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| | ADP Basic information | | Uses |
| Melting point | >145oC (dec.) | | Boiling point | 196°C | | density | 2.49±0.1 g/cm3(Predicted) | | storage temp. | -20°C | | solubility | DMSO (Slightly, Heated), Methanol (Slightly), Water (Slightly) | | pka | pK2: 4.2(-1);pK3: 7.20(-2) (25°C) | | form | Solid | | color | White to Off-White | | Merck | 13,155 | | BRN | 67722 | | InChIKey | XTWYTFMLZFPYCI-KQYNXXCUSA-N | | EPA Substance Registry System | Adenosine 5'-(trihydrogen diphosphate) (58-64-0) |
| Safety Statements | 24/25 | | WGK Germany | 3 | | RTECS | AU7467000 | | F | 10-21 | | HS Code | 29349990 |
| Uses | Adenosine-5'-diphosphate (ADP) is a central component of energy storage, metabolism, and signal transduction in vivo. It serves as a precursor for ATP and, in this capacity, is utilized in a wide number of cellular processes, including respiration, biosynthetic reactions, motility, and cell division. | | Uses | Adenosine 5′-diphosphate (5′-ADP or ADP) was used as a test compound for studying the endothelium-dependent vascular response in salt sensitive (DS) and salt resistant Dahl rats (DR). The product was used to study the different P2-purinergic receptor subtypes on canine vascular smooth muscle and endothelium. | | Definition | ChEBI: A purine ribonucleoside 5'-diphosphate having adenine as the nucleobase. | | Agricultural Uses | Adenosine diphosphate (ADP) is a phosphorus
compound formed during the breakdown of adenosine
triphosphate (ATP) by dephosphorylation. It is made of
adenine, ribose, five carbon sugars and two phosphate
groups. ADP acts as a source of energy in
biochemical reactions. | | Biological Activity | adenosine-5'-diphosphate is an agonist of purinergic receptors.purinergic receptors, also known as purinoceptors, are a family of plasma membrane molecules that are found in almost all mammalian tissues. within the field of purinergic signalling, these receptors have been implicated in learning and memory, locomotor and feeding behavior, and sleep. more specifically, purinergic receptors are involved in several cellular functions, such as proliferation and migration of neural stem cells, vascular reactivity, apoptosis and cytokine secretion. | | Biochem/physiol Actions | Adenosine 5′-diphosphate induces human platelet aggregation and non-competitively blocks the stimulated human platelet adenylate cyclase. | | in vitro | adenosine 5'-diphosphate (adp) is an adenine nucleotide having two phosphate groups esterified to the sugar moiety at the 5’ position. adp is formed through dephosphorylation of adenosine 5’-triphosphate (atp) by atpases and can be converted back to atp by atp synthases. adp can also be metabolized to adenosine 5’-monophosphate (amp) and 2’-deoxyadenosine 5’-diphosphate (dadp). adp can modulate several receptors, such as activating certain purinergic receptors and inhibiting others, inhibiting rat ecto-5’nucleotidase (ki = 0.91 nm), as well as regulating the phosphorylation status of amp-activated protein kinase [1, 2]. | | Enzyme inhibitor | This adenine nucleotide (FWfree-acid = 504.16 g/mol; CAS 58-64-0; Molar Absorptivity = 15,400 M–1cm–1, l = 259 nm) is a product in ATPdependent transphosphorylases, phosphohydrolases, and molecular motors; as such, ADP often inhibits these enzymes. Enzymatic Phosphorylation: ADP is a substrate for adenylate kinase (Reaction: ADP2– + MeADP " MeATP2– + AMP) and other enzymes that stabilize ATP concentrations in prokaryotes [e.g., acetate kinase (Reaction: MgADP + Acetyl-phosphate ! MeATP2– + Acetate)] and eukaryotes [e.g., pyruvate kinase (Reaction: MgADP + Phosphoenolpyruvate ! MgATP2– + Pyruvate), creatine kinase (Reaction: MgADP + Creatine-phosphate ! MgATP2– + Creatine), arginine kinase (Reaction: MgADP + Arginine-phosphate ! MgATP2– + Arginine), and nuclecleotide diphosphate kinase (Reaction: ADP2– + MgGTP2– " MgATP2– + GDP2–)]. ATP Synthase: ADP is a primary substrate for the FOF1 ATP synthase (Reaction: MgADP + Pi + High Chemiosmotic Gradient Energization State ! MgATP2– + Low Chemiosmotic Gradient Energization State). ADP can also become entrapped within a catalytic site of the rotary motor, when proton motive is low, absent, or uncoupled, and its inhibitory action under such conditions is believed to prevent wasteful hydrolysis of ATP (Reaction: MgATP2– + H2O ? MgADP + Pi). Metal Ion Binding Properties: As a polyanion, ADP not only binds physiologic divalent cations Mg2+ and Ca2+, but also forms reversible complexes with Mn2+ and Co2+. For reversible complexation of ADP2– with a metal ion Me2+, (Reaction: ADP2– + Me2+ ! MeADP), Kformation = [MeADP]/[ADP2–]free[Me2+]free, indicating that [MeADP]/[ADP2– ]free = Kformation ′ [Me2+]free. In many cases, metal-free ADP is not a substrate and instead acts as a revesible inhibitor. Good experimental design therefore demands rigorous control of free metal ion concentration to control the ratio of metal-bound and metal-free forms. When exposed to Cr(III) at elevated temperature, ADP also forms ligand exchange-inert complexes with Cr3+. Platelet Aggregation: ADP is also a well-known activator of platelet aggregation, as mediated by the ADP receptors P2Y1, P2Y12 and P2X1. Upon conversion to adenosine by ecto-ADPases, platelet activation is inhibited by means of adenosine receptors. Target(s): Hydrogenomonas facilis ribulosediphosphate (RuDP) carboxylase and NADH-, ATP-dependent CO2 fixation; platelet (Na+/K+)-ATPase; hydrogen-ion transport in chloroplasts; pyruvate dehydrogenase kinase; 5-oxo-L-prolinase, or L-pyroglutamate hydrolase; a-NADHdependent reductase, rat liver microsomes; nitrogenase; Trypanosoma cruzi hexokinase; maize leaf acetyl-coenzyme A carboxylase; rat brain mitochondrial calcium-efflux; sarcoplasmic reticulum Ca2+ ATPase; Na+-Na+ exchange mediated by (Na+/K+)ATPase reconstituted into liposomes; nitrate and nitrite assimilation in Zea mays under dark conditions; PGE1-activated platelet adenylate cyclase in rats and rabbits; mitochondrial F1-ATPase, inactive complex formed upon binding ADP at a catalytic site; ATP-sensitive K+ channels, frog skeletal muscle; human 5-phosphoribosyl-1pyrophosphate synthetase; Crithidia fasciculata glutathionylspermidine synthetase; myosin V ATPase; cystic fibrosis transmembrane conductance regulator (ABC transporter) via its adenylate kinase activity; V type ATPase/synthase. | | IC 50 | 67 nm for p2x2/3 | | Purification Methods | It is characterised by conversion to the acridine salt by addition of alcoholic acridine (1.1g in 50mL), filtering off the yellow salt and recrystallising from H2O. The salt has m 215o(dec), max 259nm ( 15,400) in 2O. [Baddiley & Todd J Chem Soc 648 1947, 582 1949, cf LePage Biochemical Preparations 1 1 1949, Martell & Schwarzenbach Helv Chim Acta 39 653 1956]. [Beilstein 26 III/IV 2369.] | | references | 1. azran, s.,frster, d.,danino, o., et al. highly efficient biocompatible neuroprotectants with dual activity as antioxidants and p2y receptor agonists. j. med. chem. 56(12), 4938-4952 (2013).2. jarvis, m.f.,bianchi, b.,uchic, j.t., et al. [3h]a-317491, a novel high-affinity non-nucleotide antagonist that specifically labels human p2x2/3 and p2x3 receptors. journal of pharmacology and experimental therapeutics 310(1), 407-416 (2004). |
| | ADP Preparation Products And Raw materials |
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