Thermodynamically possible order formation excludes evolution Thomas Seiler Stuttgart, Germany.

Slides:



Advertisements
Similar presentations
Thermodynamics Thermo – Heat Dynamics – motion or flow.
Advertisements

Photosynthesis & Respiration The Big Picture. Photosynthesis 6CO 2 + 6H 2 O + Light C 6 H 12 O6 + 6O 2 Six molecules of carbon dioxide plus six molecules.
Boltzmann, Shannon, and (Missing) Information
Chemical Reactions And Enzymes. A chemical reaction is a process that changes, or transforms, one set of chemicals into another. Mass and energy are conserved.
Chemistry and Matter Review. What is Matter? Matter- anything that has mass and takes up space. Everything in the world is made of matter.
Conservation of Entropy ??? The question arose, is entropy conserved? After all, energy is. But a great deal of experimental experience indicated that:
Conservation of Energy
Chapter 6 Metabolism: Energy and Enzymes. Metabolism The totality of an organism's chemical reactions, consisting of catabolic and anabolic pathways Catabolic.
Energy The ultimate source of all energy on Earth.
Energy How we use our resources. Discussion What are five (5) ways you use energy every day?
Chapter 6 Metabolism and Energy.
Thermodynamic principles JAMES WATT Lectures on Medical Biophysics Dept. Biophysics, Medical faculty, Masaryk University in Brno.
Chapter 6.  Temperature ◦ Is something hot or cold? ◦ Relative measure.
Chemical Reactions.  Atoms interact in chemical reactions: Chemical reaction: produces new substances by changing the way in which atoms are arranged.
The Laws of Thermodynamics Unit 3: Bioenergetics Honors Biology Monkemeier.
Energy & Metabolism Matter – anything that has mass and takes ups space Energy - capacity to do work or bring about change Matter is a form of energy.
Energetics Fueling Life. Energy takes various forms MECHANICAL L.
Chemical Reactions and Enzymes Chapter 8: An Introduction to Metabolism.
APES DO NOW Turn in Tragedy of the Commons
Photosynthesis Objective 2: The student will demonstrate an understanding of living systems and the environment. (7.8) Science concepts. The student knows.
The Zeroth Law of Thermodynamics
1 10 pt 15 pt 20 pt 25 pt 5 pt 10 pt 15 pt 20 pt 25 pt 5 pt 10 pt 15 pt 20 pt 25 pt 5 pt 10 pt 15 pt 20 pt 25 pt 5 pt 10 pt 15 pt 20 pt 25 pt 5 pt Nature.
Atomic Structure. Atomic number – number of protons Mass number – number of protons + neutrons Protons (+)electrons (-) Neutrons (neutral) Energy levels.
The Chapter 6 Homework is due on Wednesday, October 21 st at 11:59 pm.
Thermodynamics / Free Energy & ATP
Metabolism An Introduction. Energy Every reaction that occurs in a living organism requires the use of Energy ◦ Energy = ability to do work Metabolism:
Overview: The Energy of Life The living cell is a miniature chemical factory where thousands of reactions occur The cell extracts energy and applies energy.
Ch. 8 An Introduction to Metabolism. A organism’s metabolism is subject to thermodynamic laws The totality of an organism’s chemical reactions is called.
Hot Seat!. Thermal Energy Transfer Multiple Choice Hypothesis, Data, and Graphs True or False? More Thermal Energy
* Studying energy flow in chemical changes allows us to predict what is possible and what is not. * 1 st Law of Thermodynamics PE tends only to decrease.
Is this your room? Then you already know about entropy.
Heat and the Second Law of Thermodynamics Chapter 4 Great Idea: Heat is a form of energy that flows from warmer to cooler objects.
Ch 5 Energy & Metabolism 1.Was knocking the tower down difficult? 2.How much energy did it require? 3.Was building the tower difficult? 4.How much energy.
1 Thermochemistry   H=Q Enthalpy change equals to heat  When chemical reactions occur, heat is released to (or absorbed from) the surroundings.  Under.
Properties of Water How does water’s high specific heat capacity affect the environment? Helps protect living organisms from temperature fluctuations Moderates.
7.7: Standard Molar Entropies Standard Molar Entropy = Entropy of 1 mole of material at K and 1 bar When we consider the standard molar entropies.
Energy and Matter. Energy Energy – the ability to do work or cause change. – Like matter, energy is never created or destroyed in chemical reactions.
Unit 1 Powerpoint Review for Chapter 2. What Is Science? Science is a pursuit of knowledge about how the world works Scientific data is collected by making.
T HE FOUR LAWS OF T HERMODYNAMICS Prepared by: VAGHASIYA JAYDIP RAMANIKBHAI ( )
Systems. A System Is an organized collection of interdependent components that perform a function and which are connected through the transfer.
Ib Environmental Systems & Societies Topic 1: Systems & Models Thermodynamics Topic 1: Systems & Models Thermodynamics.
Enthalpy of formation Using enthalpies of formation, calculate the standard change in enthalpy for the thermite reaction: This reaction occurs when a mixture.
To understand the environment, we need to know how energy and matter behave in the environment and in living things Matter, Energy and Life Building blocks.
Reactants and Products  A chemical reaction is the process by which atoms or groups of atoms in substances are reorganized into different substances.
1 Thermodynamic Equations (a)Heat, Work and the 1 st Law PV=nRT equation of state for ideal (perfect) gas work done against external pressure work done.
Chemical Reactions (Energy). I. Energy – Stored in Chemical ______, especially (__-__) bonds.
Copyright©2000 by Houghton Mifflin Company. All rights reserved. 1 Chemistry FIFTH EDITION by Steven S. Zumdahl University of Illinois.
Chapter 3 – Energy Transfer
An Introduction to Metabolism
4.5 Energy Principles Energy is the ability to perform work.
Chapter 8: Cellular Energy Section 1: How Organisms Obtain Energy
Science, Matter, Energy, and Systems
CHEMISTRY Unit 11 Notes: Intro to Fire & Energy
Reactants and Products
The 4 Laws of Thermodynamics pg.54
Chapter 6: Chemistry in Biology
6 An Introduction to Metabolism.
Ecologists study:   A.  Living things and their genetic makeup B.  Genetic patterns and the chemistry in them C.  The physical world and its processes.
The Chapter 6 Homework is due Sunday, October 21 at 11:59 pm.
Entropy & the 2nd Law of Thermodynamics
An Introduction to Metabolism
Energetics Fueling Life.
An Introduction to Metabolism
Sajjad Ahmed Memon S.S./ Health Physicist NIMRA
Warm Up: 11/29/16.
Two basic processes must occur in an ecosystem:
All matter is made up of molecules and atoms
An Introduction to Metabolism
Science, Matter, Energy, and Systems
Basics- as they apply to APES
Presentation transcript:

Thermodynamically possible order formation excludes evolution Thomas Seiler Stuttgart, Germany

The constituents of all matter molecules atoms

Physical and chemical transformations 1 st law of thermodynamics: energy conservation 2 nd law of thermodynamics: entropy law

The 2 nd law of thermodynamics A system of particles moves randomly (Brownian motion) Permanent change of momentum and direction Result: 1) disordered distribution of momentum 2) disordered distribution in space

The 2 nd law of thermodynamics ordered distribution of momentum/temperature => low probability disordered distribution of momentum/temperature => high probability time hot cold lukewarm

The 2 nd law of thermodynamics ordered distribution in space => low probability disordered distribution in space => higher probability time

The 2 nd law of thermodynamics The entropy S - a measure for probability P: S = k·ln P The 2 nd law for any isolated system of matter: “A system will never change by itself into a significantly less probable state, i.e. its entropy will never decrease by more than a few k.“ Basis of nature and every-day experience. Excludes any physical process.

The 2 nd law of thermodynamics evolution: mutation and selection

The 2 nd law of thermodynamics “No exception to the second law of thermodynamics has ever been found - not even a tiny one. Like conservation of energy (the “first law“), the existence of a law so precise and so independent of models must have a logical foundation that is independent of the fact that matter is composed of interacting particles.“ E. H. LIEB, J. YNGVASON, “Physics Today“, 53 (2000)

Entropy law: From order to disorder time Y low entropy time high entropy

The exceptions of “open systems“ energy exchange => entropy decrease is possible only under certain conditions. + energy 25 °C 4 °C 20 °C high entropy space low entropy space + machine

The exceptions of “open systems“ high entropy CO 2 carbon dioxide O 2 oxygen (CH 2 O) x hydrocarbons water light energy sun Living beings are open systems low entropy Condition: Order information is already in photosynthesis machine.

The exceptions of “open systems“ Cooling induces ordered crystals water molecules snow flakes Condition: Order information is already in H 2 O symmetry.

The exceptions of “open systems“ Condition: Order information is already in feed-back arrangement. Dissipative structures e.g. Bénard cells: (further examples: vortex in Tornado, standing wave in a flute, oscillating chemical reactions) explanation: stable convection circle is a resonance in a feed-back-loop. Why stable? higher velocity => T-difference decreases. => lower velocity => T-difference increases. => higher velocity etc.

Biological order Biological organs – a different category: specific, functional and aesthetical complexity which is new information - not contained in an ordering machine - not contained in chemical elements, i.e. not energetically favourable - not contained in a feed-back loop arrangement

Summary ● Evolutionary hypothesis: “Disordered molecules turn into specific complexity by purely physical processes.“ ● Thermodynamics in isolated systems: Order turns into disorder, never vice versa. ● Open systems: Exeptional order formation is possible by energy exchange - only if structural information is pre-existing. ● Machine, chemical element, feed-back loop or other physical structure containing biological information does not exist. ● Therefore, physical processes, e.g. mutation and selection, can not produce – not even by cooling or heating - biological information. Conclusion: Evolution is not an open systems exception, but is inhibited by the 2 nd law of thermodynamics.

Step 1 Step 2 Step 3 Step 4 Step 5 Step x No incomplete organs in nature Unfittest: still existing Fittest: still existing Incomplete with intermediate fitness: not existing

"The fifth way is taken from things’ being directed. We see that there are things that have no knowledge, like physical bodies, but which act for the sake of an end. This is clear in that they always, or for the most part, act in the same way, and achieve what is best. This shows that they reach their end not by chance but in virtue of some tendency. But things which have no knowledge do not have a tendency to an end unless they are directed by something that does have knowledge and understanding. An example is an arrow directed by an archer. Therefore there is some being with understanding which directs all things to their end, and this, we say, is God." Summa Theologica I, Q. 2, A. 3