A Research on Polyhedral Treatment of Constipation in Cattle Found In the Rural Areas of Rajasthan

Introduction

The foundation of the rural economy is cattle farming, which also supports social and cultural ideals including ancestor rites, lobola (bridal) payments, purification, and enduring rural lifestyles. Par¬ticularly in small-scale cooperative farming areas, cow farming is a component of livestock production and serves as a catalyst for improving household food security and reducing poverty [1].

According to a common definition, ethnoveterinary medications are those that are utilised in ethnic group areas for folk skills, be-liefs, knowledge, practises, and procedures connected to animal health and to treat a variety of ailments. The general scientific term for conventional animal health care that offers inexpensive substitutes for allopathic medications is ethnoveterinary medicine. The use of conventional ethnoveterinary medicines offers a more affordable, practical, and long-lasting substitute to synthetic drugs and pharmaceuticals [2,3].

For traditional community-based methods to veterinary care to continue, ethnoveterinary knowledge is extremely important. This is especially significant in the backdrop of developing and grow¬ing nations, where regional economies and food security depend greatly on animal health, particularly that of livestock [4].

Traditional veterinary medicine is referred to modern science as ethno veterinary medicine. Research in these areas is frequently conducted as part of a community-based strategy to enhance ani¬mal health and offer fundamental veterinary services in rural areas. The care of people's animals is also covered by ethnoveterinary medicine, including their knowledge, abilities, techniques, prac¬tices, and beliefs. Often the only option for farmers to treat sick animals, ethnoveterinary medicine can play a significant role in animal production and the development of rural livelihoods. These medications offer beneficial substitutions for and enhancements to western-style veterinary treatment [5-8].

Figure 1: Ayurveda Herbs and Species

Current research and potential future developments on the signifi¬cance of an ethnoveterinary method for studying animal health are intended to inform and spur new lines of inquiry. In order to pro¬mote animal health, sustainable development calls for a deliberate effort to integrate indigenous knowledge systems with modern re¬search This is true not only in rural locations where access to con¬ventional veterinary healthcare may be restricted, but also in light of the rise in antibiotic resistance and demand for complementary and alternative medicines to improve the health of both livestock and companion animals [9,10].

Application of Ethno veterinary

A local animal healthcare system known as ethno-veterinary med¬icine is one that incorporates the customary values, information, expertise, procedures, and practices of a particular civilization [11].

• It includes the spiritual components related to the therapeutic methods as well as the conventional management of veterinary diseases and their treatments.

• The method used to create ethnoveterinary medications differs depending on the active substances to be extracted, the delivery route, and the intended medical use (prophylaxis or therapies).

• Livestock owners and ranchers mix medical plants, animals, minerals, and other inorganic ingredients to create infusions, de-coctions, powders, drips, fumes, pastes, and ointments. Because synthetic drugs are expensive or because of staffing is¬sues in agriculture extension services, ethno veterinary medicine is frequently unavailable. It is seen as being basic, environmentally friendly, contextually suitable, and based on culture. As a result, ethno-veterinary medicine is crucial to the system of care for an¬imals.

Methodology

Preformulation Study

In reformulation study it was observed that all the ingredients were stable with each other and didn't respond to any incompatibility like discoloration, acidification and liquefaction etc.

                                                                       Table 1: formula for polyhedral bolus

Procedure

• All the required ingredients (herbs and seeds) were collected from respective plants.

• The collected ingredients (herbs) were dried completely in a few days by sunlight.

• All dried herbs and seeds were grinded into powder.

• On the other side made sugar syrup whose concentration is 66.6%w/v.

• Grinded powder was mixed in sugar in sugar syrup as required to make up 133.32gm mixture.

• The mixture was rolled and given proper shapes of bolus.

• The prepared mixture was packed and labeled.

Results and Discussion

Evaluation Test

Organoleptic Property

• Color: black color

• Odor : Characteristic odor

• Taste : sweet like taste

• Shape & size: The size and shape of the bolus can be as per choice. In this case the shape was cylindrical.

Hardness

The force needed to break a bolus across its diameter is referred to as the hardness. Using a Monsanto Hardness tester, the hardness of each bolus was assessed. The hardness was found to be in the range of 2.25 kg/cm2 - 3.5 kg/cm2.

Friability

It is an indicator for tablet mechanical strength. It was determined using the Roche friabilator. The friabilator was loaded with a pre-weighed bolus. With each revolution, the plastic chamber of a fri¬abilator, which rotated at 25 revolutions per minute, dropped the bolus six inches away. For at least 4 minutes, the bolus was rotated in the friabilator. After being dusted and reweighed, the test bolus weight loss was a measure of friability and was stated as a percent¬age as follows:

%Friability = loss in weight / Initial weight x 100

= (0.5/120) x 100

= 0.41 %

Weight Variation

I.P. procedure for uniformity of weight was followed. Twenty bo¬lus were taken and their weight was determined individually and collectively on a digital weighing balance. The average weight of one bolus was determined from the collective weight.

                                                                                 Table 2: Weight variation test

Disintegration Test

The test was carried out on 6 bolus using the apparatus specified in I.P.-1996 with distilled water as a disintegration media at 37°C ± 2°C and the time for complete disintegration of the bolus with no palatable mass remaining in the apparatus was measured in. The time taken for complete disintegration was 7 minutes.

Discussion

In order to reduce the negative effects associated with using cur-rently available modern treatments for constipation, the current investigation involved the creation and evaluation of polyherbal bolus. The herbal components utilised in this formulation include properties that are biologically active and exhibit anti-oxidant, bacteriostatic, spasmolytic, cytotoxicity, anti-gastric ulcer, as well as a reduction in water absorption, making them useful as a treat¬ment for anorexia and constipation. The bolus had been prepared and administered to animals traditionally. In this research a modi¬fied form of bolus was prepared and various evaluation tests were carried out on them to check their primary characteristics and suit- ability to animals. The complete disintegration value of 7 minutes suggested that the bolus would be easily soluble in the gut after administration. Other evaluation parameters also yielded desirable results. There is no restriction of season or place provided medic¬inal plants and other ingredients are available locally. A few me¬dicinal plants if not available can be substituted with other plants based on experience or by consulting with local herbal healers.

Conclusion

The extent of veterinary medicine is broad, encompassing all do¬mesticated and wild animal species, as well as a large spectrum of ailments that may impact various species. The aforementioned de¬scription makes it seem like an ethnoveterinary approach would be a different technique to treat anorexia and constipation in calves. Although the length of the treatment is a little bit longer than with traditional antimicrobial therapy, it is more cost-effective than the earlier one, making it advantageous for struggling farmers in rural areas. In addition to other issues with antibiotic use, such as anti¬microbial resistance, adverse effects from herbal medicine are not a major worry. Therefore, the use of an ethnoveterinary approach may be encouraged for the treatment of as many diseases as possi¬ble, in addition to calf anorexia and constipation.

Acknowledgement

We are grateful to all the sincere and extremely helping friends for their support and help for the completion of work. Last but not the least, we are thankful to all those who cooperated and helped us directly or indirectly to carry out this work.

Ethical Approval

Ethical approval was not required for this letter. All data used is publicly accessible.

Funding

There were no external sources of funding for this research

Financial Support and Sponsorship

Nil.

Declaration of Competing Interest

All authors do not report any conflicts of interest in the writing of this letter.

References

1. Maikhuri, R. K., Nautiyal, S., Rao, K. S., & Saxena, K. G. (1998). Role of medicinal plants in the traditional health care system: a case study from Nanda Devi Biosphere Reserve. Current Science, 152-157.
2. Shackleton, C. M., Shackleton, S. E., & Cousins, B. (2001). The role of land-based strategies in rural livelihoods: the con- tribution of arable production, animal husbandry and natural resource harvesting in communal areas in South Africa. De­velopment Southern Africa, 18(5), 581-604.
3. Dovie, D. B., Shackleton, C. M., & Witkowski, E. T. (2006). Valuation of communal area livestock benefits, rural liveli­hoods and related policy issues. Land use policy, 23(3), 260-271.
4. McCorkle, C. M. (1986). An introduction to ethnoveterinary research and development.
5. McGaw, L. J., & Eloff, J. N. (2008). Ethnoveterinary use of southern African plants and scientific evaluation of their me­dicinal properties. Journal of Ethnopharmacology, 119(3), 559-574.
6. Van der Merwe, D., Swan, G. E., & Botha, C. J. (2001). Use of ethnoveterinary medicinal plants in cattle by Setswana-speak-ing people in the Madikwe area of the North West Province of South Africa. Journal of the South African Veterinary Associ­ation, 72(4), 189-196.
7. Akhtar, M. S., Iqbal, Z., Khan, M. N., & Lateef, M. (2000). Anthelmintic activity of medicinal plants with particular ref­erence to their use in animals in the Indo–Pakistan subconti­nent. Small Ruminant Research, 38(2), 99-107.
8. SriBalaji, N., & Chakravarthi, V. P. (2010). Ethnoveterinary practices in India-A review. Veterinary world, 3(12), 549.
9. Bolhuis, G. K., Zuurman, K., & Te Wierik, G. H. P. (1997). Improvement of dissolution of poorly soluble drugs by sol­id deposition on a super disintegrant. II. The choice of super disintegrants and effect of granulation. European journal of pharmaceutical Sciences, 5(2), 63-69.
10. Kintsch KN,Hagen A, Manz E . (1979). US Patent. 4,134,943.
11. Heinemann Hand Rotte W.(1976). US Patent. 3,885,026.