mhurhangee/patent-ind-claim-en huggingface dataset:
A method of displaying an ultrasound image, the method comprising: displaying on a display a marker indicating an orientation of a probe for scanning a pregnant woman's body ; determining a direction of a fetus's head based on a first ultrasound image (511-514) obtained by scanning the pregnant woman's body in a first direction using the probe while a further marker attached to the probe is positioned in the orientation indicated by the marker displayed on the display ; determining a direction of a fetus's spine based on a second ultrasound image (521-524) obtained by scanning the pregnant woman's body in a second direction using the probe ; determining an orientation of the fetus within the pregnant woman's body based on the directions of the fetus's head and the fetus's spine and the orientation of the probe; displaying an image representing the orientation of the fetus together with an ultrasound image obtained by scanning the pregnant woman's body ; wherein the ultrasound image is an ultrasound image obtained by scanning the pregnant woman's body in the second direction, and wherein the image representing the orientation of the fetus comprises at least one of an image having indicated thereon at least one of the left and right sides of the fetus in the ultrasound image , an image showing a cross-section and the left and right sides of the fetus in the ultrasound image , and a mimic image showing the fetus three-dimensionally based on the orientation of the fetus. displaying on a display a marker indicating an orientation of a probe for scanning a pregnant woman's body ; determining a direction of a fetus's head based on a first ultrasound image (511-514) obtained by scanning the pregnant woman's body in a first direction using the probe while a further marker attached to the probe is positioned in the orientation indicated by the marker displayed on the display ; determining a direction of a fetus's spine based on a second ultrasound image (521-524) obtained by scanning the pregnant woman's body in a second direction using the probe ; determining an orientation of the fetus within the pregnant woman's body based on the directions of the fetus's head and the fetus's spine and the orientation of the probe; displaying an image representing the orientation of the fetus together with an ultrasound image obtained by scanning the pregnant woman's body ; wherein the ultrasound image is an ultrasound image obtained by scanning the pregnant woman's body in the second direction, and wherein the image representing the orientation of the fetus comprises at least one of an image having indicated thereon at least one of the left and right sides of the fetus in the ultrasound image , an image showing a cross-section and the left and right sides of the fetus in the ultrasound image , and a mimic image showing the fetus three-dimensionally based on the orientation of the fetus.
A hydraulic control comprising at least one hydraulic valve, each hydraulic valve including a hydraulic distributor and an electric actuator , the hydraulic distributor comprising a body with hydraulic channels and a valve spool slidably mounted in the body , the electric actuator being fixed to said body and comprising a brushless direct current electric motor capable of being controlled in a closed loop, the motor comprising a stator and a rotor , the rotor comprising a magnet defining a plurality of rotor poles and the stator comprising a magnetic armature and a plurality of coils mounted on the magnetic armature, an electronic circuit including a circuit board , a linear displacement output member coupled to the valve spool, a reduction gear including gear wheels coupling the motor to the outlet member, and a casing in which the electric motor , the electronic circuit and the reduction gear are mounted, the gear wheels including at least a first wheel and a second wheel , the second wheel being disposed on the side of a cover of the casing and the electric motor being mounted in the base of the casing , the first wheel comprising a crown gear engaging a pinion of the motor and a pinion engaging a crown gear of the second wheel , the circuit board being disposed between the crown gear of the second wheel and the rotor magnet of the electric motor.
An introducer device for a medical implant comprising a plurality of components for performing a sequence of steps to introduce the medical implant into a desired location and deploying it there wherein first and second of said components are interconnected by a locking arrangement whereby, when the first component has reached a first desired location relative to the second component , the locking arrangement automatically engages to resist withdrawal of the first component from its first desired location, and when the first component has reached a second desired location relative to the second component, the locking arrangement automatically engages to resist withdrawal of the first component from its second desired location, characterised in that the first desired location is a temporary location and the second desired location is a final location, and in that the locking arrangement engages in a stronger manner at the final location than at the temporary location.
A rollable display comprising: a flexible display panel rolled up or down; a back cover that rolls up or down along with the flexible display panel , the back cover having an edge fixed to an edge of the flexible display panel ; characterised in that a flexible magnet is fixed to either the flexible display panel or the back cover , and interposed between the flexible display panel and the back cover , wherein, when the flexible magnet is fixed to the back cover , the flexible display panel is magnetically attracted to the flexible magnet , and the magnetic force of the flexible magnet is configured to cause the flexible display panel to slide along a surface of the flexible magnet when the flexible display panel and the back cover are rolled up or down, and when the flexible magnet is fixed to the flexible display panel , the back cover is magnetically attracted to the flexible magnet , and the magnetic force of the flexible magnet is configured to cause the back cover to slide along a surface of the flexible magnet when the flexible display panel and the back cover are rolled up or down. a flexible display panel rolled up or down; a back cover that rolls up or down along with the flexible display panel , the back cover having an edge fixed to an edge of the flexible display panel ; characterised in that a flexible magnet is fixed to either the flexible display panel or the back cover , and interposed between the flexible display panel and the back cover , wherein, when the flexible magnet is fixed to the back cover , the flexible display panel is magnetically attracted to the flexible magnet , and the magnetic force of the flexible magnet is configured to cause the flexible display panel to slide along a surface of the flexible magnet when the flexible display panel and the back cover are rolled up or down, and when the flexible magnet is fixed to the flexible display panel , the back cover is magnetically attracted to the flexible magnet , and the magnetic force of the flexible magnet is configured to cause the back cover to slide along a surface of the flexible magnet when the flexible display panel and the back cover are rolled up or down.
A trim unit (200; 200'; 200"; 440) for an electrical switch comprising a trim plate (210; 210'; 210") that presents an opening (215; 215'; 215") and a control member (220; 220'; 220") that is received in the opening (215; 215'; 215"), characterised in that the opening is an annular gap that is situated between a central portion of the trim plate and a peripheral portion of the trim plate and in that the trim plate (210; 210'; 210") is mounted on a plane front face of a backplate that includes holder means (241; 240) for holding the control member (220; 220'; 220") in the opening (215; 215'; 215").
A method for draining the tank space of a supply tank in a pneumatic material conveying system, such as a waste conveying system, from material , such as waste material, said conveying system comprising at least one supply tank ; said tank comprising a tank space and an outlet aperture ; in which method the tank space is drained to a conveyor pipe by opening a drain valve , so that the underpressure prevailing in the conveyor pipe, together with the ambient pressure prevailing in the supply tank, conveys material from the supply tank to the conveyor pipe , characterized in that in the method, makeup air is brought to the bottom part of the material space , to the section left between a bottom part of a partition wall and the drain valve via a path that at least partly surrounds the partition wall , at least its bottom part , and through one or several gaps arranged in a circular range, so that the makeup air is directed towards the outlet aperture , and that the material is guided by the partition wall element towards the outlet aperture, so that the makeup air affects the material to be discharged in the vicinity of the outlet aperture , at least during the draining step, and that the access of makeup air to the vicinity of the outlet aperture is adjusted.
A wing comprising: a non-water-repellent coating film that forms an outermost layer in a water droplet impact region in a leading edge portion of the wing; and a water-repellent coating film that forms an outermost layer in a water-repellent region adjacent to the water droplet impact region and is formed of a mixed coating material comprising: a resin that undergoes reaction curing at normal room temperature; and a particulate fluororesin, wherein a constituent ratio of the particulate fluororesin in a coating film that is a cured state of the mixed coating material is 43 wt% or more and 82 wt% or less, wherein the non-water-repellent coating film extends from the water droplet impact region to the water-repellent region, and the water-repellent coating film is on the non-water-repellent coating film. a non-water-repellent coating film that forms an outermost layer in a water droplet impact region in a leading edge portion of the wing; and a water-repellent coating film that forms an outermost layer in a water-repellent region adjacent to the water droplet impact region and is formed of a mixed coating material comprising: a resin that undergoes reaction curing at normal room temperature; and a particulate fluororesin, wherein a constituent ratio of the particulate fluororesin in a coating film that is a cured state of the mixed coating material is 43 wt% or more and 82 wt% or less, wherein the non-water-repellent coating film extends from the water droplet impact region to the water-repellent region, and the water-repellent coating film is on the non-water-repellent coating film. a resin that undergoes reaction curing at normal room temperature; and a particulate fluororesin, wherein a constituent ratio of the particulate fluororesin in a coating film that is a cured state of the mixed coating material is 43 wt% or more and 82 wt% or less, wherein the non-water-repellent coating film extends from the water droplet impact region to the water-repellent region, and the water-repellent coating film is on the non-water-repellent coating film.
A regenerated energy display device for a vehicle capable of collecting regenerated energy, the regenerated energy display device comprising: a display unit that is capable of displaying a momentary power (Ma) of the regenerated energy; and a control unit that is configured to control the display unit such that it is possible to maintain a state in which information that shows a maximum value (Ma1) of the momentary power of the regenerated energy is displayed, wherein the control unit has a peak-hold control mode for controlling the state in which the information that shows the maximum value of the momentary power is displayed and is configured to control the display unit such that the maximum value of the momentary power and the momentary power of the regenerated energy are capable of being displayed simultaneously. a display unit that is capable of displaying a momentary power (Ma) of the regenerated energy; and a control unit that is configured to control the display unit such that it is possible to maintain a state in which information that shows a maximum value (Ma1) of the momentary power of the regenerated energy is displayed, wherein the control unit has a peak-hold control mode for controlling the state in which the information that shows the maximum value of the momentary power is displayed and is configured to control the display unit such that the maximum value of the momentary power and the momentary power of the regenerated energy are capable of being displayed simultaneously.
Assembly of a switch and an auxiliary unit juxtaposed with one another, which switch is arranged so as to be connected between a first state in which an electric current on a line for conducting electric current on which the switch would be placed may pass through the switch and a second state in which said electric current is interrupted by the switch , which switch is also arranged so as to be connected in the second state in the event a malfunction is observed on this line for conducting electric current, which auxiliary unit is an element distinct from the switch and comprises an actuator that is arranged so as to actuate the switch , said actuator being capable of controlling the triggering of the switch from the first state to the second state and/or capable of resetting the switch from the second state to the first state, characterized in that the actuator comprises a generator-transmitter (7, 10 and 11, 36) that is arranged so as to produce an activation signal and to transmit it through radiation to the switch , which generator-transmitter being a magnetic-field or electromagnetic-radiation source, which switch comprises a receiver (6, 12, 13 and 14, 26) that is arranged to receive the activation signal and to convert it, if the switch is in the first state, into a change of state of the switch from the first state to the second state or, if the switch is in the second state, into a change of state of the switch from the second state to the first state, said receiver (6, 12, 13 and 14, 16) being capable of receiving said magnetic field or electromagnetic radiation and of transforming this electromagnetic field or this electromagnetic radiation into electrical and/or mechanical signals for triggering the switch .
Installation box for a hollow wall , wherein the hollow wall comprises a front plate with a hole for insertion of the installation box from the front side of the front plate, and wherein the installation box comprises a bottom wall and a circumferential wall with an circumferential edge that bounds an installation opening of the installation box, wherein the installation box comprises a guide channel in the circumferential wall that extends parallel to the center line (S) of the circumferential wall and in which an anchoring strip is slidably confined, wherein the anchoring strip comprises an elongate tensioning section that is guided through the guide channel in a tensioning direction (T), and an anchoring section for engagement of the back side of the front plate, wherein the installation box comprises a first barb that is connected with the circumferential wall and that engages the tensioning section to prevent movement of the anchoring strip with the anchoring section away from the circumferential edge of the circumferential wall, characterized in that the tensioning section comprises multiple elongate tensioning segments that are connected to each other in series along their elongate sides by means of first living hinges that form selectable target fractures in the tensioning section.
A negative resist composition comprising (A) a sulfonium compound having the formula (A) and (B) a base polymer containing a polymer comprising recurring units having the formula (B1), wherein R 1 , R 2 , and R 3 are each independently a C 1 -C 20 straight, branched or cyclic monovalent hydrocarbon group which may contain a heteroatom, p and q are each independently an integer of 0 to 5, r is an integer of 0 to 4, in case of p = 2 to 5, two adjoining groups R 1 may bond together to form a ring with the carbon atoms to which they are attached, in case of q = 2 to 5, two adjoining groups R 2 may bond together to form a ring with the carbon atoms to which they are attached, in case of r = 2 to 4, two adjoining groups R 3 may bond together to form a ring with the carbon atoms to which they are attached, wherein R A is hydrogen, fluorine, methyl or trifluoromethyl, R 11 is each independently halogen, an optionally halogenated C 2 -C 8 straight, branched or cyclic acyloxy group, optionally halogenated C 1 -C 6 straight, branched or cyclic alkyl group, or optionally halogenated C 1 -C 6 straight, branched or cyclic alkoxy group, A 1 is a single bond or C 1 -C 10 straight, branched or cyclic alkylene group in which an ether bond may intervene in a carbon-carbon bond, s is 0 or 1, w is an integer of 0 to 2, a is an integer satisfying 0 ≤ a ≤ 5+2w-b, and b is an integer of 1 to 3.
A cleaning unit comprises a conveyor unit and at least one support wheel , wherein the support wheel is rotatably mounted about an axis of rotation (A) wherein the conveyor unit comprises a motor and a pump unit , wherein the motor comprises a motor housing , characterised in that the at least one support wheel is supported on the motor , in particular on the motor housing .
Method of heat transfer between a metallic or non-metallic item and a heat transfer fluid comprising a fluid medium, hydrophobic nanoparticles having a lateral size between 26 and 50μm and a dispersing agent, wherein the nanoparticles concentration / dispersing agent concentration ratio in weight is between 3 and 18 and wherein nanoparticles do not comprise carbon nanotubes.
A friction material that does not include a metal or a metal alloy, characterized in that said friction material includes: a binder being at least a thermosetting resin selected from a phenolic resin and epoxy resin, a resin obtained by modifying said thermosetting resin by cashew oil, silicon oil or various elastomers, and/or a resin obtained by dispersing various elastomers and/or fluorinated polymer in said thermosetting resin; a flat flake shaped titanate with average diameter of 10 to 50 μm as an inorganic filler, the average diameter being measured according to a Laser Diffraction-Type Particle Size Distribution Measuring Method, and a hydrous magnesium silicate as an inorganic filler, wherein an amount of said flat flake shaped titanate and said hydrous magnesium silicate is 20 to 30 volume percent relative to the total amount of the friction material, and wherein the volume ratio of said flat flake shaped titanate and said hydrous magnesium silicate is 12:1 to 5:1. a binder being at least a thermosetting resin selected from a phenolic resin and epoxy resin, a resin obtained by modifying said thermosetting resin by cashew oil, silicon oil or various elastomers, and/or a resin obtained by dispersing various elastomers and/or fluorinated polymer in said thermosetting resin; a flat flake shaped titanate with average diameter of 10 to 50 μm as an inorganic filler, the average diameter being measured according to a Laser Diffraction-Type Particle Size Distribution Measuring Method, and a hydrous magnesium silicate as an inorganic filler, wherein an amount of said flat flake shaped titanate and said hydrous magnesium silicate is 20 to 30 volume percent relative to the total amount of the friction material, and wherein the volume ratio of said flat flake shaped titanate and said hydrous magnesium silicate is 12:1 to 5:1.
A method of fabricating a component for a gas turbine engine , the method comprising: forming one or more grooves in an outer surface of a substrate , wherein each of the one or more grooves has a base and extends at least partially along the surface of the substrate ; depositing a sacrificial filler within the one or more grooves ; depositing a second filler over the sacrificial filler and within the one or more grooves ; disposing a coating over at least a portion of the outer surface of the substrate and over the second filler ; and removing the sacrificial filler and removing a portion of the second filler from the one or more grooves , characterised in that at least a portion of the second filler remains within the one or more grooves to define one or more channels for cooling the component . forming one or more grooves in an outer surface of a substrate , wherein each of the one or more grooves has a base and extends at least partially along the surface of the substrate ; depositing a sacrificial filler within the one or more grooves ; depositing a second filler over the sacrificial filler and within the one or more grooves ; disposing a coating over at least a portion of the outer surface of the substrate and over the second filler ; and removing the sacrificial filler and removing a portion of the second filler from the one or more grooves , characterised in that at least a portion of the second filler remains within the one or more grooves to define one or more channels for cooling the component .
Microwave assisted synthesis method of barium orthoborate (Ba 3 (BO 3 ) 2 ) characterized in that it comprises the following process steps; - Mixing of barium carbonate (BaCO 3 ), boric acid (H 3 BO 3 ) and urea that are in powder form in a mortar, - Placing the power mixture into a crucible, - Heating the crucible for 5-20 minutes in a kitchen type microwave oven at 1200W, - Re-grounding the powder mixture again in mortar, - Obtaining barium orthoborate compounds having homogenous particle sizes by heating the re-ground mixture for 2 hours in an oven at 700-1200°C. - Mixing of barium carbonate (BaCO 3 ), boric acid (H 3 BO 3 ) and urea that are in powder form in a mortar, - Placing the power mixture into a crucible, - Heating the crucible for 5-20 minutes in a kitchen type microwave oven at 1200W, - Re-grounding the powder mixture again in mortar, - Obtaining barium orthoborate compounds having homogenous particle sizes by heating the re-ground mixture for 2 hours in an oven at 700-1200°C.