Abstract: A method for determining a property of at least one liquid and an assessment system for performing the method are described. The method includes providing at least a first liquid and a second liquid at least one of these includes a detectable marker; feeding a portion of the first liquid and a portion of the second liquid in succession into a channel to provide an interfacial contact between the first liquid portion and the second liquid portion; obtaining a row of signals by reading out intensity of the marker of a plurality of volume fractions of the first liquid portion and the second liquid portion located at an interface region comprising the interface between the first liquid portion and the second liquid portion and determining the property from the signal row.

Abstract: A method for determining an immunogenic response characteristic of a chemical substance. The method includes obtaining a biological liquid sample including the chemical substance, providing at least one prepared sample from at least a portion of the biological liquid sample, for each prepared sample, subjecting the at least a test portion of the prepared sample to a flow involving that the test portion of the prepared sample is in contact with a binding partner for the chemical substance, wherein the binding partner includes an optical marker, performing at least one read out of the optical marker and based thereon, determining a characteristic flow parameter of the marked binding partner in contact with the prepared sample and comparing the determined characteristic flow parameter with a respective reference value and determining the immunogenic response characteristic of the chemical substance.

Abstract: A method for coating a building panel, the method including applying a first coating fluid including an organic binder on a surface of the building panel to obtain at least one coating layer, and applying barrier components and photocatalytic particles, preferably TiO2, on the at least one coating layer. Also, such a building panel.

Abstract: An inhaler or add-on device for an inhaler for dispensing a medicament to be inhaled. The inhaler or add-on device has a housing (H) with an air inlet (A_I), and an air outlet (A_O) for outputting air to be inhaled by a user. The housing (H) defines a flow path (FP) between the air inlet (A_I) and air outlet (A_O), and a passive acoustic element (PAE) is arranged in this flow path (FP) inside the housing (H). The passive acoustic element (PAE) has a structure having one or more structured gaps arranged to be passed by an air flow and it is dimensioned such that air flow passing it will generate sound (S) with pre-determined characteristics depending on the air flow speed. This allows acoustic monitoring of air flow passing the first passive acoustic element (PAE) external to the housing (H) by capturing and processing sound generated.

Abstract: An inhaler or add-on device for an inhaler for dispensing a medicament to be inhaled. The inhaler or add-on device has a housing (H) with an air inlet (A_I), and an air outlet (A_O) for outputting air to be inhaled by a user. The housing (H) defines a flow path (FP) between the air inlet (A_I) and air outlet (A_O), and a passive acoustic element (PAE) is arranged in this flow path (FP) inside the housing (H). The passive acoustic element (PAE) has a structure having one or more structured gaps arranged to be passed by an air flow and it is dimensioned such that air flow passing it will generate sound (S) with pre-determined characteristics depending on the air flow speed. This allows acoustic monitoring of air flow passing the first passive acoustic element (PAE) external to the housing (H) by capturing and processing sound generated.

Abstract: A method for coating a building panel, including applying a first coating fluid including an organic binder on a surface of the building panel to obtain at least one coating layer, and applying barrier components and photocatalytic particles, preferably TiO2, on the at least one coating layer. Also, a building panel formed by the method.

Abstract: The invention concerns a method, an assembly and a system for determining a characteristic property of a molecular interaction. The method includes providing a liquid sample including a particle capable of being in a state of equilibrium and in a state of non-equilibrium. The particle includes a marker in at least one of its state of equilibrium and state of non-equilibrium. The method further includes bringing the particle in a state of non-equilibrium by subjecting the sample to a condition jump comprising a jump in temperature and/or pressure; reading out the marker as a function of time during at least a portion of a relaxation time for said particle, and determining said characteristic property of said molecular interaction.

Abstract: An ultrasound imaging probe (204) includes a transducer array (210). The transducer array includes one or more transducer elements (212). The ultrasound imaging probe further includes an illumination component (218) and an optical imaging component (220). The ultrasound imaging probe further includes an elongated housing (302) with a long axis (304). The elongated housing includes a proximal end region (306) affixed to a handle (308) and a distal end region (310) with a tip region (312). The elongated housing houses the transducer array, the illumination component, and the optical imaging component in the distal end region.

Abstract: An ultrasound probe includes a housing. The housing includes a first end, which internally houses: a transducer array and a tracking sensor, and a second end. The housing further includes a second portion extending between the first and second ends. The second portion houses: a first electrically conductive path extending from the transducer array through the second portion to the second end, which is opposite the first end, and a second electrically conductive path extending from the tracking sensor through the second portion to the second end. The probe further includes a single electro-mechanical connector with a physical interface configured to transfer signals carried by the first and second electrically conductive members off the probe. The probe further includes a single cable that routes the first and second electrically conductive members from the second end to the electro-mechanical connector.

Abstract: A method of applying a NOx degrading composition on a concrete element, including providing a concrete element having a surface, and applying a composition including photocatalytic titanium dioxide particles dispersed in a continuous phase on the surface of said concrete element. Also, a concrete element having NOx degrading properties. Also, a concrete element having photocatalytic titanium dioxide particles dispersed thereon.

Abstract: The present invention relates to a photocatalytic concrete product and a method to produce a photocatalytic concrete product. In first aspect the invention relates to method of producing photocatalytic concrete product, said concrete product being photocatalytic by containing nano sized photocatalytic particles embedded in an section including a first surface, said first surface forming an exterior surface when the photocatalytic concrete product is used as cover/lining. The method comprises: providing a not-yet-set concrete product having a first surface, applying a dispersion containing nano sized photocatalytic particles, such as titanium dioxide nanoparticles a solvent including a humectant onto said first surface of the not-yet-set concrete product.

Abstract: An ultrasound imaging system (102) includes a transducer array (108) with a two-dimensional non-rectangular array of rows (110) of elements, transmit circuitry (112) that actuates the elements to transmit an ultrasound signal into a field of view, receive circuitry (114) that receives echoes produced in response to an interaction between the ultrasound signal and a structure in the field of view, and a beamformer that processes the echoes, thereby generating one or more scan lines indicative of the field of view.

Abstract: A system (502) includes an elongate ultrasound imaging probe (504) with a long axis and a top side that extends along the long axis. The elongate ultrasound imaging probe includes an elongate tubular handle (606; 1606), a head (1608), an elongate tubular shaft (608; 1610) between the elongate tubular handle and the head, and a transducer array (514) disposed in the head and configured to transmit in a sagittal plane, which is a plane that cuts through the long axis of the elongate tubular shaft, only in a direction extending out from the top side. The elongate tubular handle is both not centered on the elongate tubular shaft and not shifted down in the sagittal plane away from the top.

Abstract: An ultrasound imaging system (102) includes a transducer array (108) with a two-dimensional array of rows (110) of transducer elements (114). The transducer elements of each row extend along a long axis (116). The rows are parallel to each other. The transducer array includes a non-rectangular set of active transducer elements. The ultrasound imaging system further includes transmit circuitry (118) that actuates the transducer elements to transmit an ultrasound signal. The ultrasound imaging system further includes receive circuitry (120) that receives echoes produced in response to an interaction between the ultrasound signal and a structure and received by the transducer elements. The ultrasound imaging system further includes a beamformer that processes the echoes and generates one or more scan lines indicative of the structure.

Abstract: The present invention relates to a hand-held volume measuring device configured for being clamped onto part of a urinary catheter and for measuring the volume of urine miming through the urinary catheter over a period of time.

Abstract: The present disclosure relates to a laminated vacuum insulated glass (VIG) unit (1) comprising: a vacuum insulated glass (VIG) unit (11) comprising at least two thermally tempered glass sheets (11a, 11b) separated by a plurality of support structures (12) distributed in a gap (13) between the tempered glass sheets (11a, 11b), and a lamination layer (2) arranged between one of the thermally tempered glass sheets (11a, 11b) of the vacuum insulated glass (VIG) unit (11) and a further sheet (3). The thickness (Th1) of the lamination layer (2) is between 0.25 mm and 3 mm, such as between 0.4 mm and 3 mm, for example between 0.7 mm and 2.4 mm, and the lamination layer thickness varies (VAR1) with at least 0.1 mm such as at least 0.2 mm, e.g. at least 0.3 mm between the further sheet (3) and the vacuum insulated glass (VIG) unit (11). The disclosure additionally relates to use of a method and use of a system for providing laminated vacuum insulated glass (VIG) units (200).

Abstract: A 3-D endocavity ultrasound probe includes an instrument holder having a channel configured to guide an instrument. The 3-D endocavity ultrasound probe further includes an elongate shaft with a center line, a first side, a second opposing side with a recess configured to receive the instrument holder over the center line, and a drive system disposed in the first side and not over the center line. The 3-D endocavity ultrasound probe further includes a probe head disposed at an end of the shaft. The probe head includes a rotatable support and a transducer array coupled to the rotatable support. The drive system is configured to rotate the rotatable transducer array support thereby rotating the transducer array. The channel extends along the center line thereby providing an instrument path in-plane with a sagittal plane of the elongate shaft.

Abstract: An ultrasound imaging system include a console with transmit circuitry configured to generate an excitation electrical pulse that excites transducer elements of a probe to produce an ultrasound pressure field and configured to receive an echo signal generated in response to the ultrasound pressure field interacting with tissue. The console further includes receive circuitry configured to convert the echo signal into an electrical signal, and an echo processor configured to generate a live ultrasound image based on the electrical signal into. The console further includes a tracking processor configured to extract, in real-time, a feature common to both the live ultrasound image and previously generated volumetric image data from at least the live ultrasound image, and register, in real-time, the live ultrasound image with previously generated volumetric image data based on the common feature extracted in real-time to create the fused image. A display displays the fused image.

Abstract: A system (1100) includes an ultrasound imaging probe (304) with an elongate shaft (312) including an outer perimeter housing (331), two ends (328, 330) and a long axis (320). The system further includes a channel (326) that extends along the direction of the long axis, is part of the outer perimeter housing, and is configured as a recess of the outer perimeter housing. The system further includes a handle (310) affixed to one of the ends of the elongate shaft. The system further includes a transducer array (322) disposed at another of the ends of the elongate shaft. The transducer array includes one or more transducer elements (324).

Abstract: The present disclosure relates to a laminated vacuum insulated glass (VIG) unit (1) comprising: a vacuum insulated glass (VIG) unit (11) comprising at least two thermally tempered glass sheets (11a, 11b) separated by a plurality of support structures (12) distributed in a gap (13) between the tempered glass sheets (11a, 11b), and a lamination layer (2) arranged between one of the thermally tempered glass sheets (11a, 11b) of the vacuum insulated glass (VIG) unit (11) and a further sheet (3). The thickness (Th1) of the lamination layer (2) is between 0.25 mm and 3 mm, such as between 0.4 mm and 3 mm, for example between 0.7 mm and 2.4 mm, and the lamination layer thickness varies (VAR1) with at least 0.1 mm such as at least 0.2 mm, e.g. at least 0.3 mm between the further sheet (3) and the vacuum insulated glass (VIG) unit (11). The disclosure additionally relates to use of a method and use of a system for providing laminated vacuum insulated glass (VIG) units (200).