Acid Stocks List

Related ETFs - A few ETFs which own one or more of the above listed Acid stocks.

Acid Stocks Recent News

Date Stock Title
May 30 MIRM Shareholders May Be More Conservative With Mirum Pharmaceuticals, Inc.'s (NASDAQ:MIRM) CEO Compensation For Now
May 30 PTEN Patterson-UTI Energy, Inc. (NASDAQ:PTEN) Looks Like A Good Stock, And It's Going Ex-Dividend Soon
May 29 ILMN Illumina, Inc. (ILMN) Bernstein Strategic Decisions Conference (Transcript)
May 29 FF FutureFuel CEO McKinlay to retire in September
May 29 FF Tom McKinlay to Retire Effective September 30, 2024; FutureFuel Undertaking National Search for a New Chief Executive Officer
May 29 ILMN Illumina drives genomic testing as standard of care in oncology through collaborative research presented at ASCO
May 29 CRSP CRISPR Therapeutics AG (CRSP) Is a Trending Stock: Facts to Know Before Betting on It
May 29 MIRM Long-Term Data from Mirum’s LIVMARLI Studies in ALGS and PFIC to be Presented at EASL Congress
May 29 CRSP CRISPR Therapeutics to Participate in Upcoming Investor Conferences
May 28 ILMN Illumina releases 2023 Corporate Social Responsibility Report
May 28 MIRM Mirum's (MIRM) Livmarli Aids Sales but Overdependence Concerns
May 28 AMRN Amarin Receives National Reimbursement for VAZKEPA® (icosapent ethyl) in Greece and Announces Exclusive Marketing and Commercialization Agreement with Vianex S.A.
May 28 MIRM When Will Mirum Pharmaceuticals, Inc. (NASDAQ:MIRM) Become Profitable?
May 25 ILMN One Illumina Insider Raised Their Stake In The Previous Year
May 24 LOOP Loop Industries to Attend 2024 KeyBanc Capital Markets Industrials and Basic Materials Conference Taking Place May 28-30th, 2024
May 24 ILMN Guardant Stock Climbs As Cancer Test Strides Towards FDA Ok
Acid

An acid is a molecule or ion capable of donating a hydron (proton or hydrogen ion H+), or, alternatively, capable of forming a covalent bond with an electron pair (a Lewis acid).The first category of acids is the proton donors or Brønsted acids. In the special case of aqueous solutions, proton donors form the hydronium ion H3O+ and are known as Arrhenius acids. Brønsted and Lowry generalized the Arrhenius theory to include non-aqueous solvents. A Brønsted or Arrhenius acid usually contains a hydrogen atom bonded to a chemical structure that is still energetically favorable after loss of H+.
Aqueous Arrhenius acids have characteristic properties which provide a practical description of an acid. Acids form aqueous solutions with a sour taste, can turn blue litmus red, and react with bases and certain metals (like calcium) to form salts. The word acid is derived from the Latin acidus/acēre meaning sour. An aqueous solution of an acid has a pH less than 7 and is colloquially also referred to as 'acid' (as in 'dissolved in acid'), while the strict definition refers only to the solute. A lower pH means a higher acidity, and thus a higher concentration of positive hydrogen ions in the solution. Chemicals or substances having the property of an acid are said to be acidic.
Common aqueous acids include hydrochloric acid (a solution of hydrogen chloride which is found in gastric acid in the stomach and activates digestive enzymes), acetic acid (vinegar is a dilute aqueous solution of this liquid), sulfuric acid (used in car batteries), and citric acid (found in citrus fruits). As these examples show, acids (in the colloquial sense) can be solutions or pure substances, and can be derived from acids (in the strict sense) that are solids, liquids, or gases. Strong acids and some concentrated weak acids are corrosive, but there are exceptions such as carboranes and boric acid.
The second category of acids are Lewis acids, which form a covalent bond with an electron pair. An example is boron trifluoride (BF3), whose boron atom has a vacant orbital which can form a covalent bond by sharing a lone pair of electrons on an atom in a base, for example the nitrogen atom in ammonia (NH3). Lewis considered this as a generalization of the Brønsted definition, so that an acid is a chemical species that accepts electron pairs either directly or by releasing protons (H+) into the solution, which then accept electron pairs. However, hydrogen chloride, acetic acid, and most other Brønsted-Lowry acids cannot form a covalent bond with an electron pair and are therefore not Lewis acids. Conversely, many Lewis acids are not Arrhenius or Brønsted-Lowry acids. In modern terminology, an acid is implicitly a Brønsted acid and not a Lewis acid, since chemists almost always refer to a Lewis acid explicitly as a Lewis acid.

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