Chemistry - Science topic

That ok, I undestand that may be could relocated myself to another country, In fact I would like to know another countrys. If someone need Laboratory technicien, B1 english, microbiology, biotechnology, chemystry I'm in!.

Based on your description, it’s highly unlikely that maleic acid is the source of the radiation signal you're detecting at the waste bottle, as maleic acid does not possess any radioactive properties nor does it absorb or emit radiation. In your chemiluminescent southern blot trial, where you're replacing P32 with a non-radioactive detection method, such as DIG-based chemiluminescence, the signal you're seeing is most likely due to residual chemiluminescent substrate (like luminol or its derivatives) and HRP enzyme activity in the waste. These components can continue to emit light for some time after disposal, and sensitive detectors or radiation monitors, especially if not specifically designed to distinguish between ionizing radiation and low-level light emission, can falsely interpret this as radiation. If you're using a Geiger counter calibrated for beta emissions and it’s giving a signal at the bottle tip, double-check that no surfaces or gloves were contaminated with previous P32 work, though you mentioned you're sure there's no such contamination. To confirm the signal's source, try isolating the chemiluminescent waste from your detector or switching to a detector that specifically distinguishes radiation from light emission. In short, maleic acid is not the issue, t's more likely a false signal caused by lingering chemiluminescent activity or detector sensitivity.

عذرا. ليس لدي معلومات عن ذلك

There are several ways to simulate and model electrochemical systems depending on your needs and level of expertise:

I highly recommend by Compton et al. (2018). It provides a solid foundation on simulating electrochemical systems.

Lastly, I have been creating a blog dedicated to model different electrochemical systems, it may concern you:

you can deploy Copilot

### **Deep Treatment of Resin Interactions with Dicarboxylic Acids**

#### **1. Polyamidoamine Resins and Dicarboxylic Acids**

Polyamidoamine resins are widely used as **curing agents** for epoxy resins, particularly in coatings and adhesives. Their interaction with **aromatic mono- and dicarboxylic acids**, such as **terephthalic acid**, is influenced by their **amine-functional groups**, which can form **hydrogen bonds** and **electrostatic interactions** with carboxyl groups.

- **Composition:** These resins typically contain **fatty monocarboxylic acids, aromatic mono- and dicarboxylic acids, and polyethyleneamines**.

- **Binding Mechanism:** The **ratio of monocarboxylic acids to aromatic dicarboxylic acids** affects adsorption efficiency, with **higher dicarboxylic acid content** improving selective binding.

- **Applications:** Used in **epoxy coatings**, **adhesives**, and **composite materials**, where their ability to interact with dicarboxylic acids enhances **crosslinking** and **mechanical strength**.

#### **2. Dual-Curing Epoxy Resins and Dicarboxylic Acids**

Dual-curing epoxy resins undergo **two-stage curing**, allowing for **enhanced flexibility and durability**. Their interaction with **dicarboxylic acids** is particularly useful in **high-performance coatings** and **structural adhesives**.

- **Curing Process:** These resins use **polyamidoamines** as curing agents, which react with **epoxy groups** and **dicarboxylic acids** to form a **highly crosslinked network**.

- **Impact on Material Properties:** The presence of **dicarboxylic acids** improves **thermal stability**, **chemical resistance**, and **mechanical strength**.

- **Industrial Use:** Commonly applied in **protective coatings**, **electronic encapsulation**, and **structural composites**.

#### **3. Polyester Resins Derived from Terephthalic Acid**

Polyester resins synthesized from **terephthalic acid** exhibit **selective binding properties**, making them useful in **adsorptive separation** and **polymer synthesis**.

- **Chemical Structure:** These resins contain **ester linkages**, which interact with **dicarboxylic acids** through **hydrogen bonding** and **dipole interactions**.

- **Selective Adsorption:** Their ability to **preferentially adsorb dicarboxylic acids** makes them valuable in **chemical purification** and **polymer modification**.

- **Applications:** Used in **fiber-reinforced composites**, **adhesives**, and **membrane technologies**.

Here are some **specific resins** used for **dicarboxylic acid interactions** along with their manufacturers:

### **1. Polyamidoamine Resins**

- **Manufacturer:** **Huntsman Corporation**

- **Product:** **Jeffamine® Polyetheramines**

- **Application:** Used in **epoxy curing**, **adhesives**, and **coatings** with strong interactions with **dicarboxylic acids**.

### **2. Dual-Curing Epoxy Resins**

- **Manufacturer:** **Dow Chemical Company**

- **Product:** **D.E.R.™ Epoxy Resins**

- **Application:** Applied in **high-performance coatings**, **structural adhesives**, and **composites**, reacting effectively with **dicarboxylic acids**.

### **3. Polyester Resins Derived from Terephthalic Acid**

- **Manufacturer:** **BASF**

- **Product:** **Ultradur® PBT**

- **Application:** Used in **fiber-reinforced composites**, **membranes**, and **adsorptive separation**.

### **4. Epoxidized Soybean Oil (ESO) Resins**

- **Manufacturer:** **Arkema**

- **Product:** **Vikoflex® Epoxidized Oils**

- **Application:** Biobased resin interacting with **dicarboxylic acids** for **sustainable polymer synthesis**.

Good luck

Stoichiometry otherwise be called as Chemical Process principles, leads to the quantification of reactants and products. Stoichiometry not only deals with Material balance, but also with Energy balance. In Chemical industry it is generally called as H&MB.

Stoichiometry was first discovered and the term coined by Jeremias Benjamin Richter, a German chemist, in 1792. He was the first to quantify the relationships between reactants and products in chemical reactions, laying the groundwork for the principles of stoichiometry used today.

Stoichiometry is of two types.

1. Material balance involving no chemical reactions. Simple example is to convert 98% concentrated sulphuric acid to 30% concentrated acid how much water should be added.

2. Material balance involving chemical reactions uses Reactants and Products balanced equation + Energy Absorbed (Endothermic) or Energy released(Exothermic) A +B = C + D (Both sides are balanced)

3. Stoichiometry is the basis of design for reactors, furnaces and other such unit operations.

Significance.

1. By understanding stoichiometric ratios, chemists can optimize reaction conditions to maximize yield and minimize waste.

2. Stoichiometry enables scientists to calculate the amount of product that will be formed from a given amount of reactants.

3. Stoichiometry is essential for understanding the chemical reactions that occur in the environment

4. In medicine, stoichiometry is used to calculate the correct dosages of drugs, ensuring effective treatment while minimizing side effects.

Dear RG Reader,

Soon there will be recruitment in Warsaw PhD School in Natural and BioMedical Sciences. Everyone who would like to do PhD Studies in fields of chemistry, physics and numerous biosciences may find detailed information on W-4-PhD School web page:

Dear RG Reader,

Soon there will be recruitment in Warsaw PhD School in Natural and BioMedical Sciences. Everyone who would like to do PhD Studies in fields of chemistry, physics and numerous biosciences may find detailed information on W-4-PhD School web page:

Usually the chemistry students learn the organic chemistry at primary level with homologous series. But actually there are more than 13 million compounds are available. So every one those who have interest in organic chemistry only learn otherwise very difficult to follow.

Aquí en alemania, las universidades se dividen entre los métodos de apoyo. El KIT hizó la especialización para la discapacidad visual. Se podría contactar el SZS que administra el apoyo:

Water self-purification describes natural processes that reduce pollutants in water bodies through physical, chemical, and biological mechanisms. Ostroumov's work contributes to understanding this complex system, emphasizing the role of ecosystems in maintaining water quality.

In Shimadzu LabSolutions Version 5.71 SP1, the terms "Processing Method" and "Batch Processing" may not appear explicitly in the menu, but the equivalent functions exist under Postrun Analysis and Data Analysis. Here’s where to find them:

1. Removing Unwanted Peaks in Bulk

Since LabSolutions doesn’t have a direct "Batch Processing" function, you can apply "Data Analysis Method" to multiple files:

1. Open LabSolutions Postrun

Go to [Postrun] in the software.

2. Set Up a Data Processing Method to Remove Unwanted Peaks

Open one chromatogram.

Click "PDA Data Processing" or "Quantitative Processing" (depending on your setup).

Go to "Peak Integration" and adjust parameters:

Set a retention time filter to only integrate peaks at 4.5, 6.5, and 11 min.

Save this as a New Processing Method.

3. Apply the Method to All Files at Once

In Postrun, go to File → Batch Processing Settings (or "Batch Recalculation" in some versions).

Select all 40 files and apply your saved processing method.

This will automatically remove unwanted peaks across all files.

---

2. Bulk Export of Peak Table Data

LabSolutions does not allow exporting peak tables in bulk directly, but you can automate it:

1. Export Peak Table in ASCII Format (For Each File):

Open [Postrun] → [Peak Table].

Click "Export" → Choose ASCII (.txt) or CSV (.csv) format.

This needs to be done per file, but you can automate it with a script in Excel.

2. Automate Bulk Data Import into Excel:

Save all ASCII/CSV files in one folder.

In Excel, use Power Query (Data → Get Data → From Folder) to import all CSV files into one sheet for further processing.

---

3. Bulk Export of Chromatograms

1. Export Multiple Chromatograms as Images/PDF at Once:

In Postrun Analysis, go to File → Export Chromatograms.

Select multiple files.

Choose output format (PDF, PNG, JPEG).

If this menu is not available, another workaround is to use "Batch Printing":

Go to Postrun → Print → Batch Print and save as PDFs instead of printing.

One of the best AI tools for boosting scientific research in chemistry is ChemAI. This platform utilizes machine learning algorithms to predict molecular properties, optimize chemical reactions, and assist in material discovery. Another notable tool is IBM Watson for Chemistry, which helps researchers analyze vast datasets and extract meaningful insights. Additionally, tools like DeepChem provide open-source resources for deep learning applications in chemistry. These AI tools enhance efficiency, accelerate research timelines, and facilitate innovative discoveries in the field.

The concept of the Biosphere is very important when developing in-situ biosystems, and even for ex-situ systems. A lot of my career has been in bioremediation and I've extended that into laboratory research on other biotransformations. There is a great deal more to learn.

Foe my research as a professor at a small college, I was asking the same question, but I assumed the same answer as Abdelhak Maghchiche. If I look at my files I probably have a reference for it.

There are compelling arguments supporting each approach; however, the final decision hinges on the objectives of the educational framework. Should the primary goal be to establish a comprehensive foundation and streamline evaluation, it would be logical to consolidate the grades under 'Physical Sciences.' Conversely, if the intention is to deliver precise, subject-specific evaluations and adhere to international benchmarks, distinguishing the grades for Physics and Chemistry would prove more advantageous.

A middle-ground strategy, such as providing detailed academic records or allowing for optional separation of grades, may serve as an effective compromise to accommodate both viewpoints.

I think you should take each compound separately and measure it, then mix them together to notice the reaction time. You can also reduce or increase the sample flow time to get a good result.

Aluminum oxide is predominantly an insulator. Its electrical conductivity is quite low, primarily because it is an ionic compound with a wide band gap of about 8.8 eV. At ambient temperatures, its conductivity is negligible. However, when subjected to high temperatures, the ionic mobility increases slightly, which can enhance its conductivity. This effect is typically due to the increased vibration of lattice ions that can slightly be displaced from their positions, creating vacancies and allowing for minimal charge transport.

TiO₂ is a semiconductor with a band gap of approximately 3.2 eV for its rutile phase and 3.0 eV for the anatase phase, making it inactive for visible light without modification. Its conductivity increases with temperature due to increased carrier generation; thermal energy excites more electrons from the valence to the conduction band. Additionally, defects within the TiO₂ structure, such as oxygen vacancies, can act as charge carriers, enhancing conductivity as the temperature rises.

MoS₂ is a layered semiconductor with a band gap of about 1.2 eV to 1.8 eV depending on the number of layers (bulk to monolayer). It exhibits a transition from indirect to direct band gap as it moves to monolayer thickness. MoS₂’s conductivity is also temperature-dependent, where increasing temperatures increase intrinsic carrier concentration. At elevated temperatures, phonon scattering increases, which generally increases the mobility of charge carriers.

Summary For all three materials, the conductivity at different temperatures can be explained through their intrinsic electronic structure and how temperature influences phenomena such as carrier mobility, carrier concentration, and defect dynamics. These materials respond differently to temperature changes based on their crystal and electronic structures. As temperature increases:

- Al₂O₃ shows a minimal increase in conductivity due to ionic displacement.

- TiO₂ experiences enhanced conductivity primarily through increased electron-hole pair generation and defect-mediated transport.

- MoS₂ sees an enhancement in conductivity, particularly due to increased intrinsic carrier concentration and changes in electron mobility.

Thanks for the contribution Bello Ibraheem Qozeem Matej Babjak

(2)

I wish your conference success, prosperity and success in the service of the scientific research process.

You could participate in research on the physiology of sports training.

I highly appreciate you

Assistant Professor Dr. Walid Ahmed Awad

Aynaz Biuky Mam! Currently, I'm working on it. Did you get a solution to develop the process? If so, could you kindly share the process or any references with me?

Might be its due to solubility, check the solubility of product.

Hello!

Look:

Isoniazid Containing Metal Based Drugs as Potential Antimicrobial Agent: A Short Review Md. Saddam Hossain1, Md. Abdul Mannan1, F. K. Camellia1, A. K. B. Zaman2, C. M. Zakaria1, Md. Kudrat-E-Zahan1, * 1Inorganic Research Laboratory, Department of Chemistry, University of Rajshahi, Rajshahi, Bangladesh 2Department of Dermatology, Barind Medical College and Hospital, Rajshahi, Bangladesh Email address: kudrat.chem@ru.ac.bd (Md. Kudrat-E-Zahan) *Corresponding author

See also:

Isoniazid: A Review of Characteristics, Properties and Analytical Methods Guilherme Felipe dos Santos Fernandes, Hérida Regina Nunes Salgado & Jean Leandro dos Santos To cite this article: Guilherme Felipe dos Santos Fernandes, Hérida Regina Nunes Salgado & Jean Leandro dos Santos (2017) Isoniazid: A Review of Characteristics, Properties and Analytical Methods, Critical Reviews in Analytical Chemistry, 47:4, 298-308, DOI: 10.1080/10408347.2017.1281098 To link to this article: https://doi.org/10.1080/10408347.2017.1281098

Best regards!

Ethylene carbonate is solid at room temperature, propylene carbonate is also very polar and certainly not volatile.

Hello, what is proteasome, proteasome treatment for myeloma, side effects, life expectancy, age at which it appears, now more recently multiple myeloma also appears at the age of 33, there is no longer a rule when and why it appears .Thank you!

Gold and platinum (and other metals such as Pd) salts are easily reduced to the (colloidal) metal. Absorb solutions of such metals onto a porous plastic and they'll decompose within a day.

BTW, HAuCl₄ is not found as such - it's a hygroscopic water-containing structure usually formulated as HAuCl₄.xH₂O.

Similarly, in aqueous solution we have PtCl₄·5(H₂O) - the pentahydrate.

Dmitriy Berillo thank you for sharing the links

Yes, you can join a pharmaceutical company for an internship in Research Center or quality control of reputed pharma organization in you near by industry or our of your country if you get chance.

Feel free to ask if query any

Ph 6-7 will not affect LiOH. That is by definition.

Its sodium hydroxide saturated into ethanol, takes a few days to dissolve: ethanolic sodium hydroxide. ESH

drop your sample into a 500ml beaker of the ESH and heat to 80c stir plate for three hours. filter of the ESH.

disolve in ether and cold stir for one hour.

ready for ICPMS.

Dear college,

In the determination of platinum group of elements in Pt catalyst samples can be used different decomposition procedures.

Please, pay attention, that the analytical evaluation function is assumed to be straight line through the origin. There are is not spectral interferences. But the correct calibration from the point of view of multiplicative interferences means a precise matching of the acid in both the reference and sample solutions.

I recommend the decomposition procedure in the determination of platinum group of elements in Pt catalyst samples because the platinum group of elements must be dissolved in aqua regia, but in the end of the dissolution procedure, the final sample solution contains Pt, Pd and Rh in hydrochloric acid only in an appropriate acidity, because the undissolved material (γ-alumina+silicates) has settled down. Under these conditions you must prepared the calibration solutions for Pt, Pd and Rh with hydrochloric acid in an appropriate acidity.

With kind regards, N. Daskalova

You can predict reactions between inorganic compounds using tools like ChemReaX, AiZynthFinder, and Ansys Chemkin-Pro, which simulate and model chemical reactions. These software options allow you to explore potential reaction pathways based on your specific compounds.

Yes, you can use mercury (II) nitrate instead of mercuric chloride for bioremediation experiments, but it's essential to conduct preliminary studies to assess bacterial responses and effectiveness, as the behavior of different mercury compounds can vary significantly.

I have the same problem with older paper, and I foun this:

From the D-R model, u can consider physical adsorption or chemisorption; when E<8 kj/mol is physisorption, 8 kj/mol<E<16 kj/mol is chemisorption. and also you can find these references will help you

1-Influence of Synthesis and Functionalization Procedures of Fe3O4 NPs by Mono- and Diamino Silane Coupling Agents on the Adsorption Efficiency of Anionic Dyes

2-Cutting-edge in the green synthesis of MIL-101 (Cr) MOF based on organic and inorganic waste recycling with extraordinary removal for anionic dye

Preparing a 4M HCl solution in dioxane is not recommended in a standard chemistry lab due to significant safety risks. Both HCl and dioxane are hazardous, and their mixture can form explosive peroxides. Safer alternatives should be considered, such as using commercially available solutions or aqueous HCl, and the procedure should only be attempted in specialized facilities with proper safety equipment and trained personnel.

Silyl Protecting groups are fine to temporarily protect primary amines.

Chemistry is essential for understanding and controlling chemical reactions, crucial in research and problem-solving across various fields. Even alternative methods often rely on chemical principles for effectiveness.

I think, Langmuir adsorption model can describe both physical and chemical adsorption.

The exact meaning of adsorption sites can differ in this cases (for chemisorption, it can be physical number of atoms/molecules of specific chemical species, whereas for physisoprtion the number of sites can just reflect the maximal number of adsorbate atoms/molecules that can "fill" the surface due to their finite lateral "size").

The binding energy is also substantially different that may give a trivial asymptotic limit in the model for chemical or physical adsorption.

Let's make some estimations. As it is often mentioned, the binding energy for physisorption is usually 10⁻²–10⁻¹ eV, whereas it is usually 10⁻¹–10⁰ eV for chemisorption. In the Langmuir adsorption model, the fractional occupancy θ depends on the temperature T, chemical potential μ and binding energy ε as

θ = [1 + exp(−(μ+ε)/kT)]⁻¹,

and 1/kT ≃ 40 eV⁻¹ for T ≃ 300 K, μ/kT ~ –16 (estimation for an ideal gas at 1 atm pressure). So, the difference in the value of ε in 1–2 decimal orders can correspond even to opposite asymptotic limits in the fractional occupancy vs the bulk concentration dependence θ(n) — a constant 'high concentration' limit θ ≃ 1 of for a high binding energy and a linear 'low concentration' asymptotic limit θ ∝ n for a low binding energy.

For the estimations I presented, only moderate binding energies ε ~ 10⁻¹ eV per site can give the fractional occupancy values somewhere between the asymptotic limits of θ(n). This case may correspond to quite a weak chemical bond or a strong physical attraction.

Pablo Mtz Teck-Ghee Lee Thank you sir for your valuable efforts.

Thermodynamics.

Lol, yeah I get you meant specifics. I would be curious to see if DFT could tease out what's going on.

Reference for the chemistry?

If spectral subtraction may introduce artifacts in your ATR-FTIR analysis, consider using advanced deconvolution techniques to resolve overlapping peaks without removing the water peak. Additionally, employing baseline correction, temperature control, or alternative solvents can further enhance the clarity of your spectra.

It is not easy to define the controls of your reaction. Don't think you can use a simple control or two to define your experiments. Breifly, you should consider the controls of mass, volume, particle size distribution (PSD), surface property (not all inclusive) of catalyst and reactant, as well as their ratios to define your reactions.

Syringe wash is not the only approach to clean Your system. If You inject "dirty" samples the whole injector (including tubing) might get dirty. A solvent injection between the samples should will help in most cases....... If there are ghost peaks it might help to prolong the GC program.

Online learnings provide with many opportunities and challenges. I would say adaptation is the key.

Si lo es, definitivamente, porque el gran valor de la CIENCIA RACIONAL, a demostrado y lo sigue haciendo hoy,su inconmensurable valor social y humano al solucionar infinidad de padecimientos y grandes sufrimientos humanos. Además del la mayor duración y esperanza de vida actual es disfrutada y dá esperanzas de ser prolongada.

Apparently, the inclusion of Remdesivir in mesoporous nanoparticles, as such or at the stage of their synthesis. is not good idea, due to the instability of R and, possibly, its low bioavailability. Microencapsulation by complex coacervation, with possible involving CD, may be more frutful approach. Good luck!

Thank you so much Professor Mirgorod. And thanks for introduce rutine to me.

Jürgen Weippert Partly. I think some teachers are governed by the voices above them like principals or someone more powerful like the stakeholders who refused to spend money in buying lab equipments, hence teachers themselves has no say at the end of the day....

Charcoal filtration, perhaps.

One of the most important parameters in any mechanochemical reaction (ball milling) is the ball to powder ration (BPR). What I personally do and I find to give consistent results is keeping the powder volume constant (which means if I have to change the ration of 2 or 3 components I readjust it in order to keep the same BPR).

In case the amount of your catalyst is negligible compared to the total volume (mass) of the powder you can ignore it.

That's a great question and definitely a valid concern of protecting IP!

Here's how data is handled:

- The manuscript is sent to our backend and deleted from our database within 72 hours of generating your report.

- In creating the review the only external service used is the OpenAI API, and they've explicitly stated "data sent to the OpenAI API will not be used to train or improve OpenAI models" [reference here](https://platform.openai.com/docs/models/how-we-use-your-data#:~:text=As%20of%20March%201%2C%202023%2C%20data%20sent%20to%20the%20OpenAI%20API%20will%20not%20be%20used%20to%20train%20or%20improve%20OpenAI%20models)

It won't save the data longer than it needs to and will never be used to train a model.

Ryan, you can use 6 ug by using a larger volume, you would need about 8 ul of your plasmid prep.

Dear Doctor

[Interaction:

The situation or occurrence in which two or more objects or events act upon one another to produce a new effect; the effect resulting from such a situation or occurrence.

Reaction:

An action or statement in response to a stimulus or other event.]

Ayushi Mishra I wouldn't mind in assisting you

The main difference is that while absorption involves the mass transfer of particles into another material (one substance absorbing another), adsorption takes place with the adhesion of particles onto the surface of a substance. absorption is the process in which a fluid dissolves by a liquid or a solid. In the case of Adsorption, the atoms, ions, or molecules from a substance adhere to a surface of the adsorbent

KBr is 100% ionized and in aqueous solution the counter ion is anything that is a cation (positively charged) that is floating around. If your buffer contains K⁺ as the most common cation,then [Br^-] = [KBr].

I have used the colorimetric assay previously given.

Bowen H.J.M. The determination of chlorine, bromide and iodide in biological material by activation analysis. Biochem. J. 1959; 73: 381

It is easy to use and cheap, despite using a gold salt because you don't use much.

I am currently reading many article about nano materials and I think NM is the future.

Maybe writing a work kind of like this: https://www.researchgate.net/publication/380427514_Kalergi_and_Hart-Cellerand_Memetics_White_Antifragility?_tp=eyJjb250ZXh0Ijp7ImZpcnN0UGFnZSI6InByb2ZpbGUiLCJwYWdlIjoicHJvZmlsZSIsInBvc2l0aW9uIjoicGFnZUNvbnRlbnQifX0

To proof that a small molecule is covalently bound to a polymer is very challenging. I was in similar situation when I tried to bind polyphenols covalently to chitosan. Generally, the polyphenols in your washing solution were either non-covalently bound or the covalent bond was cleaved during washing. The unremoved polyphenols are not necessarily bound covalently, as non-covalent interactions can still be too strong.

You could try to depolymerise your protein (e.g. by enzymatic hydrolysis) and then analyse the fragments (e.g. by LC-MS). If you find a fragment with the polyphenol bound covalently, you have a proof.

I have the same in lab cool from Mettler Toledo, can’t quite figure out how to measure frozen buffer pH down to -30C. Any pointers? Much appreciated

Refer all these articles Pejman Rahmani Nejad

1.

2.

3. 10.3390/polym15020267

These are ChatGPT's selections: 7732-18-5 Water (H2O): Essential for life as we know it, water is a universal solvent, crucial for biological processes and various industrial applications. 124-38-9 Carbon dioxide (CO2): Important for photosynthesis and maintaining Earth's climate balance, but also notorious as a greenhouse gas contributing to global warming. 9007-49-2 DNA (Deoxyribonucleic acid): The molecule that carries genetic instructions for the development, functioning, growth, and reproduction of all known organisms. 50-78-2 Aspirin (Acetylsalicylic acid): Widely used as a pain reliever, anti-inflammatory, and fever reducer, with additional benefits such as preventing blood clot formation. 479-61-8 Chlorophyll a: A specific form of chlorophyll, crucial for photosynthesis in plants and other photosynthetic organisms. It's responsible for the green pigment in plants and plays a central role in converting light energy into chemical energy, which is then used to synthesize carbohydrates from carbon dioxide and water... see above ;-)

It is quite common to present talks or posters on the basis of previously published papers. However, care must be taken when contributing to the proceedings of the conference so as not to infringe the copyright of the journal's publisher.

Being a proficient researcher doesn't necessarily equate to being a better professor. While research expertise can enhance teaching by bringing current knowledge and real-world applications into the classroom, effective teaching requires distinct skills such as communication, empathy, and the ability to engage students.

A good professor balances both research and teaching responsibilities, tailoring their approach to meet the needs of their students while contributing to their field through research. However, being a successful researcher doesn't guarantee effective teaching, as teaching requires its own set of abilities and dedication.

I'm not sure, but I think you did a great job of answering your own question... 'Charting the afterlife?" Answer; Why?' Somethings can't be known. Or, even if we were explained, would we have a hope of understanding the answer? Every morning on the way to work I ask the Universe for a special watch over some friends and family (including my most recent 'best friend' Chihuahua) who have 'recently' passed. I know that they are soaring the Universe as Light Beings and I am a bit jealous of all they will see and re-understand. But charting the afterlife... it's like charting the Universe itself accurately. THEY could do it, but we can't even imagine what it looks like in totality. MY opinion, of course.

There is no easy answer to this question, and actually I do not think that self-learning can lead you very far. This having been said, self-learning the application of DFT to chemical problems requires facing two different types of knowledge, one on theoretical chemistry, and one on the implementation of the theory in a computational software suite.

So, first I would go to books & manuals. For a start, the books from Jensen and Cramer might be very useful. As for the second problem, studying the manuals is mandatory. Many software suite, for example Gaussian, have very complete official on-line resources. Only after a deep study you might start using the software. A help on practical issues can came from any of the many fora on computational chemistry, including RG and the Telegram group on computational and quantum chemistry.

Ahmad Umair

Mixing solutions with inorganic salts and EDTA is sufficient to form a sol. When the solvent is removed in air, a gel will form. Even visually monitor the viscosity. When the solvent is removed, a xerogel is completely formed. Calcination of the xerogel will give BiFeO3.

The stages have been described correctly, but there is no need to separate them.

Hi, you can read some papers:

1. Computational Protein Design: Advances in Algorithms and Biophysical Validation

This article discusses recent advances in computational protein design algorithms and methodologies, focusing on biophysical validation techniques to assess the stability, structure, and function of designed proteins.

2. Machine Learning Approaches for Protein Design: Recent Advances and Future Directions

This review article explores the application of machine learning techniques in protein design, including deep learning approaches, and discusses methods for evaluating designed proteins using molecular dynamics simulations and experimental validation.

3. Rational Protein Design: Computational Approaches and Experimental Validation

This paper presents computational strategies for rational protein design, highlighting methods such as Rosetta and FoldX, and provides insights into experimental techniques for validating designed proteins through biophysical assays and structural characterization.

4. Multi-Objective Optimization in Computational Protein Design: Balancing Stability, Function, and Specificity

This article focuses on multi-objective optimization strategies in computational protein design, aiming to balance various design objectives such as stability, function, and specificity. It discusses evaluation metrics and experimental validation approaches for assessing designed proteins.

5. Integration of Structural Bioinformatics and Machine Learning for Protein Engineering

This study presents an integrated approach combining structural bioinformatics and machine learning for protein engineering, emphasizing the importance of accurate protein structure prediction and molecular dynamics simulations in evaluating designed proteins.

6. High-Throughput Screening Platforms for Computational Protein Design

This review article surveys high-throughput screening platforms used in computational protein design, including methods based on protein-protein interactions, enzyme assays, and cell-based assays, and discusses their applications in evaluating large libraries of designed proteins.

7. Protein Design in the Age of Synthetic Biology: From Theory to Experiment

This paper explores the intersection of protein design and synthetic biology, discussing computational tools for designing novel protein functions and experimental techniques for characterizing designed proteins in living systems.

These articles provide insights into recent advancements in computational protein design and offer strategies for evaluating the properties and functions of designed proteins through computational and experimental approaches.

Oxygen balance is often calculated to CO rather than CO2, maybe a part of the problem originates from this. Usually we use the following formula for CHNOFClS compounds

OxBal=16*(nO+nF/2+nCl/2-(2*nC+0.5*nH+2*nS))/MW*100

Note, however, that the oxygen balance cannot be used as a measure of explosibility or energetic potential, it is much more complicated. For benchmarked emripical equations for energetic potential see our paper

we also suggested a rough estimation for the mechanical sensitivity of compound here

Hope that helps,

Nikita Muravyev