mhurhangee/patent-ind-claim-en huggingface dataset:
A nonwoven fabric for an absorbent article, containing thermoplastic resin fibers, having a first surface and a second surface opposing the first surface, and comprising: a plurality of raised sections protruding in a direction from the second surface to the first surface; and a plurality of furrow sections depressed in the direction from the first surface to the second surface, wherein the raised sections are extended in a first direction (X) of planar directions of the nonwoven fabric , while being provided at predetermined intervals in a second direction (Y) that is perpendicular to the first direction (X) of the planar directions of the nonwoven fabric, the furrow sections are extended in the first direction (X), in the spaces between mutually adjacent raised sections in the second direction (Y), and each includes a first hollow section comprising a first bottom section located further in the direction of the second surface than the location of the first surface at the top section of the raised section , and a plurality of second hollow sections provided in a discontinuous manner in the first direction (X) in the first hollow section , formed as depressions opening into the first bottom section and comprising second bottom sections located further in the direction of the second surface than the first bottom section , a distance between a top section of a raised section and a top section of another raised section adjacent to the raised section is 0.5 to 2 mm, and a mean fiber size of fibers forming at least the raised sections of the nonwoven fabric is 10 to 30 μm. wherein the raised sections are extended in a first direction (X) of planar directions of the nonwoven fabric , while being provided at predetermined intervals in a second direction (Y) that is perpendicular to the first direction (X) of the planar directions of the nonwoven fabric, the furrow sections are extended in the first direction (X), in the spaces between mutually adjacent raised sections in the second direction (Y), and each includes a first hollow section comprising a first bottom section located further in the direction of the second surface than the location of the first surface at the top section of the raised section , and a plurality of second hollow sections provided in a discontinuous manner in the first direction (X) in the first hollow section , formed as depressions opening into the first bottom section and comprising second bottom sections located further in the direction of the second surface than the first bottom section , a distance between a top section of a raised section and a top section of another raised section adjacent to the raised section is 0.5 to 2 mm, and a mean fiber size of fibers forming at least the raised sections of the nonwoven fabric is 10 to 30 μm.
A computer-implemented algorithm adapted to propagate a boundary surface of a seed that is placed within a first region of interest of a visual representation of a 3D seismic data so as to follow a probable contour of a non-continuous data representation of at least part of said first region of interest, wherein said algorithm is executable to: (i) generate at least one characteristic parameter for a plurality of candidate events of said 3D seismic data within a predefined gate region located forward of said propagating boundary surface; (ii) generate and assign a probability characteristic for said plurality of candidate events based on said at least one characteristic parameter; (iii) determine a plurality of events of at least part of at least a second region of interest located substantially parallel to and conformant with at least part of said first region of interest; and (iv) propagate said boundary surface through said non-continuous data representation utilizing at least one constraint linking said propagating boundary surface and said plurality of events of at least part of said at least one second region of interest, wherein said at least one constraint is defined in accordance with said probability characteristics assigned to each one of said plurality of candidate events of at least part of said first region of interest; and wherein said at least one constraint is further adapted to provide an internal force between respective events of at least part of said first region of interest and at least part of said at least one second region of interest; and wherein said internal force between respective events is inversely proportional to said probability characteristics of each one of said plurality of events of at least part of said first region of interest. (i) generate at least one characteristic parameter for a plurality of candidate events of said 3D seismic data within a predefined gate region located forward of said propagating boundary surface; (ii) generate and assign a probability characteristic for said plurality of candidate events based on said at least one characteristic parameter; (iii) determine a plurality of events of at least part of at least a second region of interest located substantially parallel to and conformant with at least part of said first region of interest; and (iv) propagate said boundary surface through said non-continuous data representation utilizing at least one constraint linking said propagating boundary surface and said plurality of events of at least part of said at least one second region of interest,
An optical probe for analysing a soil located in an underground area, the optical probe comprising: a probe head insertable into the underground area to contact the soil, the probe head comprising a transparent wall defining a hollow chamber within the probe head , the transparent wall having a top extremity and a bottom extremity defining an optical path therebetween; a light source mounted in the hollow chamber , the light source being configured to generate an illumination beam towards the soil, the illumination beam passing through the transparent wall to irradiate the soil, thereby producing a resulting light emanating from the soil, a portion of the resulting light returning towards the probe head and being guided in the transparent wall by total internal reflection along the optical path ; a detector configured to receive the portion of the resulting light guided in the transparent wall and outputting an output signal representative of at least one characteristic of the soil, the detector preferably being a spectrometer; and an optical element mounted in the hollow chamber , near or at the top extremity of the transparent wall , the optical element guiding the portion of the resulting light guided in the transparent wall from the transparent wall to the detector . a probe head insertable into the underground area to contact the soil, the probe head comprising a transparent wall defining a hollow chamber within the probe head , the transparent wall having a top extremity and a bottom extremity defining an optical path therebetween; a light source mounted in the hollow chamber , the light source being configured to generate an illumination beam towards the soil, the illumination beam passing through the transparent wall to irradiate the soil, thereby producing a resulting light emanating from the soil, a portion of the resulting light returning towards the probe head and being guided in the transparent wall by total internal reflection along the optical path ; a detector configured to receive the portion of the resulting light guided in the transparent wall and outputting an output signal representative of at least one characteristic of the soil, the detector preferably being a spectrometer; and an optical element mounted in the hollow chamber , near or at the top extremity of the transparent wall , the optical element guiding the portion of the resulting light guided in the transparent wall from the transparent wall to the detector .
A method for preparing a light absorber of a solar cell comprising the steps of: (i) applying, on an electrode, a first solution containing an adduct of a compound represented by MXX' (Chemical Formula 1) and a polar aprotic solvent containing a NH or NCH 3 structure, (ii) subsequently applying a second solution containing a solvent and one or two types of compounds represented by AX" (Chemical Formula 2) on the electrode, the solvents of the first and second solutions being different; and (iii) heat-treating the resulting electrode: wherein M is a divalent metal cation; X, X' and X" are each independently the same or different halogen; and A is an organic cation represented by R 1 R 2 R 3 R 4 N + or (R 5 R 6 N=CH-NR 7 R 8 ) + , wherein R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , R 7 and R 8 are each independently hydrogen or C 1-10 alkyl, with the proviso that at least one of R 1 , R 2 , R 3 and R 4 is C 1-10 alkyl. (i) applying, on an electrode, a first solution containing an adduct of a compound represented by MXX' (Chemical Formula 1) and a polar aprotic solvent containing a NH or NCH 3 structure, (ii) subsequently applying a second solution containing a solvent and one or two types of compounds represented by AX" (Chemical Formula 2) on the electrode, the solvents of the first and second solutions being different; and (iii) heat-treating the resulting electrode:
A showcase strip lamp, comprising: a lamp tube , having a tube wall provided with a plurality of first light emitting holes arranged at intervals in the length direction; a circuit board , disposed in the lamp tube and having a front face facing the plurality of first light emitting holes ; a plurality of light sources , corresponding to each first light emitting hole and arranged on the circuit board; a heat conducting member , being contact-connected between the back of the circuit board and the inner wall of the lamp tube ; and an end cover assembly , disposed on ends of the lamp tube; wherein each first light emitting hole is correspondingly provided with a light shield , wherein an insulation baffle is provided between the front surface of the circuit board and the inner wall of the lamp tube , and the insulation baffle is provided with a second fixed connecting member that cooperates with the light shield , and there are two second fixed connecting member corresponding to each light shield , and the two second fixed connecting member are distributed on both sides of the second light emitting hole along the length direction of the lamp tube , characterized in that the first light emitting hole is a square hole, including two first sides parallel to the length direction of the lamp tube and two second sides perpendicular to the length direction of the lamp tube , the light shield is provided with two first fixed connecting members which are respectively engaged with the first side . a lamp tube , having a tube wall provided with a plurality of first light emitting holes arranged at intervals in the length direction; a circuit board , disposed in the lamp tube and having a front face facing the plurality of first light emitting holes ; a plurality of light sources , corresponding to each first light emitting hole and arranged on the circuit board; a heat conducting member , being contact-connected between the back of the circuit board and the inner wall of the lamp tube ; and an end cover assembly , disposed on ends of the lamp tube; wherein each first light emitting hole is correspondingly provided with a light shield , wherein an insulation baffle is provided between the front surface of the circuit board and the inner wall of the lamp tube , and the insulation baffle is provided with a second fixed connecting member that cooperates with the light shield , and there are two second fixed connecting member corresponding to each light shield , and the two second fixed connecting member are distributed on both sides of the second light emitting hole along the length direction of the lamp tube , characterized in that the first light emitting hole is a square hole, including two first sides parallel to the length direction of the lamp tube and two second sides perpendicular to the length direction of the lamp tube , the light shield is provided with two first fixed connecting members which are respectively engaged with the first side .
A heart pump assembly comprising: a rotor; a motor coupled to the rotor; an impeller blade coupled to the rotor such that rotation of the rotor causes the impeller blade to rotate and pump blood; a cannula having a distal end and a proximal end ; a distal projection coupled to the distal end of the cannula ; and a blood inlet including a plurality of apertures radially oriented and disposed about a circumference thereof; wherein the plurality of apertures include at least a first ring of apertures and a second ring of apertures , the second ring of apertures being closer to the proximal end than the first ring of apertures, and a first aperture (318a-c, 518a-e) in the first ring of apertures has a greater area than an area of a second aperture (320a-c, 520a-e) in the second ring of apertures , characterized in that the first aperture (318a-c, 518a-e) in the first ring of apertures and the second aperture (320a-c, 520a-e) in the second ring of apertures are oblong. a rotor; a motor coupled to the rotor; an impeller blade coupled to the rotor such that rotation of the rotor causes the impeller blade to rotate and pump blood; a cannula having a distal end and a proximal end ; a distal projection coupled to the distal end of the cannula ; and a blood inlet including a plurality of apertures radially oriented and disposed about a circumference thereof; wherein the plurality of apertures include at least a first ring of apertures and a second ring of apertures , the second ring of apertures being closer to the proximal end than the first ring of apertures, and a first aperture (318a-c, 518a-e) in the first ring of apertures has a greater area than an area of a second aperture (320a-c, 520a-e) in the second ring of apertures , characterized in that the first aperture (318a-c, 518a-e) in the first ring of apertures and the second aperture (320a-c, 520a-e) in the second ring of apertures are oblong.
Heat exchanger comprising a first header plate of an intake manifold, a second header plate of a distribution manifold and a heat-exchange core extending between the first header plate and the second header plate along a longitudinal direction (A), the heat-exchange core being delimited by a shell and comprising a plurality of tubes that are disposed successively next to one another in a transverse direction (B), each tube being able to cooperate with the header plates via through-orifices that are produced in each plate, characterized in that the shell has at least one longitudinal end with a straight edge configured to be in planar surface contact with at least one header plate in a contact zone , the surface contact being realized mainly in a plane perpendicular to the longitudinal direction (A), wherein the header plate has a perforated wall , in which the through-orifices are produced, and a frame arranged at the periphery of the perforated wall and configured to cooperate with the shell , and wherein the at least one longitudinal end with a straight edge of the shell comprises at least one protuberance which extends the shell along the longitudinal direction (A), wherein the plurality of tubes of the heat-exchange core comprises at least one first tube and a last tube that are disposed respectively at each transverse end of the plurality of tubes, characterized in that the shell comprises at least one first protuberance in contact with the first tube and a second protuberance in contact with the last tube , and in that the perforated wall has, in the vicinity of each through-orifice, a clearance formed by a rounded edge or a chamfer, each protuberance having a shape and dimensions complementary to those of the clearance . wherein the header plate has a perforated wall , in which the through-orifices are produced, and a frame arranged at the periphery of the perforated wall and configured to cooperate with the shell , and wherein the at least one longitudinal end with a straight edge of the shell comprises at least one protuberance which extends the shell along the longitudinal direction (A), wherein the plurality of tubes of the heat-exchange core comprises at least one first tube and a last tube that are disposed respectively at each transverse end of the plurality of tubes, characterized in that the shell comprises at least one first protuberance in contact with the first tube and a second protuberance in contact with the last tube , and in that the perforated wall has, in the vicinity of each through-orifice, a clearance formed by a rounded edge or a chamfer, each protuberance having a shape and dimensions complementary to those of the clearance .
An L-valine producing strain transformed to enhance expression of L-valine operon by entirely deleting or partially deleting or substituting a nucleotide sequence encoding a leader peptide in a regulatory region of ilvBN operon, wherein the leader peptide is represented by an amino acid sequence of SEQ ID No: 1.
A method , comprising: receiving a user selection of a trigger image from a set of trigger images displayed on a display of a mobile device , wherein the set of trigger images are digital representations of physical objects; transmitting , from the mobile device to a paired device , the trigger image; transmitting, from the mobile device to the paired device , a signal separate from the transmission of the trigger image, wherein the signal is to control the paired device to begin displaying the trigger image; scanning the trigger image being displayed on the paired device into the mobile device ; and displaying an augmented image of the trigger image on the mobile device . receiving a user selection of a trigger image from a set of trigger images displayed on a display of a mobile device , wherein the set of trigger images are digital representations of physical objects; transmitting , from the mobile device to a paired device , the trigger image; transmitting, from the mobile device to the paired device , a signal separate from the transmission of the trigger image, wherein the signal is to control the paired device to begin displaying the trigger image; scanning the trigger image being displayed on the paired device into the mobile device ; and displaying an augmented image of the trigger image on the mobile device .
A thermoplastic resin composition, comprising a polyester resin (A), a vinyl cyanide compound-conjugated diene compound-aromatic vinyl compound graft copolymer (B), an alpha-methylstyrene-vinyl cyanide compound copolymer (C), a maleimide-based polymer (D), and an amide-based lubricant (E).
Coaxial cable for the transmission of high currents in the range of several hundred to several thousand ampere in the high-frequency kilohertz range, with a first electrical conductor for a first current phase and a second electrical conductor arranged coaxially to the first for a second current phase, respectively formed by a number of bundles arranged in a ring shape made of numerous individual wires that are insulated against each other, with the first and second conductor being separated by an elastic insulating layer to prevent a voltage flash-over, characterised by the bundles of the first and/or second electrical conductor forming a mesh .
A textile fabric , in particular for protection against biological and chemical noxious substances and toxins, such as biological and chemical warfare agents, comprising a textile carrier layer and a first sheet-like piece made of activated carbon fibres, which is laminated onto the carrier layer , the fabric further comprising a second sheet-like piece made of activated carbon fibres, which is laminated onto the carrier layer in such a way that the respective adjacent edges of the two sheet-like pieces touch each other, the respective adjacent edges lying flush against each other along the entire contact length, or that the respective adjacent edges of the two sheet-like pieces overlap each other along the entire contact length, the two sheet-like pieces being laminated onto the carrier layer so as to be overlapping over 0.1% to 20% of their respective total areas, and the two sheet-like pieces being interconnected by the carrier layer . that the respective adjacent edges of the two sheet-like pieces touch each other, the respective adjacent edges lying flush against each other along the entire contact length, or that the respective adjacent edges of the two sheet-like pieces overlap each other along the entire contact length, the two sheet-like pieces being laminated onto the carrier layer so as to be overlapping over 0.1% to 20% of their respective total areas, and
A driving device for moving a movable equipment, comprising: - a motor-driven positioning unit ; - a central processing unit ; and - a user interface with at least one sensor unit ; wherein the motor-driven positioning unit is configured to carry out a movement (M) of a movable equipment; wherein the central processing unit is configured to control the movement of the equipment provided by the motor-driven positioning unit; wherein the at least one sensor unit comprises at least one touch sensitive area arranged on the movable equipment such that a force (F) is executable by a user in an acting direction when touching the touch sensitive area, which acting direction is in concordance with an intended moving direction; wherein the touch sensitive area is a deformable capacitive sensor arranged to detect and provide information about strain and direction of the force (F); wherein a surface of the touch sensitive area is deformable and the detected force (F) comprises a compressive force and shear force; wherein the at least one sensor unit is configured to provide control signals to the central processing unit in dependency from the force (F); and wherein the at least one sensor unit is configured to be fixedly attached to the movable equipment. - a motor-driven positioning unit ; - a central processing unit ; and - a user interface with at least one sensor unit ; wherein the motor-driven positioning unit is configured to carry out a movement (M) of a movable equipment; wherein the central processing unit is configured to control the movement of the equipment provided by the motor-driven positioning unit; wherein the at least one sensor unit comprises at least one touch sensitive area arranged on the movable equipment such that a force (F) is executable by a user in an acting direction when touching the touch sensitive area, which acting direction is in concordance with an intended moving direction; wherein the touch sensitive area is a deformable capacitive sensor arranged to detect and provide information about strain and direction of the force (F); wherein a surface of the touch sensitive area is deformable and the detected force (F) comprises a compressive force and shear force; wherein the at least one sensor unit is configured to provide control signals to the central processing unit in dependency from the force (F); and wherein the at least one sensor unit is configured to be fixedly attached to the movable equipment.