mhurhangee/patent-ind-claim-en huggingface dataset:
Optical device suitable for the laser treatment of the internal surfaces of a leading edge-type covering part of an aircraft engine blade, comprising: - a collimator intended to be connected to a laser source via an optical fibre in order to produce a laser beam having a collimated and flat spatial pulse profile, - a cylindrical lens configured to focus said laser beam along a spatial line that is transverse to the propagation of said laser beam, thus forming a line laser beam , - an optical reflection component configured so as to be capable of being inserted into said covering part and to uniformly reflect said line laser beam onto at least one internal surface of said covering part , the optical reflection component having a dihedron with at least one oblique surface equipped with a stepped-mirror assembly , each mirror being configured so as to reflect a fraction of said line laser beam according to a direction quasi-normal to said at least one internal surface . - a collimator intended to be connected to a laser source via an optical fibre in order to produce a laser beam having a collimated and flat spatial pulse profile, - a cylindrical lens configured to focus said laser beam along a spatial line that is transverse to the propagation of said laser beam, thus forming a line laser beam , - an optical reflection component configured so as to be capable of being inserted into said covering part and to uniformly reflect said line laser beam onto at least one internal surface of said covering part , the optical reflection component having a dihedron with at least one oblique surface equipped with a stepped-mirror assembly , each mirror being configured so as to reflect a fraction of said line laser beam according to a direction quasi-normal to said at least one internal surface .
A method of manufacturing a multilayer connector device suitable for making an inter or intra static electrical energy converter(s) connection, said device comprising at least two flat conductors and at least one insulating material disposed between the two above-mentioned conductors , said method being characterized in that : • the flat conductors , possibly prepared, are positioned in a tank in a geometric position such that the conductors are kept parallel and spaced apart by a value at least equal to the thickness of the desired electrical insulation, said conductors having a preferential orientation, • said prepared flat conductors are impregnated with at least one impregnating resin introduced into the tank , so that the level of impregnating resin gradually rises in the tank , said impregnating resin having physico-chemical characteristics enabling, after extraction from the tank, it to be maintained in the form of a coating layer on all the accessible faces of said flat conductors , • the device is removed from said tank , • the said impregnating resin is cross-linked to assemble the flat conductors by means of the said impregnating resin . • the flat conductors , possibly prepared, are positioned in a tank in a geometric position such that the conductors are kept parallel and spaced apart by a value at least equal to the thickness of the desired electrical insulation, said conductors having a preferential orientation, • said prepared flat conductors are impregnated with at least one impregnating resin introduced into the tank , so that the level of impregnating resin gradually rises in the tank , said impregnating resin having physico-chemical characteristics enabling, after extraction from the tank, it to be maintained in the form of a coating layer on all the accessible faces of said flat conductors , • the device is removed from said tank , • the said impregnating resin is cross-linked to assemble the flat conductors by means of the said impregnating resin .
A shower attachment device for creating a shower toilet by mounting on a toilet bowl , said shower attachment comprising: a shower technology housing with a shower device therein, a shower arm of the shower device, which, when the shower attachment device is in a mounted state on the toilet bowl , can be moved out of the shower technology housing into a cleaning position for cleaning a toilet user, a toilet seat which is attached to the shower technology housing , surrounds an opening on the top of the toilet bowl and can be pivoted upwards, wherein the shower technology housing comprises a surface on a side facing the toilet seat being oriented inclined upwards, wherein the inclined surface of the shower technology housing connects smoothly with a neighbouring surface of the toilet seat , that is without a height difference of more than 5 mm, within at least a middle range of 150 mm, said 150 mm relating to a horizontal direction perpendicular to a depth direction, said depth direction running from a front edge of the toilet seat distal to the shower technology housing in the direction of the shower technology housing , characterized in that the surface of the shower technology housing is concave with respect to a longitudinal section along the depth direction, in a segment along the longitudinal section of at least 20 mm, namely with a radius of curvature between 80 mm and 200 mm and in the middle with respect to the horizontal direction perpendicular to the depth direction. a shower technology housing with a shower device therein, a shower arm of the shower device, which, when the shower attachment device is in a mounted state on the toilet bowl , can be moved out of the shower technology housing into a cleaning position for cleaning a toilet user, a toilet seat which is attached to the shower technology housing , surrounds an opening on the top of the toilet bowl and can be pivoted upwards, wherein the shower technology housing comprises a surface on a side facing the toilet seat being oriented inclined upwards, wherein the inclined surface of the shower technology housing connects smoothly with a neighbouring surface of the toilet seat , that is without a height difference of more than 5 mm, within at least a middle range of 150 mm, said 150 mm relating to a horizontal direction perpendicular to a depth direction, said depth direction running from a front edge of the toilet seat distal to the shower technology housing in the direction of the shower technology housing , characterized in that the surface of the shower technology housing is concave with respect to a longitudinal section along the depth direction, in a segment along the longitudinal section of at least 20 mm, namely with a radius of curvature between 80 mm and 200 mm and in the middle with respect to the horizontal direction perpendicular to the depth direction.
A cleaning tool attachment for mounting a plurality of cleaning tools onto a main spindle of a cleaning device , the attachment comprising: a housing ; a first shaft integrally connectable to the main spindle , the first shaft being supported on the housing in a rotatable manner; a second shaft having an axial direction different from an axial direction of the first shaft , the second shaft being supported on the housing in a rotatable manner; a plurality of tool mounting shafts having an axial direction parallel to the axial direction of the second shaft , the plurality of tool mounting shafts being supported on the housing in a rotatable manner; a rotation axis conversion gear mechanism arranged in the housing, the rotation axis conversion gear mechanism being configured to transmit a driving force from the first shaft to the second shaft to change a direction of the rotation axis; and characterized by a synchronous rotation mechanism arranged in the housing, the synchronous rotation mechanism being configured to transmit a driving force of the second shaft to the plurality of tool mounting shafts , and rotate the plurality of tool mounting shafts at the same rotational speed and with synchronous phase angles. a housing ; a first shaft integrally connectable to the main spindle , the first shaft being supported on the housing in a rotatable manner; a second shaft having an axial direction different from an axial direction of the first shaft , the second shaft being supported on the housing in a rotatable manner; a plurality of tool mounting shafts having an axial direction parallel to the axial direction of the second shaft , the plurality of tool mounting shafts being supported on the housing in a rotatable manner; a rotation axis conversion gear mechanism arranged in the housing, the rotation axis conversion gear mechanism being configured to transmit a driving force from the first shaft to the second shaft to change a direction of the rotation axis; and characterized by a synchronous rotation mechanism arranged in the housing, the synchronous rotation mechanism being configured to transmit a driving force of the second shaft to the plurality of tool mounting shafts , and rotate the plurality of tool mounting shafts at the same rotational speed and with synchronous phase angles.
A method of manufacturing a vial for packing a substance to be smoked from the vial, the method comprising: providing a glass vial , the glass vial having a first end portion and a second end portion connected by a tubular portion having a hollow interior , the first end portion having an opening , the hollow interior being divided into an end chamber , a first chamber and a second chamber , the end chamber extending from the opening to the first chamber , the end chamber having a diameter (d) that is the same as opening and smaller than a diameter (d 1 ) of the first chamber , and the second end portion is closed; applying heat to a section of the tubular portion to heat the section of the tubular portion; applying a pressure around the heated section of the tubular portion to collapse the section of the tubular portion into the hollow interior of the tubular portion to form a neck portion dimensioned to separate the first chamber from the second chamber ; pressing the first end portion and the second end portion together until an exterior surface of the tubular portion surrounding the collapsed section is level with a remaining exterior surface of the tubular portion ; and forming an opening in the second end portion . providing a glass vial , the glass vial having a first end portion and a second end portion connected by a tubular portion having a hollow interior , the first end portion having an opening , the hollow interior being divided into an end chamber , a first chamber and a second chamber , the end chamber extending from the opening to the first chamber , the end chamber having a diameter (d) that is the same as opening and smaller than a diameter (d 1 ) of the first chamber , and the second end portion is closed; applying heat to a section of the tubular portion to heat the section of the tubular portion; applying a pressure around the heated section of the tubular portion to collapse the section of the tubular portion into the hollow interior of the tubular portion to form a neck portion dimensioned to separate the first chamber from the second chamber ; pressing the first end portion and the second end portion together until an exterior surface of the tubular portion surrounding the collapsed section is level with a remaining exterior surface of the tubular portion ; and forming an opening in the second end portion .
An induction heating device, comprising: a working coil (WC); an inverter (IV) comprising a first switching element (S1) and a second switching element (S2) that are configured to perform a switching operation and to apply resonance current to the working coil (WC) based on the switching operation; a current transformer comprising a first coil (T1) connected to the inverter (IV) and the working coil (WC) that are configured to change a magnitude of the resonance current in the first coil (T1); a current detecting circuit electrically connected to the current transformer , the current detecting circuit being configured to receive a first resonance current which is the resonance current having changed magnitude and output a first voltage (VO1) based on the received first resonance current; a voltage detecting circuit electrically connected to the inverter (IV), the voltage detecting circuit being configured to receive a switching voltage applied to the second switching element (S2) and to output a second voltage (VO2) based on the received switching voltage; characterised by an AND circuit configured to receive the first voltage (VO1) and the second voltage (VO2) and to output a pulse based on the received first voltage (VO1) and the received second voltage; and a controller configured to: control the switching operation, receive the output pulse from the AND circuit , and determine a material of an object on the working coil (WC) based on a width of the received pulse. a working coil (WC); an inverter (IV) comprising a first switching element (S1) and a second switching element (S2) that are configured to perform a switching operation and to apply resonance current to the working coil (WC) based on the switching operation; a current transformer comprising a first coil (T1) connected to the inverter (IV) and the working coil (WC) that are configured to change a magnitude of the resonance current in the first coil (T1); a current detecting circuit electrically connected to the current transformer , the current detecting circuit being configured to receive a first resonance current which is the resonance current having changed magnitude and output a first voltage (VO1) based on the received first resonance current; a voltage detecting circuit electrically connected to the inverter (IV), the voltage detecting circuit being configured to receive a switching voltage applied to the second switching element (S2) and to output a second voltage (VO2) based on the received switching voltage; characterised by an AND circuit configured to receive the first voltage (VO1) and the second voltage (VO2) and to output a pulse based on the received first voltage (VO1) and the received second voltage; and a controller configured to: control the switching operation, receive the output pulse from the AND circuit , and determine a material of an object on the working coil (WC) based on a width of the received pulse. control the switching operation, receive the output pulse from the AND circuit , and determine a material of an object on the working coil (WC) based on a width of the received pulse.
A control apparatus of a vehicle lamp comprising: a reception section (228L1, 228R1) configured to receive acceleration vector information of a vehicle from an acceleration sensor ; characterized by a control section configured to obtain a tilt angle of the vehicle relative to a horizontal plane based on the received acceleration vector information and correct the obtained tilt angle of the vehicle based on correction information obtained from a pre-recorded first reference tilt angle vector (S 1 ) of the vehicle in a first state and a pre-recorded second reference tilt angle vector (S 2 ) of the vehicle in a second state different from the first state only in a pitch angle, and to determine an optical axis position of the vehicle lamp based on the corrected tilt angle; and a transmission section (228L3, 228R3) configured to transmit the determined optical axis position to an optical axis adjustment section of the vehicle lamp, wherein the first state is a state where the vehicle is stationary on the horizontal plane, and the second state is a state where the vehicle is stationary and a load is applied to a front portion or a rear portion of the vehicle. a reception section (228L1, 228R1) configured to receive acceleration vector information of a vehicle from an acceleration sensor ; characterized by a control section configured to obtain a tilt angle of the vehicle relative to a horizontal plane based on the received acceleration vector information and correct the obtained tilt angle of the vehicle based on correction information obtained from a pre-recorded first reference tilt angle vector (S 1 ) of the vehicle in a first state and a pre-recorded second reference tilt angle vector (S 2 ) of the vehicle in a second state different from the first state only in a pitch angle, and to determine an optical axis position of the vehicle lamp based on the corrected tilt angle; and a transmission section (228L3, 228R3) configured to transmit the determined optical axis position to an optical axis adjustment section of the vehicle lamp, wherein the first state is a state where the vehicle is stationary on the horizontal plane, and the second state is a state where the vehicle is stationary and a load is applied to a front portion or a rear portion of the vehicle.
A fluid system comprising: an inlet conduit disposed in a fluid flow path between a fluid source and a fluid destination ; a fluid mixing portion disposed in the inlet conduit ; a fluid separation module disposed in the fluid flow path downstream of the fluid mixing portion , and between a source and a fluid destination ; the fluid separation module including a first fluid separator configured to separate air into inert portions and reactive portions ; a first outlet in fluid communication with the fluid destination , said inert portions being directed to said first outlet ; and a second outlet , said reactive portions being directed to said first outlet ; and characterised in that , the fluid system further comprises a coalescer disposed in the fluid flow path upstream of the first fluid separator and downstream of the fluid mixing portion ; and a feedback conduit providing fluid communication between the first outlet of the fluid separation module and the fluid mixing portion , such that the fluid mixing portion is configured to mix inert portions which have already passed through the coalescer and air separation module with incoming fluid. an inlet conduit disposed in a fluid flow path between a fluid source and a fluid destination ; a fluid mixing portion disposed in the inlet conduit ; a fluid separation module disposed in the fluid flow path downstream of the fluid mixing portion , and between a source and a fluid destination ; the fluid separation module including a first fluid separator configured to separate air into inert portions and reactive portions ; a first outlet in fluid communication with the fluid destination , said inert portions being directed to said first outlet ; and a second outlet , said reactive portions being directed to said first outlet ; and characterised in that , the fluid system further comprises a first fluid separator configured to separate air into inert portions and reactive portions ; a first outlet in fluid communication with the fluid destination , said inert portions being directed to said first outlet ; and a second outlet , said reactive portions being directed to said first outlet ; a coalescer disposed in the fluid flow path upstream of the first fluid separator and downstream of the fluid mixing portion ; and a feedback conduit providing fluid communication between the first outlet of the fluid separation module and the fluid mixing portion , such that the fluid mixing portion is configured to mix inert portions which have already passed through the coalescer and air separation module with incoming fluid.
A method for producing a basic amino acid by fermentation comprising culturing a microorganism having an ability to produce the basic amino acid in a liquid medium contained in a fermentation tank to produce and accumulate the basic amino acid in the medium; wherein the amount of sulfate and/or chloride ions used as counter ions of the basic amino acid is reduced by adjusting the total ammonia concentration in the medium to be within a specific concentration range during at least a part of the total period of the culture process including the period where the pH of the medium increases due to shortage of the counter ions caused by accumulation of the basic amino acid; wherein the total ammonia concentration in the medium is adjusted to be 300 mM or lower; wherein the sum of ion equivalents of sulfate and chloride ions in the medium is 700 meq/l or less; and wherein the microorganism is a coryneform bacterium. wherein the amount of sulfate and/or chloride ions used as counter ions of the basic amino acid is reduced by adjusting the total ammonia concentration in the medium to be within a specific concentration range during at least a part of the total period of the culture process including the period where the pH of the medium increases due to shortage of the counter ions caused by accumulation of the basic amino acid; wherein the total ammonia concentration in the medium is adjusted to be 300 mM or lower; wherein the sum of ion equivalents of sulfate and chloride ions in the medium is 700 meq/l or less; and wherein the microorganism is a coryneform bacterium.
A mounting device adapted to be temporarily connectable ex-vivo to an unfinished dental prosthesis body in the course of dental prosthesis processing, wherein the mounting device at least comprises a lower base part and an upper connecting part , wherein the connecting part is adapted to be connectable to the void volume of the dental prosthesis body , wherein at least the connecting part comprises a porous material, characterized in that said porous material at least comprises a porous content of larger or equal to 15 volume-% and smaller or equal to 75 volume-% and a thermal conductivity at 800°C of larger or equal to 0.05 W/mK and smaller or equal to 0.75 W/mK. wherein the mounting device at least comprises a lower base part and an upper connecting part , wherein the connecting part is adapted to be connectable to the void volume of the dental prosthesis body , wherein at least the connecting part comprises a porous material, characterized in that said porous material at least comprises a porous content of larger or equal to 15 volume-% and smaller or equal to 75 volume-% and a thermal conductivity at 800°C of larger or equal to 0.05 W/mK and smaller or equal to 0.75 W/mK.