#Paracetamol IV Market Report
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Paracetamol IV Market Demand, Trends, Share, Revenue, Opportunities and Future Competition: SPER Market Research

Paracetamol IV (intravenous paracetamol) is a formulation of the well-known pain reliever and fever reducer paracetamol (often referred to as acetaminophen) designed for intravenous injection. It is mostly used in clinical settings to treat moderate to severe pain, particularly after surgery, and to lower fever in hospitalized patients. Because the intravenous version acts quickly, it is very beneficial for postoperative patients who require prompt and effective pain control. It is a safer alternative to opioids since it reduces the demand for medications to manage pain.
According to SPER market research, ‘Global Paracetamol IV Market Size- By Indication, By Application, By End Use - Regional Outlook, Competitive Strategies and Segment Forecast to 2034’ state that the Global Paracetamol IV Market is predicted to reach 1150.18 million by 2034 with a CAGR of 3.72%.
Drivers:
The primary reasons for the growth of the intravenous paracetamol market are its use in pain management, particularly in post-operative care, and fever control. In particular, for those who are unable to take oral medications, intravenous paracetamol is a great therapy option that eliminates pain rapidly and efficiently. It is increasingly being used as part of a multimodal approach to pain management in combination with NSAIDs and opioids, in line with the increasing need for comprehensive pain relief choices. The growing demand for non-opioid alternatives, especially as the number of surgical procedures increases, benefits the industry. Intravenous paracetamol improves patient outcomes and speeds up recovery by precisely relieving pain and reducing opioid dependence. Countries.
Restraints:
The potential for side effects like hepatotoxicity and anaphylaxis is a major barrier in the global market for intravenous paracetamol, which makes doctors use it cautiously. Ongoing research is necessary to determine acceptable dosage guidelines and ensure long-term safety. Manufacturers must focus on post-marketing surveillance and healthcare professional training in order to boost trust in its use.
Request a Free Sample Report: https://www.sperresearch.com/report-store/paracetamol-IV-market.aspx?sample=1 The strong need for pain management in surgical and hospital settings is driving the North American market for intravenous paracetamol. Growing surgical procedures, regulatory support, and sophisticated healthcare infrastructure all fuel market expansion. Its position is strengthened by strategic alliances and formulation advancements, with an increasing emphasis on non-opioid substitutes.
Some significant market players are Abbott, Aurobindo Pharma, Bristol-Myers Squibb Company, Cipla Inc., Dr Reddy's Laboratories Ltd., Lupin, Mallinckrodt (Mallinckrodt Pharmaceuticals).
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Paracetamol IV Market Growth
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Paracetamol IV Market: Addressing Acute Pain Management Needs
The Paracetamol IV Market has gained prominence as a critical solution for managing acute pain and fever, particularly in hospital settings. With its rapid onset and efficacy, intravenous (IV) paracetamol has become a preferred choice in various medical procedures and treatments. This article explores the market's key trends, segmentation, growth drivers, and leading companies, providing insights for decision-makers.
Market Overview
According to SkyQuest’s Paracetamol IV Market report, the market is currently valued at USD XX, with a projected CAGR of 3.97%. The growth of this market is driven by the increasing prevalence of postoperative pain, rising cases of chronic illnesses, and growing demand for non-opioid pain management alternatives.
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Market Segmentation
By Application:
Postoperative Pain: Widely used to manage pain after surgeries.
Fever Reduction: Effective in controlling fever in hospital settings.
Other Acute Pain Conditions: Used in treating various acute pain conditions, including trauma and injury.
By End-User:
Hospitals: The primary users of IV paracetamol, particularly in emergency rooms and post-surgical care units.
Clinics: Smaller clinics utilize IV paracetamol for outpatient procedures.
Ambulatory Surgery Centers (ASCs): Rising use of IV paracetamol in day surgeries.
Key Growth Drivers
Rising Surgical Procedures: An increase in the number of surgeries globally has driven demand for postoperative pain management solutions, boosting the use of IV paracetamol.
Shift Towards Non-Opioid Pain Management: Growing concerns over opioid addiction have led to increased preference for non-opioid alternatives like IV paracetamol.
Technological Advancements in IV Delivery Systems: Innovations in drug delivery technologies have made IV paracetamol more accessible and effective.
Increasing Prevalence of Chronic Diseases: The rise in conditions requiring pain management, such as cancer and arthritis, is contributing to market growth.
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Leading Companies in the Market
SkyQuest’s Paracetamol IV Market report identifies several major players, including:
Mallinckrodt Pharmaceuticals
Fresenius Kabi
Baxter International Inc.
Pfizer Inc.
Grifols, S.A.
Piramal Enterprises Ltd.
Sagent Pharmaceuticals
Terumo Corporation
AuroMedics Pharma LLC
Hikma Pharmaceuticals
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Challenges and Opportunities
Challenges in the Paracetamol IV Market include potential side effects and stringent regulatory requirements. However, opportunities exist in emerging markets, where demand for pain management solutions is on the rise, particularly in regions with increasing healthcare infrastructure investments.
Future Outlook
The Paracetamol IV Market is expected to witness steady growth as healthcare providers continue to seek non-opioid alternatives for pain management. The development of new formulations and expanded use in outpatient settings will further drive market expansion.
The Paracetamol IV Market is positioned to grow as demand for effective pain management solutions continues to rise. Companies that innovate in IV drug delivery systems and expand their product portfolios will be well-equipped to lead this market. For deeper insights, explore SkyQuest’s Paracetamol IV Market report.
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Paracetamol IV Market Worth $994.23 Million By 2030
The global paracetamol IV market size is expected to reach USD 994.23 million by 2030, registering a CAGR of 3.97% from 2022 to 2030, according to a new report by Grand View Research, Inc. The rising prevalence of chronic disorders that requires pain management is expected to facilitate the growth of the industry during the forecast period. The enhanced usage of acetaminophen to reduce the…
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Paracetamol IV Market Size Worth $994.23 Million By 2030
Paracetamol IV Market Growth & Trends The global paracetamol IV market size is expected to reach USD 994.23 million by 2030, registering a CAGR of 3.97% from 2022 to 2030, according to a new report by Grand View Research, Inc. The rising prevalence of chronic disorders that requires pain management is expected to facilitate the growth of the industry during the forecast period. The enhanced…
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Bioconjugation among Metallopharmaceuticals-Open Access Publishers
This review pertains to an effort to notify the importance of metal binding of naturally occurring molecules. Metallopharmaceutical science is a huge discipline of multifarious applications. In due course of design of metallic drugs one has to rely upon biological relevance of the compound. Sometimes the target activity is lost into toxicity. Hence, the association of a biomolecule or modified bio-compound coordinated with metallic system is the essence of bioconjugation and is the need of hour. Bio-conjugated metallic complexes are always praised for better action. Some diseases have been exemplified in this review and a comprehensive way of presentation has been established throughout the text.
Keywords: Bioconjugation; AD; Diabetes; Cancer; Antioxidant
Introduction
Bioconjugation is a meticulous chemical strategy to form a stable covalent link between two molecules, at least one of which is a biomolecule. Synthesis of bioconjugates involves a variety of challenges, ranging from the simple and nonspecific use of a fluorescent dye marker to the complex design of antibody drug conjugates. Antibody-drug conjugates such as Brentuximab vedotin and Gemtuzumab ozogamicin are examples of bioconjugation, and are an active area of research in the pharmaceutical industry [1]. A promising strategy to enable the use of metal nuclides in antibody-targeted imaging and therapy is to design molecules that coordinate to the metal ion and preclude its release in-vivo [2].
A necessary prerequisite of any ligand that binds a metal to form a contrast agent is that the resulting contrast agent be stable so as to prevent the loss of the metal and its subsequent accumulation in the body. Other considerations include an ability to reversibly bind water, which in turn increases it contrastability and decreases the dose level required. This ability is clearly important since the interaction between any two nuclear spins through space decreases at a rate equal to the reciprocal of the distance raised to the sixth power [3].
Hence, metals in medicine are used in organic systems for diagnostic and treatment purposes. Inorganic elements are also essential for organic life as cofactors in enzymes called metalloproteins. When metals are scarce or high quantities, equilibrium is set out of balance and must be returned to its natural state via interventional and natural methods. Metals play a vital role in an immense number of extensively differing biological processes. Some of these processes are quite specific in their metal ion requirements, in that only certain metal ions in specified oxidation states can accomplish the necessary catalytic structural requirement (Figure 1) [4].
One of the principal themes of bioinorganic chemistry is the synthesis of metal complexes that have the ability to mimic the functional properties of natural metalloproteins [5,6]. Proteins, some vitamins and enzymes contain metal ions in their structure involving macromolecular ligands. Inorganic and bioinorganic chemistry are the major contributing fields of medical science and human health witnessed by the past half century. Today, metal-containing therapeutics constitutes a multi-billion dollar industry. Recent investigations in bioinorganic chemistry include the use of metal ions as synthetic scaffolds for the preparation of small molecule therapeutics.
Insulin Mimicry via Metallic Compounds
In a continued interest towards metallopharmaceuticals (Figure 2) Sodium vanadate and derivatives of bismaltolato- oxovanadium (IV) complexes (BMOV) have been reported to lower levels of blood sugar in diabetic patients [7]. In other words it may be said that scientific community is busy with copying a hormone called as insulin to develop an ultimate treatment of diabetes. Recent under trial experiments with Gold and Silver based glucose level stabilizing agents have further unfurled seek for more efficacy [8,9].
Antidiabetic drugs may be either insulin injections which are used in serious cases of diabetes or oral hypoglycemic drugs, and are suitable for most adult patients. Different hypoglycemic drugs are available in market. These drugs may be classified as the following: Sulphonylureas: increase insulin secretion and help to reduce blood glucose levels. But sulphonylurea may cause weight gain, hypoglycemia and allergic reactions. They are contraindicated in case of pregnancy, lactation and diabetes type 1. They act by affecting the pancreatic β-cells stimulates the movement of insulin-containing secretory granules to the cell surface then into circulation. Biguanides (metformin): They prevent production of glucose in the liver, so improve the body's sensitivity to insulin. They may cause temporary nausea and/or diarrhea, loss of appetite and metallic taste. They are contraindicated with kidney or liver diseases and heart problems. Alpha Glucosidase Inhibitor (Acarbose): They may cause diarrhea, gas, constipation, or stomach pain. Hence, the search for more intelligent/efficient antihyperglycemic or antihypoglycemic agents continues. Dissemination of such area of research expects clinically approved use of metal containing compounds for identifying new medicinal agents from throughout the periodic table to be used as antidiabetic and antioxidant tools.
Biotransformation of Metallic Compounds
Elemental Medicine is nowadays accepted as a rapidly developing field busy with developing novel therapeutic and diagnostic metal complexes. Advances in biotransformation of metal complexes and targeting, with particular reference to platinum anticancer, gold anti-arthritic, and bismuth antiulcer drugs has remained active goal since decades [10,11]. Studies of iron and copper complexes have shown that they can be more active in cell destruction as well as in the inhibition of DNA synthesis, than the uncomplexed organic ligands [12]. Hence, the field of inorganic chemistry in medicine may usefully be divided into two main categories: firstly, ligands as drugs which target metal ions in some form, whether free or protein- bound; and secondly, metal-based drugs and imaging agents where the central metal ion is usually the key feature of the mechanism of action [13,14]. In addition to metal complexes of novel ligands, compounds of metals with already known organic pharmaceuticals like aspirin, paracetamol, metformin, etc. have gained keen interest [15]. It has been seen that their biological relevance increases on complexing with the respective ligands (organic medicinal chelates). Research has shown significant progress in utilization of transition metal complexes as drugs to treat several human diseases like carcinomas, lymphomas, infection control, anti-inflammatory, diabetes, and neurological disorders [16].
Cancer is the second most frequent cause of death in the world. The discovery of antitumor activity of cisplatin began a search for other metal complexes with cytotoxic properties against cancer cells [17]. The instant information regarding anticancer activities of the ten most active metals: arsenic, antimony, bismuth, gold, vanadium, iron, rhodium, titanium, gallium and platinum have been already updated. Despite the efficacy of cancer treatment using cisplatin, the use is still limited due to severe side effects such as neuro-, hepato- and nephro-toxicity and by resistance phenomena [18]. Gold (III)-dithiocarbamato complexes have recently gained increasing attention as potential anticancer agents because of their strong tumor cell growth- inhibitory effects, generally achieved by exploiting non-cisplatin- like mechanisms of action [19].
The potential applications of Mo-based complexes in medicinal chemistry as metallopharmaceuticals in treating diseases such as cancer and tumors [20] indicate the emphasis of significant approach of non-platin anticancer agents. Ruthenium compounds are highly regarded as potential drug candidates. The compounds offer the potential of reduced toxicity and can be tolerated in-vivo. The various oxidation states, different mechanism of action, and the ligand substitution kinetics of ruthenium compounds give them advantages over platinum- based complexes, thereby making them suitable for use in with promising cytotoxic profiles [21]. The role of transition metals as micronutrients as well as co-factors of several metallo- enzymes in living systems further corroborates the rationale behind synthesis and evaluation of novel transition-metal based complexes for their anticancer effects [22]. Future use of substituted organic ligands and their metal complexes would hence bring forth effective anticancer agents and would depend on structural modifications as would afford them better potency against a number of tumors/cancers, together with low toxicity and better solubility.
Antioxidant Properties of Metal Complexes
An antioxidant is a molecule that inhibits the oxidation of other molecules. Oxidation is a chemical reaction that can produce free radicals, leading to chain reactions that may damage cells. Antioxidants terminate these chain reactions. Transition metal complexes have been shown to possess encouraging antioxidant activities [23]. Co(II), Ni(II), Cu(II) and Mn(II) complexes of 6-bromo-3-(3-(4-chlorophenyl)acryloyl)-2H-chromen-2-one have been recently found to be effective antioxidants [24]. Generally, antioxidant activity of complexes are determined in- vitro by the hydroxyl radical scavenging, DPPH, NO and reducing power methods [25]. The chemical principles of methods based on biological oxidants comprise superoxide radicals scavenging (O2•-); hydroxyl radical scavenging (HO.); hydrogen peroxide scavenging (H2O2); peroxyl radical scavenging (ROO.) and nitric oxide scavenging (NO.) [26]. Among the non-biological testing scavenging of 2, 2-diphenyl-1-picrylhydrazyl radical (DPPH« assay) and scavenging of 2, 2-azinobis-(3-ethylbenzothiazoline- 6-sulphonate) radical cation (ABTS assay) are mostly experimented. Furthermore, thiobarbituric acid reactive substances (TBARS) and protein carbonyl assays have also been the subject of great attention in this context [27,28]. The novel electrochemical approach to antioxidant activity assay based on the reaction with stable radical 2,2'-diphenyl-1-picrylhydrazyl (DPPH) monitored by the rotating disk electrode (RDE) method has been described advantageous in comparison with usual spectrophotometrical assay since it can be applied to colored compounds and in a wide range of concentrations [29].
Dementia Relevant Metallic Systems
Alzheimer's disease currently affects over 5.4 million Americans with $236 billion spent annually on the direct costs of patient care [30]. Studies on antioxidant drugs would surely open successful doors to treat AD patients. Seeking for potential antioxidants, chemical behavior of Quercetin as antioxidant and metal chelator has become the subject of intense experimental research [31]. Under comparative antioxidant studies of Co(II), Ni(II), Cu(II) and Mn(II) complexes of 6-bromo-3-(3- (4-chlorophenyl)acryloyl)-2H- chromen-2-one Ni(II) complex shows superior antioxidant activity than other complexes [32]. Commonly it is has been observed that metal complexes may serve as better free radical scavengers [33-35] as compared to the respective free ligands. In some cases antioxidant complexes have rendered a well pronounced larvicidal activity [36]. Hence, synthetic chemistry is playing revolutionary role in human beings by synthesizing novel compounds by different techniques [37]. The target of scientific community has been thus to prepare bioactive compounds relevant to anticancer, antioxidant and enzyme inhibition studies at both the in-vitro as well as in-vivo fronts.
Biomarkers
Biochemical pathways are famously complex and interconnected, so it’s no surprise that depictions of them have to be simplified (Figure 3). Increasingly, molecular and cell biologists have been coming to terms with the fact that it is hard to decide a label for some protein as a green fluorescent protein (GFP) and expect it to carry on as before. Putting a star next to its name on the whiteboard, or renaming it ‘Target-GFP’, doesn't capture what’s really going on. It is very, very hard to observe living systems at the molecular level without perturbing the very things trying to see, but a great deal of effort is now going into trying to minimize these effects [38]. Under the light shed for evaluation of antidiabetic and antioxidant research, besides developing biomarkers treatment strategies have also been the subject of huge interest. The current status of the aimed field in terms of literature survey is discussed below: (Figure 3).
Diabetes and Bio-Conjugation
With the aim to continue the enthusiastic search of metallopharmaceutical drugs against diabetes [39,40], thiazolidinediones (TZD) have been reported to be effective anti-diabetic agents that improve insulin sensitivity through the activation of the nuclear receptor and adipocyte-specific transcription factor, peroxisome proliferator-activated receptor gamma (PPAR-γ) [41]. Recently it has been found that Selective PPARγ modulators (sPPARγM) retain insulin sensitizing activity but with minimal side effects compared to traditional TZDs agents [42]. A combination of virtual docking, Surface plasmon resonance (SPR)-based binding, luciferase reporter and adipogenesis assays have been suggested to enlighten the interaction mode, affinity and agonistic activity of L312 to PPARγ in-vitro, respectively [43]. The pharmaceutical isoforms having anti-diabetic effect act by improving the biochemical parameters, this effect is probably due to the high content of polyphenolic compounds found in the formulations [44].
In due course of finding a successful antihyperglycemic candidate, metallic compounds like Vanadium complexes have been well demonstrated in streptozotocin-induced (STZ) diabetic rats and was found that that the vanadate and vanadyl forms of vanadium possessed a number of insulin-like effects in various cells [45]. In the current times basic aspect of diabetes including insulin molecular characterization, chemical basis and its secretion, hypoglycemic drugs and their mode of action associated with diabetes are among the main quests being searched [46]. In an approach of comparative antidiabetic studies of isoforms of BMOV having different metallic centres, it has been found that none so far has surpassed bis (maltolato) oxovanadium (IV) (BMOV) for glucose- and lipid-lowering in an orally available formulation [47]. It is hence clear that ligand and metal selection should be meticulously done to formulate efficient antidiabetic compound.
The bioconjugate chemistry of antihyperglycemic metallic complexes have presented worth some results. The conspicuous application of chromium (III)-amino acid complex against nicotinamide-streptozotocin induced diabetic Wistar rats showed that supplementation of Cr(III)-complex in 8 weeks decreased the blood glucose level in range 46.446-79.593% [48]. Similarly, vanadyl (IV) adenine complex has been introduced as a new drug model for the diabetic complications [49]. Therefore it is expected to be worthy if derivatives of biogenic ligands are formed to design a ligand of favourable properties. For instance, zinc metal-organic framework (MOF) synthesized under mild hydrothermal routes using 5-aminotetrazole and methyl-2- amino-4-isonicotinate anionic ligands has been reported to possess a well pronounced in-vivo antidiabetic activity and low in-vitro cell toxicity [50]. With the same effort,
N,N-Dimethylbiguanide hydrochloride complexes of Neodymium introduced as oral glucose-lowering agent to treat non-insulin dependent diabetes mellitus and to act as antioxidant has shown prominent effect of functional group position in the respective ligands [51].
The medical properties of naturally occurring compounds such as chromones, flavonoids and coumarins are expected to enhance when complex with metal ions suggest the importance of bioconjugate chemical drug research. These complexes can be successfully used in the satisfactory treatment of diseases such as diabetes mellitus [52]. In recent years regulation of the enzymatic activity of human aldose reductase (HAR) has been the main focus of investigation, due to its potential therapeutic application in Diabetes mellitus (DM). Docking behaviour of human aldose reductase (HAR) with different ligands namely such as embelin (Figure 4), copper-embelin complex, zinc- embelin complex, vilangin and quercetin evaluated along with their putative binding sites using Discovery Studio Version 3.1 has shown that that vilangin has maximum interaction energy (-48.94kcal/mol) and metformin with the least interaction energy (19.52kcal/mol) as compared to the other investigated ligands [53]. Therefore, it is strongly suggested that such type of study outcomes might provide new insight in understanding these seven ligands, as potential candidates for human aldose reductase (HAR) inhibitory activity & for the prevention of Diabetes mellitus (DM) associate disorders.
Based on combined in-vitro and in-vitro antioxident evaluation of resveratrol (Figure 5) and molecular modeling studies, it has been indicated that ligand-target interactions/ biological activities are largely dependent on enantiomerism of a target compound [54].
Antioxidant Activity and Bioconjugation
Antioxidant studies are carried out at the cost of various standard methods [55]. Metal dyshomeostasis is known to be linked with numerous diseases such as Alzheimer's and Parkinson’s diseases, cancer, etc. Recent studies have indicated that some of the metallic compounds of certain ligands may be active while some render inactivity when antioxidant activity test was carried out using picryhydrazyl (DPPH) [56]. On one hand polyphenols have been suggested as efficient antioxidant and anti inflammatory candidates [57] and on the other hand their metallic compounds are expected to exhibit enhanced antioxidant activity due to flexible oxidation state of a metallic centre [58]. Nickel complex of the non-steroidal antiinflammatory drug diflunisal (Hdifl) resulted in the additive antioxidant effect of the respective ligand [59].
The antioxidant activity of the ligand, bis(N-(3-methoxy- salicylidene)-4-amino -phenyl)ether (H2L) and its metal complexes Mn(III) and Cu(II) complexes determined by DPPH, superoxide, hydroxyl and ABTS radical scavenging methods in- vitro, suggest that the Cu(II) complex exhibits greater antioxidant activity against DPPH, superoxide, hydroxyl and ABTS radicals than those of the ligand and the Mn(III) complex [60]. The biotin- 8-hydroxyquinoline conjugates and their metal complexes with manganese(II), cobalt(II), nickel(II), copper(II) and zinc(II) have also been well studied for the possible application in oxidative stress [61]. Similar fashion has been observed with the metallic compounds of
p-coumaric acid [62], 2-(3-amino-4, 6-dimethyl-1Hpyrazolo[ 3,4-b]pyridin-1-yl)aceto-hydrazide [63], chromone Schiff base (Figure 6) [64], etc.
Another important aspect of the antioxidant studies is the strength of a complex not to undergo ROS generation to render a mechanistic action without harming a normal mammalian cell e.g., Ag complex of 1, 10-phenanthroline [65] has shown an interesting behaviour in this context.
Sugar and Urea Derivative Based Complexes
Urea derivatives bonding through the nitrogen, sulfur and oxygen atoms to the central metal ion form an important class of biologically active ligands. They have been receiving considerable attention due to their pharmacological properties, anti tubercular activity, antiviral potentiality, activity against protozoa small pox and certain kinds of tumour [66]. The chelating characters of thiosemicarbazone have been studied very widely with different metal ions, their complexes with transition and non transition elements were reported.
The ability of sugars to sequester metals is of current interest in the possible development of metal chelates for clinical use and as models for biologically important compounds. Amino sugars form Schiff base with salicylaldehyde and other aromatic aldehydes and only few reports of transition metal complexes of these ligands have been found. Metal chelation could be a rational therapeutic approach for interdicting Alzheimer's disease (AD) pathogenesis. Amyloid plaques that are clusters of proteins and metal ions accumulated between neurons (nerve cells) in Alzheimer's patients’ brains. Enhancing the targeting and efficacy of metal-ion chelating agents through sugar appended ligand is a recent strategy in the development of the next generation of metal chelators.
Conclusion
From the overall survey it has been established that biomolecules impart great effects in metallic systems to develop molecules of interest. Metallopharmaceuticals are engaged in designing heme-oxygenase and nitric oxide synthase models to bring forth highly demanded gasotransmitter efficiency applicable at various bio-essential routes. Under these circumstances scientific community should fabricate bioconjugated systems to form compounds of human beneficial and multi-purposeful.
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For more articles in Novel Approaches in Drug Designing & Development
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Pain & Palliative Medicine Rotation
I spent Weeks 4 and 5 with the Pain & Palliative Medicine Department. It was an opportunity to engage with issues pertaining to end-of-life care and to see how culture and class influence medical decision-making for patients with terminal illness. Palliative medicine is a relatively new sub-specialty in India; it didn’t become its own distinct department at St. John’s until 2008. Most low- and middle-income countries, India included, still have little access to palliative care. The St. John’s website describes the philosophy of Palliative Medicine as follows 1:
“Palliative Medicine is a multidisciplinary approach to specialized medical care for people with life-limiting illnesses. It focuses on providing people with relief from the symptoms, pain, physical stress, and mental stress of the terminal diagnosis. The goal of such therapy is to improve quality of life for both the person and their family.”
As such, the focus is on holistic symptom management (esp. pain management) and improving quality of life, rather than on curative interventions – a concept that several attendings remarked is still difficult for patients and families in India (or in the U.S., for that matter…) to accept. Palliative Medicine is a consultative service for the most part, and a majority of the terminal inpatients we rounded on were cancer patients. Still, approx. 80% of the caseload consisted solely of pain management for non-terminal patients – an indication, according to our attending Dr. T, that palliative care is still under-utilized as a service.
The nature of the specialty means that witnessing tragedy is inevitable: a 38 year old lady battling Stage IV ovarian cancer for years and finally succumbing; a small 6 year old boy with an aggressive form of metastatic Wilm’s tumor; colon cancer causing bowel obstruction and extreme abdominal pain; lung cancer making breathing difficult. The families by and large handled their adversity with grace, and I was often moved to see them advocate for their loved ones so adamantly – to ensure that pain and suffering would be minimized even if a cure was elusive or impossible.
Pain management was an important aspect of daily rounds; a lot of care was taken to ensure that dosages of pain meds (usu. opioids) were appropriately titrated. The Palliative team followed the so-called ‘WHO Ladder’ for pain management, whereby pain meds would be escalated from non-opioids (ex. NSAIDS, paracetamol) to weak opioids (ex. tramadol) to strong opioids (ex. morphine, fentanyl) in a stepwise fashion. Given the seriousness of the current opioid crisis in the U.S., this made me wonder about how opioids and other drugs were regulated in India. According to one of the attendings, the Indian Narcotics Bureau designates only certain hospitals as being able to prescribe strong opioids. And within each institution, only Registered Medical Practitioners (RMPs) who have received special training/certification can prescribe opioid medications. Kerala has the most opioid-dispensing institutions (~100-150), with North India having significantly fewer (only a few dozen, according to Dr. T). Bangalore has eight, of which St. John’s is one. There is an interesting tension between wanting to minimize patient exposure to the risk of narcotic dependence on the one hand whilst also striving to ensure that patients have appropriate access to pain meds on the other. A few patients we saw had actually come to St. John’s from out-of-state because they couldn’t otherwise obtain prescriptions for oral morphine 2 to manage their chronic pain 3.
Complicating things further, Dr. T also noted that titrating pain meds was sometimes frustrating because many of the pharma companies that produce generic meds aren’t strictly regulated and have questionable quality assurance. As a result, you can’t always be certain whether a particular drug/pill contains the full listed dose. Thus, if a patient doesn’t respond to a particular dosage/regimen, it’s often unclear whether it’s due to lack of efficacy or whether the pill the patient was given simply doesn’t contain the proper dose. One patient who was given tramadol in its generic form continued to complain of persistent pain; instead of upping the dose, Dr. T decided to try switching to a brand name formulation, and the patient’s pain immediately came down. Referring to some of the generic formulations of commonly prescribed oral pain meds, Dr. T wryly mused, “Is it chalk powder? It could be chalk powder. We don’t know.” On top of all this, the Indian government actively applies pressure on MDs to prescribe generics as a cost-saving measure, to the consternation of doctors, who argue that they cannot possibly provide optimum care if they can’t even be sure of the contents of the generics they are pressured to prescribe.
This got me wondering about how generics were regulated in the U.S., given that many of the generic meds that we prescribe and use are manufactured and sourced abroad in places like India. How does the U.S. ensure that our own markets aren’t flooded with questionable generics? I did some quick digging, and it seems that in order for foreign manufacturers to export their product to the U.S., they have to pass muster with the FDA’s Drug Quality Sampling and Testing Program 4. According to Consumer Reports: “...inspectors from the U.S. and India have ramped up efforts to make sure that plants in India making the drugs exported to the U.S. adhere to the strict manufacturing standards and regulations required by the FDA” 5. As much as we love to collectively complain about inefficient government bureaucracy, these revelations have made me grateful that we have institutions in place to ensure the public interest, as a check on rapacious private commercial practices.
Maybe the biggest takeaway from this rotation was how starkly it underscored inequalities in healthcare access. Unless a patient is very wealthy, healthcare (and esp. care for terminal illness) is often financially ruinous. Every citizen has access to free care at government hospitals, of course, but the general consensus is that these public facilities are under-resourced, under-staffed, and sub-par in terms of care quality. Many patients who can afford to do so therefore seek care at private facilities like St. John’s, where they pay out-of-pocket for every service rendered. Services can be abruptly halted if bills aren’t promptly paid. One patient with Stage III cervical cancer had her chemo and IV pain meds discontinued because of unpaid bills totalling 80,000 Rs. The mother of the aforementioned boy with metastatic Wilm’s tumor had apparently sold land and taken out loans to fund the treatment of her son, only to find out that the tumor was incurable. How she will manage financially after her son passes is unclear. In a market-based, for-profit system like India’s, are there ways to ensure greater healthcare equity and to make access less dependent on individual or familial wealth? 6
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[1] See: http://www.stjohns.in/Departments/Palliative%20Medicine/Overview ↩︎
[2] An interesting factoid: oral morphine is ridiculously cheap here – only ~1-2 Rs per pill! ↩︎
[3] Although the question of whether and to what extent opioids should be used to manage chronic pain in the first place is a contentious one. ↩︎
[4] See: https://www.fda.gov/Drugs/ScienceResearch/ucm407277.htm ↩︎
[5] See: https://www.consumerreports.org/cro/news/2014/04/are-generic-drugs-made-in-india-safe/index.htm ↩︎
[6] As with healthcare in the U.S., the problems and their solutions are, in part, a function of politics and political will. India spends less than 2% of its GDP on healthcare, and there is no robust system of health insurance to ensure high quality healthcare for all of its citizens. Certainly greater public sector investment in healthcare could be part of the solution. ↩︎
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Paracetamol IV Market Size Worth $994.23 Million By 2030
Paracetamol IV Market Growth & Trends The global paracetamol IV market size is expected to reach USD 994.23 million by 2030, registering a CAGR of 3.97% from 2022 to 2030, according to a new report by Grand View Research, Inc. The rising prevalence of chronic disorders that requires pain management is expected to facilitate the growth of the industry during the forecast period. The enhanced…
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Paracetamol IV Market Size Worth $994.23 Million By 2030
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Paracetamol IV Market Growth & Trends The global paracetamol IV market size is expected to reach USD 994.23 million by 2030, registering a CAGR of 3.97% from 2022 to 2030, according to a new report by Grand View Research, Inc. The rising prevalence of chronic disorders that requires pain management is expected to facilitate the growth of the industry during the forecast period. The enhanced…
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Paracetamol IV Market Size Worth $994.23 Million By 2030
Paracetamol IV Market Size Worth $994.23 Million By 2030
Paracetamol IV Market Growth & Trends The global paracetamol IV market size is expected to reach USD 994.23 million by 2030, registering a CAGR of 3.97% from 2022 to 2030, according to a new report by Grand View Research, Inc. The rising prevalence of chronic disorders that requires pain management is expected to facilitate the growth of the industry during the forecast period. The enhanced…
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