New report assesses deep geothermal energy in the UK  British Geological Survey

Product development: properties and resources  British Geological Survey

Sea floor: marine geoscience  British Geological Survey

Urban geoscience  British Geological Survey

What is citizen science?  British Geological Survey

Burrow-detecting devices could protect flood defences  British Geological Survey

Government and agencies  British Geological Survey

Scientific report published  British Geological Survey

Pay and benefits  British Geological Survey

International geoscience  British Geological Survey

Natural flood management: is geology more important than trees?  British Geological Survey

BGS launches digital version of UK legacy geothermal catalogue  ThinkGeoEnergy - Geothermal Energy News

BGS completes first mapping expedition to Ascension Island  British Geological Survey

BGS breaks ground on geothermal heating system in Keyworth HQ, UK  ThinkGeoEnergy - Geothermal Energy News

2024 Mine Water Energy Symposium  British Geological Survey

Moving stones: faults, slopes and sediments  British Geological Survey

BGS launches project to enhance value of ground investigation data  Ground Engineering

BGS geological data sets now available on Ordnance Survey hub  Ground Engineering

Washington DC among US cities most vulnerable to space weather, scientists say  The Royal Astronomical Society

BGS scientist announced as Scottish Government policy fellow  British Geological Survey

Visit by Indonesian Embassy representatives to BGS  British Geological Survey

Delivering a sustainable urban future for Europe through geoscience  British Geological Survey

Laboratory life: my work experience week at BGS  British Geological Survey

BGS data product licence fees to rise  British Geological Survey

BGS to help deliver International Centre of Excellence on Sustainable Resource Management  British Geological Survey

International geoscience research and development  British Geological Survey

Local MP checks in on development of new geothermal 'living laboratory' in Nottinghamshire  British Geological Survey

Update released for BGS open-source database software, ETL Helper  British Geological Survey

Funding awarded for study on hydrogen storage potential in the East Midlands  British Geological Survey

New appointments to BGS Science Advisory Committee  British Geological Survey

Electromagnetic geophysics in Japan: a conference experience  British Geological Survey

Forty years and counting: new topsoil data provides most extensive snapshot of environmental pollution effects  British Geological Survey

2024 BGS summer placements scheme  British Geological Survey

What lies beneath Liverpool?  British Geological Survey

New underground observatory open for research  British Geological Survey

BGS Open Day 2024  British Geological Survey

New community launched to support effective management of the subsurface  British Geological Survey

Geochemistry and health in the Kenyan Rift Valley  British Geological Survey

In the crystal structure of the title compound, inter­molecular N—H⋯N and N—H⋯O hydrogen bonds form a two-dimensional supra­molecular network along the ac plane, contributing to the cohesion of the crystal.

In the title compound, the symmetric phosphate derived from para-chloro­phenol and phospho­ric acid, two of the three aromatic moieties adopt syn-orientation towards the P&z-dbnd;O bond while the last chloro­phenol ring is pointing away from this bond. In the extended structure, C—H⋯O bonds connect the individual mol­ecules into sheets lying perpendicular to the crystallographic b axis.

The crystal structure of a neo­pentyl­oxypillar[5]arene with two pyridine mol­ecules encapsulated in the macrocyclic cavity is reported.

The title compound was synthesized by the condensation between tri­fluoro­methyl­aniline and di­chloro­salicyl­aldehyde by nucleophilic addition, forming a hemiaminal, followed by a dehydration to generate an imine. The compound crystallizes in an ortho­rhom­bic Pbca (Z = 8) space group with a dihedral angle of 44.70 (5)° between the two aromatic rings. In the crystal, the mol­ecules pack together to form a zigzag pattern along the c axis.

A recently discovered β polymorph of 1,3-diacetylpyrene has turned out to be a prominent negative thermal expansion material. Its unique properties can be linked to anharmonic oscillations in the crystal structure. The onset and development of anharmonic behavior have been successfully tracked over a wide temperature range by single-crystal X-ray diffraction experiments. Sufficient diffraction data quality combined with modern quantum crystallography tools allowed a thorough analysis of the elusive anharmonic effects for a moderate-scattering purely organic compound.

This study explores the high-pressure behavior of benzo[a]pyrene, revealing two previously unknown polymorphs at 4.8 and 7.1 GPa. These findings enhance our understanding of the structural dynamics and stability of polycyclic aromatic hydro­carbons under extreme conditions.

(Time-resolved) macromolecular crystallography at the new ESRF-ID29 beamline is described.

The results of the seventh blind test of crystal structure prediction are presented, focusing on structure generation methods.

The results of the seventh blind test of crystal structure prediction are presented, focusing on structure ranking methods.

Incommensurate phase of potassium guaninate monohydrate is the first example of a modulation in purine derivatives and of a high-pressure incommensurate crystal structure to be solved for an organic compound.

We show that the interplay of multiple magnetic sublattices in Er2CuMnMn4O12 leads to four magnetic phase transitions characterized by the onset of ferrimagnetic order, spin-reorientation, spin canting, and the polarization of Er ions. While we elucidate numerous features of this complex magnetic system, the exact nature of the low-temperature coupling between erbium and manganese, and the origin of a k = (0, 0, ½) modulation, remain intriguing topics for future studies.

A unique phase transition, twinning and ferroelastic domain structure in [NH3(CH2)2NH3]2[ZnBr4]Br2 is found. The new additional domain structure is observed at the phase transition on heating, which is preserved after cooling to room temperature.