Monday, May 18, 2026

What Started Out As An Article Analysis Led Into Something Else

 




This post initially started out as analysis of an article posted on True Origins, a creationist apologetics website, written by L.M. Spetner (a.k.a. Lee Spetner) as rebuttal to an evolutionist’s claim that gene duplications, the seeming increase in hereditary variations within living organisms, and the rise of genetic adaptations that enable any given form of life to adapt to certain environmental conditions constitute as increases in genetic information that was not previously present in the DNA of the organism.
 
In that article, he explained well the processes and mechanisms that take place within the genome that account for the genetic variations and adaptive traits observed in living things
but towards the end of his article, he undermined his own refutation when he stated that, “The B lymphocytes of the vertebrate immune system do indeed generate information through random mutations and selection” [1] which evolutionists could interpret as meaning the arise of new genetic information not previously present within the genetic system and for those of you out there who do not know what B lymphocytes are, they are a vital part of the immune system.
 
Spetner stated that the information generated by the B lymphocytes is produced by way of what he called “hyper mutations” [2] that are confined to a small portion of the B-cell and which are produced at a rate a million times higher than what might be observed in the rest of the genome.
 
He then went on to state that by way of this hypermutation rate, the B lymphocytes produce “an enormous number of potential antibodies until it yields one that matches an invading pathogen. Once a match is found, the matching antibody is cloned millions of times to be attached to the invading pathogens to mark them selectively for destruction.” [3]
 
While I certainly do not dispute this mechanism, the process and mechanism that Spetner described is not a generation of information that was not previously present within the DNA or genome but rather a recombination of information already present within the B lymphocytes that enables them to do the important work that they do in fending our bodies off from sickness and disease.
 
But his article did reveal something else to me that I felt I needed to takes some time to investigate and give attention to.  In his piece he mentions how almost all bacterial resistance to antibiotics comes not from an increase in information in their respective genomes and DNA themselves, but through a process called Horizontal Gene Transfer (HGT) which is when an organism such as a bacteria acquires genetic material from any given source, including other bacteria, and incorporates it into its own and what is so significant about this is not just about how bacteria become resistant to antibiotics but what it may also mean for the origins of life altogether.
 
A challenge for evolutionists has been to demonstrate how complex organisms could have evolved from organisms much less complex; in other words, how plants, animals, and mankind could have evolved from simple celled organisms.   
 
In order for one kind of life to evolve from another, that requires a production of genetic material that was not previously present but evolutionists have not been able to offer any satisfying explanation for how AaBa can produce WKRPINCINCINNATTI which is what would have to happen in order for evolution to take place, but now some evolutionists have proposed that increased complexity may not have necessarily come about by random mutations alone, but also by some way of Horizontal Gene Transfer between different organisms, and not just between organisms that are related to one another but also between organisms that are not considered related to each other.  An article from the National Library of Health states:
 
 
 
Flexibility in the exchange of genetic material takes place between different organisms of the same or different species. This phenomenon is known to play a key role in the genetic, physiological, and ecological performance of the host. Exchange of genetic materials can cause both beneficial and/or adverse biological consequences. Horizontal gene transfer (HGT) or lateral gene transfer (LGT) as a general mechanism leads to biodiversity and biological innovations in nature. [4] 
 
   
 
For those of you out there who are not familiar with the process of Horizontal Gene Transfer (HGT), there are three ways that this can take place as explained by the following from an item from Maricopa Colleges:
 
 
 
1. Transformation: Bacteria take up free or “naked” DNA released from other lysed cells in their environment. This process requires the recipient cell to be in a state of competence, allowing DNA binding, uptake, and subsequent integration into its genome, often via homologous recombination.
 
2.  Transduction: Genetic material is transferred from a donor bacterium to a recipient bacterium via a bacteriophage (a virus that infects bacteria). During phage replication, bacterial DNA can be mistakenly packaged into new phage particles. Generalized transduction allows any bacterial gene to be transferred, while specialized transduction involves the transfer of specific genes located near the phage integration site in the bacterial chromosome.
 
3.  Conjugation: DNA is transferred directly from a donor cell to a recipient cell through cell-to-cell contact, often referred to as bacterial “mating.” This process typically involves a conjugative plasmid (like the F-plasmid), which codes for the formation of a sex pilus that initiates contact and a mating bridge for DNA transfer via rolling circle replication. High-frequency recombination (Hfr) cells, with the plasmid integrated into their chromosome, can also transfer chromosomal DNA. [5]
 
 
 
Because bacteria are able to acquire genetic information from their surrounding environment and transmit genetic information with one another, evolutionists, based on that fact have theorized that Horizontal Gene Transfer may also explain how life evolved from single-celled organisms into more complex forms of life but Creationists dispute this assumption for several reasons.  Geneticist Jeffery P. Tompkins of the Institute For Creation Research (ICR) explains in a rebuttal argue to a study written and then posted on a science publication called Genome Biology:
 
 
 
in a…published study, the researchers claim that "HGT has contributed to the evolution of many, perhaps all, animals and that the process is on-going in most lineages."
 
The amazing thing about this statement is that it is a big hypothetical fairy tale. In this study, the researchers failed to prove any portion of this extravagant statement, nor did they show any specific mechanism for how HGT could have happened. In fact, the whole study was seriously flawed on a variety of key fronts.
 
First, the researchers found unique genes in a variety of fruit flies, worms, primates, and humans that had no clear evolutionary ancestry. In other words, each of these genes is specific to a certain type of creature. Scientists have previously termed these "orphan genes"—a unique type of gene that provides a clear anti-evolutionary enigma I have discussed in previous reports.
 
Some claim these novel orphan sequences evolved suddenly out of non-coding DNA while others, such as the authors of this new report, claim they were derived from HGT.
 
The major problem with claiming that these alleged HGT genes are imported or "foreign" (i.e., transferred into the genome from some other creature), is that many of them encode important enzymatic proteins and are key parts of the interconnected gene networks and complex biochemical pathways that are essential to the very life of the organism. The researchers stated, "The majority of these genes are concerned with metabolism." Clearly, the genes are not foreign at all, but designed to function as key parts of essential biologically complex systems.
 
Second, the approach to supposedly identifying many of the foreign genes in animals as microbial in origin was not even based on actual complete gene sequence, but depended upon isolated regions of similarity in the proteins they encode. [6]
 
 
 
Genome biology did admit that genes allegedly acquired through HGT mainly regulate enzyme and metabolic activity [7] and, not only that but also with immune system regulation [8] and if that is the case, then any genes transmitted from bacteria to other organisms does not necessarily result in increased information or complexity.
 
It also admitted that only orthologus genes (that is genes shared in common, even by organisms unrelated to one another though not necessarily identical) were included in the study [9] in which case a complete and accurate picture is not given and whenever any genetic material is excluded from genetic comparison studies, the integrity of the results of the study are understandably and rightfully questioned and they should be questioned and even challenged.
 
Tompkins also pointed out that:
 
 
 
In mammals, genes are quite complex, and on average only about 10% of the entire gene sequence actually codes for protein, the rest contains a large diversity of regulatory sequences that determine how the gene is to function and its various types of products. In contrast, microbial genes are typically much less complex and lack these intricate and intervening regulatory regions found in animal genes. [10]
 
 
 
In all honesty, microbial genes are far less complex than those of not only mammals, but even plants, invertebrates, fish, amphibians, reptiles, and birds
 
Horizontal Gene Transfer has only been observed to take place amongst microbial organisms but has not necessarily been observed to take place among non-microbial forms of life, at least not nearly to the same degree as is found in microbial life, but it has been assumed and theorized by evolutionists that microbes are able to take from or transfer to non-microbial organism genetic information which is why they are resorting to the claim that HGT may be what causes one form of life to evolve from another, but just as they cannot explain how genetic information can be produced that was never produced before by the copying and recombination of existing genetic information itself, they still cannot explain as to how genes that regulate and determine metabolic and enzyme activity and regulate the immune system could ever cause bacteria to produce a man.
 
In order for HGT to produce a man from bacteria, the amount of genetic information possessed and transmitted between single-celled organisms would have to practically be limitless and not only that, there would already have to be a vast diversity of different organisms, and if that were the case, then that would mean that life did not arise from a common ancestor, but from several common ancestors, which would then require a vast diversity of microbial organisms to evolve simultaneously but that is only with the assumption that there is no limitation as to what genetic material can be transferred and incorporated into the genome and DNA of the receiving organism and no limitation of the function of the genetic information being acquired but even evolutionists have admitted that there are compatibility and conditional limits to HGT.  The Oxford Academic publication explains:
 
 
 
We find HGT is not random, but depends critically upon internal and environmental factors…internal and external environmental factors strongly influence which genetic material a prokaryote may acquire by HGT. The positive associativity of some of the parameters tested here is readily understood. For example, prokaryotes preferentially acquire genes from other prokaryotes when both live in the same oxygenic environments because there are many enzymes that do not function in the presence, or absence, of oxygen…
 
Similarly, temperature differences can restrict HGT. In the case of a gene being transferred from a mesophilic environment to a thermophilic one, restriction may be due to the inactivation of mesophilic proteins at higher temperatures. In the reverse direction, a thermophilic protein may not function due to the need for higher temperatures for enzyme catalysis. Also, naked DNA is much more labile at higher temperatures, hampering the circulation of mesophilic DNA lacking thermal protective mechanisms within high temperature environments.
 
The mode of harnessing energy (carbon utilization) also has a restrictive influence on HGT. Heterotrophs prefer to exchange genes with each other, as do autotrophs, perhaps because the opportunity to utilize a novel carbon source may be advantageous. [11]
 
 
 
 
Not only would microbial life have to be vastly genetically diverse from the start, not only could there be no limitations on what genes could be shared, but they would have all had to have existed in an environment with which all existing microbes at the time of their evolution would be compatible and the extent of their ability to exchange genetic information with each other and to acquire genetic information within their surrounding environment would depend on the extent of their compatibility with one another, the temperature of their environment would have to enable, not restrict, HGT but at present, HGT faces two barriers:
 
 
 
1.  Microbes will not receive and exchange genetic information with just any other microbe because not all microbes are compatible with each other and if they are not compatible with each other, then they will not exchange information with each other.
 
2.  The temperature of the earth is not presently uniform.  In environments in which temperatures are too cold, the proteins necessary to enable HGT will not be activated and in environments where temperatures may be too hot, the enzymes that are also needed for HGT may be prevented from functioning; in either case, HGT will be limited only to those microbes of the respective environment in which they live; they will not be able to exchange genetic information with microbes of an environment different from theirs.
 
And just because genes can be transmitted from one organism to another, that doesn’t necessarily mean that which is transferred is going to benefit the recipient or lead to an adaptation.  According to the National Library of Medicine:
 
 
 
Horizontal gene transfer (HGT) or lateral gene transfer (LGT) as a general mechanism leads to biodiversity and biological innovations in nature. HGT mediators are one of the genetic engineering tools used for selective introduction of desired changes in the genome for gene/cell therapy purposes. HGT, however, is crucial in development, emergence, and recurrence of various human-related diseases, such as cancer, genetic, metabolic, and neurodegenerative disorders and can negatively affect the therapeutic outcome by promoting resistant forms or disrupting the performance of genome editing toolkits…
 
LINEs (L1) as the only active TEs in the human genome are involved in the development and progression of various human diseases by activating otherwise silent promoters and/or promoting the deregulated expression of oncogenes and tumor suppressor genes.
 
Besides cancer, TEs are also implicated in the pathogenesis of various well-known genetic, metabolic, and neurological diseases. Moreover, LINE insertion which promotes genomic instability may pose a threat to the biosafety of stem cells which serve as valuable resources for regenerative medicine and cell-based therapies…
 
Also, newly discovered HGT mediators in mammalian cells including vesicular particles (EVs), apoptotic bodies, and cell-free DNA (cfDNA) are involved in different stages of cancer development and progression, as well as anti-cancer drug resistance and therapy failure. [12]
 
 
 
While HGT may be beneficial to bacteria and other microbial forms of life, when bacteria attempt to transfer genetic material to non-microbial lifeforms, the results are more often harmful than not harmful and may be the cause of a variety of different ailments; even ones that can prove fatal but what makes HGT beneficial for microbial lifeforms is that since they reproduce asexually, HGT enables them to maintain diversity in their gene pool in order for the microbial species to be preserved.
 
If it were not for HGT, microbes would only be able to pass down to their offspring traits that they possess, resulting in the offspring being an exact copy or clone of their parent, but that also means that any error or corruption within the reproduction process that occurs within the inherited DNA will also be passed down to the next generation, and if enough errors and corruptions accumulate within the inherited DNA, that could result in the eventual extinction of the lifeform because there would be nothing to override or cancel out those errors and corruptions as there would be with creatures that produce offspring through sexual reproduction.
 
By being able to receive and exchange genetic information from their surrounding environment, other bacteria, and even other microbes such as bacteriophages, which are viruses that infect bacteria, bacteria are able to override and even cancel out any errors or corruptions within their own DNA so that they can continue producing viable offspring as it is this genetic diversity that enables them to adapt to environmental conditions and become immune to poisons, antibiotics, and other elements by which they might otherwise be rendered off, just as genetic diversity within each kind of non-microbial lifeform also enables them to adjust and adapt to different environmental conditions and build up immunities to various diseases and even poisons by which they would otherwise be killed, but unlike each species within each kind of non-microbial life forms, genetic comparisons of bacteria that are of the same kind and species may appear far more different from one another than a genetic comparison between a wolf and even given dog breed which would appear almost identical.  Dr. Georgia Purdom of Answers In Genesis explains:
 
 
 
For just about any species other than bacteria, if you sequence the genome (the DNA present in the nucleus) of one member of the species, it will be very similar to every other member of that species. For example, my DNA is only 0.1% different from that of each person reading this article. This similarity allows scientists to talk about the human genome as opposed to human genomes.
 
But for just about any bacterial species, if you sequence the genome of one strain, it will likely be very different from other strains within that same species. In fact if you sequence 20 different strains, you will find many genes unique to only one strain! [13]
 
 
 
In other words, the DNA of a wolf and even a poodle will appear almost identical whereas the DNA of two bacteria of the same kind and species will appear very different from each other due to Horizontal Gene Transfer frequently taking place among them but in spite of this, each kind of species of bacteria still retains a core base of genes.  Purdom explains further:
 
 
 
Consider the example of Escherichia coli, a common gut bacterium. The genome of each strain consists of approximately 5,000 genes. About 2,200 of those genes are found in virtually every other strain of E. coli sequenced. These genes (and the proteins produced from them), called core genes, are considered housekeeping genes and are needed by every strain for basic cellular functions. The remaining 2,800 genes are specific to that strain and called accessory or adaptive genes. These genes help it adapt and function in a specific environment. For example, a study that compared proteins produced by two harmful strains and one harmless strain of E. coli found that nearly 40% of the proteins produced by all three strains were the same, but 47% of the proteins were produced by only one strain.
 
The same basic 2,200 genes appear in virtually every E. coli. Called core genes, these perform basic functions necessary for every cell. The remaining 2,800 genes appear in only some E. coli. Called accessory or adaptive genes, they help different bacteria survive in different environments. [14]
 
 
 
These accessory or adaptive genes may be helpful in enabling bacteria to adjust and adapt to different environmental conditions, in building up immunity to various toxins and poisons, and useful in the preservation of the lifeform, but it will never be enough to cause man to evolve from a microbe which is why E. coli will always be E. coli why amoebas will always be amoebas.  Purdom continues on to state:
 
 
 
Despite its wonderful flexibility, bacterial adaptation doesn’t change a bacterium into a completely different kind of organism because it doesn’t result in the origin of novel genetic information needed for this type of change. In the case of bacteria, it is the alteration or exchange of pre-existing genetic information.
 
Mutations and natural selection have never been observed to originate novel information of the type necessary for molecules-to-man evolution. [15]
 
 
 
Just as non-microbial life cannot pass traits down to offspring for which they don’t have the genetic potential, neither can microbial life.  They can only pass down to their offspring what they already possess.  They cannot pass genetic potential they don’t possess.  The odds of evolution occurring through Horizontal Gene Transfer are virtually none for several reasons.
 
 
1.  There would have to be a vast diversity of microbial lifeforms from the very start which means essentially, they would all start out reproducing after their own kind just as the book of Genesis declares that all life was created to do (Gen. 1:12, 21, 24-25) because in order for non-microbial life to evolve from microbial life, the genetic potential for such would have to be present which would be impossible without a diverse array of microbes.
 
2.  The ability for microbes to acquire and exchange information with each other would have to be limitless, but microbes will not share genetic information they possess or acquire with just any other microbe.  They will only share and exchange genetic information with compatible subjects.
 
3.  There could be no environmental barriers to hinder HGT.  The environmental conditions would have to be such so as to enable the proteins and enzymes which need to function in order for HGT to occur and especially if HGT is to occur between microbes that would otherwise be living in different environments.
 
4.  Non-microbial forms of life such as plants, animals, and even people possess an immensely higher degree of complexity than microbial lifeforms which means non-microbial life forms possess genes that microbial forms of life do not possess and vice versa and in order for evolution to be possible, there must be an increase in complexity which requires an increase in information, but microbes, no how many diverse kinds there may be, like any other kind of life, cannot pass on what they do not possess.  Horizontal Gene Transfers do not produce genetic information that does not already exist.  All it does is move existing genetic information around and from one source to another.
 
Evolutionists have yet to even propose a mechanism for how microbes and DNA formed from a source that did not already have the potential for it in the first place.
 
5.  And even when bacteria do manage to transfer genetic material to a non-microbial host, that doesn’t mean that it will benefit or produce an adaptive trait in the host organism.  Such transfer attempts end up being harmful far more often than beneficial or helpful.
 
 
Bacteria and microbes, despite acquiring and exchanging a wide range of genetic information, still continue to reproduce after their own kinds just as all other forms of life do because that is what God intended for all things to do.
 
 
 
End notes:
 
 
 
1.  Dr. Lee Spetner, “Evolutionists' Confusion over Mutations
and Information Put to Rest,” True Origin
https://trueorigin.org/spetner3.php
 
2.  Ibid.
 
3.  Ibid.
 
4.  Melissa Emamalipour, Khaled Seidi, Sepideh Zununi Vahed, Ali Jahanban-Esfahlan, Mehdi Jaymand, Hasan Majdi, Zohreh Amoozgar, L T Chitkushev, Tahereh Javaheri, Rana Jahanban-Esfahlan, Peyman Zare, “Horizontal Gene Transfer: From Evolutionary Flexibility to Disease Progression,” National Library of Medicine, May 19, 2020
https://pmc.ncbi.nlm.nih.gov/articles/PMC7248198/
 
5. “Horizontal Gene Transfer,” Maricopa Community Colleges
https://open.maricopa.edu/microbialgenetics/chapter/horizontal-gene-transfer/
 
6.  Jeffrey P. Tompkins, Ph.D., “Another Horizontal Gene Transfer Fairy Tale,” Institute For Creation Research, April 6, 2015
https://www.icr.org/content/another-horizontal-gene-transfer-fairy-tale
 
7.  Alastair Crisp, Chiara Boschetti, Malcolm Perry, Alan Tunnacliffe, and Gos Micklem, “Expression of multiple horizontally acquired genes is a hallmark of both vertebrate and invertebrate genomes,” Genome Biology, March 13, 2025
https://web.archive.org/web/20150314130048/http://genomebiology.com/2015/16/1/50
 
8.  Ibid.
 
9.  Ibid.
 
10.  Tompkins, ., “Another Horizontal Gene Transfer Fairy Tale,” Institute For Creation Research, April 6, 2015
 
11.  Ravi Jain , Maria C. Rivera , Jonathan E. Moore , and James A. Lake, “Horizontal Gene Transfer Accelerates Genome Innovation and Evolution,” Oxford Academy, October 1, 2003
https://academic.oup.com/mbe/article/20/10/1598/1163979
 
12. “Horizontal Gene Transfer: From Evolutionary Flexibility to Disease Progression,” National Library of Medicine, May 19, 2020
 
13.  Dr. Georgia Purdom, “Bacteria’s Unique Design—Pooling Resources,” Answers In Genesis, December 14, 2014
https://answersingenesis.org/biology/microbiology/bacterias-unique-design-pooling-resources/
 
14.  Ibid.
 
15.  Ibid.

 

 

 

Scripture references:

 

 

 

1.  Genesis 1:12, 14, 24-25


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