 people would deny it and say that it's fake.

&gt;Consider the census that Luke invents to place Jesus' birth in Bethlehem. It is a logistical impossibility for the population to go to their ancestral homes for a census, and nonsensical too. Luke's account of the rulers at the time of the census is also in error as well

Also I'm not sure about this discrepancy if you know a page that talks about this more could you please link or dm me an explanation I'm genuinely curious and would like to know more about it.

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Wood is best defined as a three-dimensional biopolymer composite composed of an interconnected network of cellulose, hemicelluloses and lignin with minor amounts of extractives, and inorganics. The major chemical component of a living tree is water, but on a dry weight basis, all wood cell walls consist mainly of sugar-based polymers (carbohydrates, 65–75%) that are combined with lignin (18–35%). Overall, dry wood has an elemental composition of about 50% carbon, 6% hydrogen, 44% oxygen, and trace amounts of inorganics. Simple chemical analysis can distinguish between hardwoods (angiosperms) and softwoods (gymnosperms) but such techniques cannot be used to identify individual tree species because of the variation within each species and the similarities among species. In general, the coniferous species (softwoods) have a higher cellulose content (40–45%), higher lignin (26–34%), and lower pentosan (7–14%) content as compared to deciduous species (hardwoods) (cellulose 38–49%, lignin 23–30%, and pentosans 19–26%). Table 3.1 shows a summary of the carbohydrates, lignin, and ash content of hardwoods and softwoods in the United States (Pettersen 1984).
A complete chemical analysis accounts for all the components of wood. Vast amounts of data are available on the chemical composition of wood. All tables in this chapter summarize data for wood species in North America (Pettersen 1984).
The major carbohydrate portion of wood is composed of cellulose and hemicellulose polymers with minor amounts of other sugar polymers such as starch and pectin (Stamm 1964). The combination of cellulose (40–45%) and the hemicelluloses (15–25%) are called holocellulose and usually accounts for 65–70% of the wood dry weight. These polymers are made up of simple sugars, mainly, d-glucose, d-mannose, d-galactose, d-xylose, l-arabinose, d-glucuronic acid, and lesser amounts of other sugars such as l-rhamnose and d-fucose. These polymers are rich in hydroxyl groups that are responsible for moisture sorption through hydrogen bonding (see Chapter 4).
Source: Adapted from Pettersen, R.C. 1984. The Chemistry of Solid Wood, Advances in Chemistry Series 20, Chapter 2, pp. 57–126, Washington, DC: ACS.
Cellulose is the most abundant organic chemical on the face of the earth. It is a glucan polymer of d-glucopyranose units, which are linked together by β-(1 → 4)-glucosidic bonds. Actually the building block for cellulose is cellobiose since the repeating unit in cellulose is a two sugar unit (Figure 3.1).
The number of glucose units in a cellulose molecule is referred to as the degree of polymerization (DP). Goring and Timell (1962) determined the average DP for native celluloses from several sources using a nitration isolation procedure that minimized depolymerization and maximized yield. These molecular weight determinations, done by light-scattering experiments, indicate the wood cellulose has an average DP of at least 9000–10,000 and possibly as high as 15,000. An average DP of 10,000 would mean a linear chain length of approximately 5 μm in wood. This would mean an approximate molecular weight for cellulose ranging from about 10,000 to 150,000. Figure 3.2 shows a partial structure of cellulose.
Figure 3.1 Chemical structure of cellobiose.
Figure 3.2 Partial structure of cellulose.
Figure 3.3 Axial projection of the crystal structure of cellulose I.
Cellulose molecules are randomly oriented and have a tendency to form intra- and intermolecular hydrogen bonds. As the packing density of cellulose increases, crystalline regions are formed. Most wood-derived cellulose is highly crystalline and may contain as much as 65% crystalline regions. The remaining portion has a lower packing density and is referred to as amorphous cellulose. X-ray diffraction experiments indicate crystalline cellulose (Valonia ventricosa) has a space group symmetry a = 16.34 Å and b = 15.72 Å (Figure 3.3, Gardner and Blackwell 1974). The distance of one repeating unit, that is, one cellobiose unit is c = 10.38 Å (Figure 3.4). The unit cell contains eight cellobiose moieties. The molecular chains pack in layers that are held together by weak van der Waals’ forces. The layers consist of parallel chains of anhydroglucopyranose units and the chains are held together by intermolecular hydrogen bonds. There are also intramolecular hydrogen bonds between the atoms of adjacent glucose residues (Figure 3.4). This structure is referred to as cellulose I or native cellulose.
There are several types of cellulose in wood: crystalline and noncrystalline (as described above) and accessible and nonaccessible. Accessible and nonaccessible celluloses refer to the availability of the cellulose to water, microorganisms, and so on. The surfaces of crystalline cellulose are accessible but the rest of the crystalline cellulose is nonaccessible. Most of the noncrystalline cellulose is accessible but part of the noncrystalline cellulose is so covered with both hemicelluloses and lignin that it becomes nonaccessible. Concepts of accessible and nonaccessible cellulose are very important in moisture sorption, pulping, chemical modification, extractions, and interactions with microorganisms.
Figure 3.4 Planar projection of two cellulose chains showing some of the hydrogen bond between cellulose chains and within a single cellulose chain.
Cellulose II is another important type of cellulose used for making cellulose derivatives. It is not found in nature as cellulose II. Cellulose II is obtained by mercerization and regeneration of native cellulose. Mercerization is treatment of cellulose I with strong alkali. Regeneration is a treatment with carbon disulfide to form a soluble xanthate derivative. The derivative is converted back to cellulose and reprecipitated as cellulose II. Cellulose II has space group a = 8.01 Å, b = 9.04 Å (Figure 3.3), and c = 10.36 Å (Figure 3.4).
There is also cellulose III which is treatment of cellulose I with liquid ammonia at about −80°C followed by evaporation of the ammonia. Alkali treatment of cellulose III gives cellulose II. Cellulose IV is formed by heating cellulose III in glycerol at 260°C.
Another type of cellulose (based on the method of extraction from wood) often referred to in the literature is Cross and Bevan cellulose. It consists largely of cellulose I but also contains some hemicellulose. It is obtained by chlorination of wood meal, followed by washing with aqueous solutions of 3% sulfur dioxide (SO2) and 2% sodium sulfite (NaSO3).
Finally, there is another cellulose referred to as Kürschner cellulose also based on the method of isolation. Kürschner cellulose is obtained by refluxing wood meal three times for 1 h with a 1:4 (v/v) mixture of nitric acid and ethyl alcohol. The water washed and dried cellulose is referred to as Kürschner cellulose which also contains some hemicellul