goals

M 2.1

10 oxadiazole and chinazolinone derivatives of ready for nano-encapsulation and biological evaluation

2


Fliur Macaev

3, 6, 9

At least 3 substances per quarter ready for the nano-encapsulation or biological evaluation

M 2.2

Brevicarine and brevicoline ready for nano-encapsulation and biological evaluation

2


Fliur Macaev

3, 6, 9

Alkaloids ready for the nano-encapsulation or biological evaluation

M 3.1

Nano-encapsulated substances ready for biological evaluation

3

Veaceslav Boldescu

6, 9, 12

At least 2 nano-encapsulated substances per quarter ready for biological evaluation

M 3.2

Microparticles ready for biological evaluation

3

Veaceslav Boldescu

12, 15

At least 2 nano-encapsulated substances per quarter ready for biological evaluation

M 4.1

Isolation of 3 pure substances with maximum activity

4

Valeriu Crudu

12

At least 3 pure substances with high anti-tuberculosis activity selected

M 4.2

Determination of 2 nano-encapsulated substances with maximum activity

4

Valeriu Crudu

12

At least 2 nano-encapsulated substances with

M 4.3

Isolation of 3 pure substances with minimum toxicity

4

Valeriu Crudu

18

At least 3 pure substances with low toxicity with high anti-tuberculosis activity selected

M 4.4

Determination of 2 nano-encapsulated substances with minimum toxicity

4

Valeriu Crudu

18

At least 2 nano-encapsulated substances with low toxicity selected

M 5.1

Visibility of the group

5

Veaceslav Boldescu

6, 12

Creation of group profiles and web-page of the project, 1 project brochure, 1 monography published

M 5.1

Consortium for the follow-on project submission

5

Veaceslav Boldescu

12

At least 1 consortium created for the submission of the project


Table 4: List of deliverables



Deliverable n°

Deliverable name

WPs n°

Responsible researcher

D 1.1

Trimestrial periodic reports and final project report

1

Fliur Macaev

D 1.2

Project kick-off meeting

1

Veaceslav Boldescu

D 1.3

Procedures for the conflicts management

1

Valeriu Crudu

D 2.1

Article, patent

2

Fliur Macaev

D 2.2

Conference presentation


2

Serghei Pogrebnoi

D 3.1

Article, patent


3

Veaceslav Boldescu

D 3.2

Conference presentation


3

Veaceslav Boldescu

D 4.1

Article, patent


4

Valeriu Crudu

D 4.2

Conference, symposium presentation

4

Valeriu Crudu

D 5.1

List of 30 companies

5

Veaceslav Boldescu

D 5.2

List of 15 funding organizations

5

Veaceslav Boldescu

D 5.3

List of 10 partnering events

5

Veaceslav Boldescu

D 5.4

Group profiles on CORDIS, EEN, IMI

5

Veaceslav Boldescu

D 5.5

Group single page and PowerPoint presentation

5

Veaceslav Boldescu

D 5.6

Group and project web page

5

Veaceslav Boldescu

2.8 Technical Methodology
Alkaloids extraction, synthesis of their derivatives

Brevicarine group alkaloids will be extracted from Carex brevicollis DC according to the method described in [Macaev F. et al. Moldovan patent №4009 from 15.07.2008, Macaev F. et al.Moldovan patent application №2011 0013 from 02.04.2011]

Synthesis of the heterocyclic compounds will be realized based on the available alkaloids from the β-carbolin derivatives group and substituted hydrazides of the an anthanilic, 3-amine as well as 4-amine benzoic acids. The main step of these syntheses is cyclization of linear derivatives will be realized by comprising both alternative approaches (TMTD/ DMF or CS2/KOH/EtOH). Thus, due to the presence of two highly reactive functional groups in the 5-aryl-2-thio-1,3,4-oxadiazoles molecules, reaction of alkylation with –SH group participation and bonding of the nucleophil reagents, including brevicarine and brevicolin alkaloids, a wide number of substances will be obtained with different pharmacophores. On the other hand, as a consequence of antranilic acid hidrazide transformation into 3-amino-2-chinazolin-4-(3H)-one, a new group of compounds with a wide range of active centers (-SH, -CO, NH, -NH2, -N=) will be obtained. These will serve as starting point for the synthesis of a large number of traptamine derivatives. According to this method, reactions of alkylation, cuaternization, recyclisation, and condensation will be applied.
Nano-encapsulation of the substance into cyclodextrins

Cyclodextrins form host-guest inclusion nanocomplexes with the substances in water solution if the latest possess smaller polarity than water. There are 4 main routes to obtain nanocomplexes and related systems for nanocomplexes formation prove.


Preparation of physical mixtures

Equimolar physical mixtures (p.m.) of the substances and cyclodextrins are prepared by homogeneous blending in the agate mortar of exactly weighed amounts.


Preparation of kneaded products

Kneaded products are prepared from physical mixtures by adding small volumes of bi-distilled water during the 60 minutes of kneading in the agate mortar. After the last portion of water had been added, the obtained homogeneous slurry is kneaded to dry.


Preparation of coevaporated products

Equimolar amounts of the substances and the cyclodextrins are dissolved in bi-distilled water. The resulting mixture is stirred at 35 °C for 2 h. After the equilibration of 24 hours the clear solutions are coevaporated at 40 °C.


Preparation of lyophilized products

Equimolar amounts of a substance and a cyclodextrin are dissolved in water and mixed for 2 hours at 35 °C. After the equilibration period of 24 hours the clear solutions are frozen and subsequently lyophilized in a freeze-dryer of Alpha 1-2 LD type.


Method for microparticles obtaining
Microparticulate system for anti-tuberculosis encapsulated substances transport will be obtained on the basis of the controlled jellification induced by the cations of calcium. For this, to the solution of the sodium alginate, which contains cyclodextrins and anti-tuberculosis substances encapsulated in cyclodextrins, solution of the calcium chloride. Afterwards, solution of chitosan will be added and the mixture is stirred for 30 min. Then, it is left for night at the room temperature. Microparticles loaded with the encapsulated substances and the cyclodextrins are recuperated through centrifugation and washed with bi-distilled water.

The main physicochemical methods of their analysis that will be applied to study the substances and the complexes properties are:
FT-IR spectrometry

FT_IR spectra are very rich in information. The complex formation can be detected by band shifts or change in band appearance. FT-IR spectra will obtained using the KBr pellet technique. They will collected in the 4000 to 350 cm-1 spectral range with the resolution of 2 cm-1.


Differential Scanning Calorimetry (DSC)

DSC analysis will be performed with a Schimadzu DSC-60. Weighed samples (2.0 – 2.2 mg) will be scanned in aluminium pans at a scan rate of 10 °C min-1 over a temperature range of 30 – 300 °C.


1H RMN and 13C RMN analysis permit evaluation of complex formation, determination of components ratio in the complex, determination of the complex stability. The following methods will be used: HETCOR (HETeronuclear 13C-1H CORrelation) and HMQC (Heteronuclear Multiple Quantum Coherence).
X-Ray diffractometry. Powder XRD patterns of the susbtances and the systems will be analyzed at room temperature with an automated D8 Bruker powder diffractometer. The patterns will be recorded in the 2θ angle range between 3 - 50° and the process parameters will be set at: scan step size of 0.1 (2θ); scan step time of 5 sec. The XRD traces of all raw materials and the obtained systems will be compared with regard to peak position, relative intensity, peak shifting, and the presence, and/or absence, of peaks in the certain regions of 2θ values.
Methods for biological evaluation of the anti-tuberculosis activity and toxicity:

Study of the anti-tuberculosis activity will be performed in vitro on sensible and resistant strains of Mycobacterium tuberculosis. Minimal inhibitory concentration (MIC) and minimal bactericidal concentration (MBC) will be determined first for the pure substances, then for the encapsulated complexes.

Toxicity tests of the substances that will show the highest anti-tuberculosis activity will be performed on the animal models (mice). To determine the acute toxicity the lethal dose test (LD50) will be applied. Subchronic toxicity tests will be employed to determine toxicity likely to arise from repeated exposures of several weeks to several months. Detailed clinical observations and pathology examinations will be conducted. Basic parameters of these tests are: species – mice, age – young adults, number – 10 of each sex, dosage – three dose levels plus a control group, include the toxic dose level plus NOAEL, observation period – 90 days.
2.9 Sustainability Planning

Which “Market” will we study?
After the end of the project, the scientific activities of the team can be continued under two main directions: financial support from donors interested in the research in field of new types of tuberculosis treatment and in partnership with the companies already working in the field.

Starting with the first direction, all the main available programs supporting the study of tuberculosis treatment will be taken in consideration for submitting the follow-up projects. These main programs and donors include: FP7/Horizon2020 (specific programme Cooperation, theme Health); US NIAID, NIH; Bill and Melinda Gates Foundation (Global Health Program, Priority Tuberculosis); the Global Fund to Fight AIDS, Tuberculosis, and Malaria; United States Agency for International Development (USAID); Institute Pasteur; German Federal Ministry of Education and Research (BMBF); World Health Organization (WHO). Besides the main governmental and non-governmental donors, there is a group of big pharmaceutical companies funding the research in the field of new drugs and formulations for anti-tuberculosis treatment: Otsuka Pharmaceutical, AstraZeneca, Novartis, Sequella, Pfizer, Sandoz.



Donors contributions evolution: These donors reported investing an additional $13.4 million in TB R&D in 2010 to TAG, raising the global TB R&D total to $630.4 million—a 2% increase from 2009’s $619.2 million investment and a 76% increase from the base year of 2005. The revised data reported to TAG resulted in a 9% increase in diagnostics funding, from $44.6 million to $48.4 million; a 5% increase in operational research, from $58.1 million to $60.9 million; a 2% increase in basic science, from $126.7 million to $129 million; and a 2% increase in drug development, from $226.8 million to $230.5 million. Vaccines and infrastructure/unspecified research grew by less than 1%.

Main donors are concentrated in the developed countries as EU, USA, and Japan. For the first phase, we will concentrate on the European donors, being more accessible, especially after Moldova's association to the FP7, starting the January 2012. Concerning these donors, we will have to find more information about the new requirements of the future programmes under Health theme FP7/Horizon2020, as well we experience lack of information of other national European donors funding the collaborative research with other countries in the field of tuberculosis: EU member states and non-member countries (Norway, Switzerland), as well as some major EU-close partners, as Turkey, Russia, and Israel.

In the second phase, we will try to reach out the USA and Global donors, first finding their names. We will have to learn about their conditions of participation, their willingness to fund our research, their openness to receiving proposals from foreign scientists.

For the companies working in the field, main stakeholders in the field of treatment of tuberculosis are also situated in the developed countries, the same as main donors. Besides, the big companies listed above, there are many SME working in the field that could be interested in future partnership with them.

Their main niche in the market includes pulmonary drug delivery for the treatment of different lung infections, nano- and microparticulate drug delivery,

We need to gather the following information about these companies: names of companies, main contacts, level of their interest in our research results, their willingness to pay for your technology, license our innovation, or contract us to solve their problems, their openness to working with foreign scientists.
What is our specific market research objective?
The market research objectives that we will address during the lifetime of our project are divided in 2 main directions according to the above mentioned information: gathering information about main donors that can fund our research, and partners, companies that are willing to cooperate with us.

Concerning the first direction the specific objectives will be:



  • search for EU and non-EU European national programmes funding collaborative research on tuberculosis;

  • search for USA and global programmes funding collaborative research on tuberculosis;

  • raising team awareness of FP7/Horizon 2020 and other programmes future actions on tuberculosis through participation in the info-days and seminars organized by local NCPs and the European Commission;

  • enhancing knowledge and understanding of FP7/Horizon2020 and other funding programmes conditions of participation, eligibility, application procedures, and project writing tips through participation in trainings, seminars, and info-days organized by local NCPs and the European Commission;

  • working with potential partners on elaboration and submission of new projects.

Concerning the second direction the specific objectives will be:

  • search for EU and non-EU companies interested in new drug based treatments of tuberculosis;

  • determining the companies with interest in our research results and most advantageous conditions of collaboration;

Concerning both directions the specific objectives will be:

  • meeting new potential partners for FP7/Horizon2020 and other programmes tuberculosis projects through participation in the thematic conferences, symposia, brokerage and partnering events;

  • improving our visibility for potential partners and programme committees through creating and maintaining the group webpage in 3 languages: English, Romanian, and Russian; creating group profile on Europe Enterprise Network, on CORDIS; creating single-page presentation for national partners catalogues that are distributed internationally.


What are we going to do?
By the end of Quarter 1, we will have developed a list of 30 companies that might be interested in the results of our research and a list of 15 funding organizations to which we can submit our follow-up research. The lists will contain subgroups divided by countries of interest. First sub-group will include EU and other European countries, second list USA, and third global companies, or funding organizations. For the search we will use electronic databases, enterprise networks lists, lists of stakeholders of technology platforms in the field (Innovative Medicines Platform, Nanotechnologies and Nanoproducts Platform). Also, we will have developed a list of 10 events that can be visited for partnering opportunities.

As well, we will gather and translate in 3 languages all the information about the group and its activities. This information will be used to complete the group web page and the group partner search profiles and activities presentations.

By the end of Quarter 2, we will have selected 3 funding organizations with the eligibility criteria, funding opportunities most favorable for our team. As well, we will have visited 2 events from the list of events for partnering opportunities, there we will try to meet the representatives of the companies selected in the previous quarter. The group members will have attended at least 4 trainings, seminars, and info-days on funding opportunities, project writing, application procedures organized locally, or through webinars.

We will have contacted the previously elaborated list of companies that might be interested in the results of our research concerning our possible collaboration. For the beginning, we will propose to establish the collaboration under a funding of external donors determined in the list above, unless other possibilities are proposed by the company.

Moreover, we will have created and distributed to potential partners single-page presentations of the groups in English, as well as group profiles on CORDIS, EEN, Innovative Medicines Platform.

By the end of Quarter 3, we will have developed and launched the group’s web-page. We will have selected 3 companies for further collaboration under different conditions: external funding, their private funding, mixed funding external/private, depending on their preferences and our agreements. We will have visited 4 more trainings, seminars, and info-days on funding opportunities, project writing, application procedures, project submission organized locally, or through webinars.

By the end of Quarter 4, with the companies selected previously, we will have created a consortium including other partners as well that will submit a project on anti-tuberculosis drugs to one of the 3 funding organizations we will determine by the end of 2nd Quarter.

What will result?
The main result of our marketing search is going to be an agreement with a company/group of companies to continue development of the new anti-tuberculosis drugs based on the entities developed under this project.

In the case if our assumptions proved correct, when the project results are positive and we manage to find a company interested in their follow-on development and marketing.

In the case if we do not get positive results and no company will be interested to continue research with other entities, we will come with a proposal to submit a common project to one of the funding programs we will have found.

Thus, by the end of the Quarter 4 we will have a consortium created either for collaborative follow-on development of the anti-tuberculosis drug, or for new research under external funding.


3. Work schedule

Definite stages of the project implementation are represented in matrix diagram in Table 1.

Table 2 graphically displays timing and duration of the stages involved, as well as interdependence of the stages.
4. Personnel commitments

Table 3 displays personnel commitments for the project implementation.


5. Goods, Services, and Other Direct Costs

Tables 4 , 5, and 6 display the equipment, materials, services, and other direct costs to be purchased for the project.


6. Travels

Table 7 displays the costs necessary for travel outside and within country of residence.


7. Financial summary

Tables 8 and 9 display aggregate financial information and define the first advanced payment.


8. List of personnel

Table 10 contains detailed information about each individual person involved.


9 Allocation of the project budget among participating institutions (for more than one participating institution only)

Supplementary tables S8 and S9 display estimated expenditures by each participating institution separately.

Download 253.46 Kb.

Share with your friends:
1   2   3




The database is protected by copyright ©ininet.org 2024
send message

    Main page