mhurhangee/ep-ind-claims huggingface dataset:
An ultrasonic probe (100, 300, 400) comprising: a piezoelectric layer (130, 330, 420) comprising one or more kerfs (133, 333, 433) such that piezoelectric elements are provided in a plurality of rows along an elevation direction; a first electrode (131, 331, 431) formed on an upper side of the piezoelectric layer; a second electrode (132, 332, 432) formed on a lower side of the piezoelectric layer; a matching layer (120, 320, 420) disposed above the piezoelectric layer and comprising one or more grooves (123, 323, 423) connected to the one or more kerfs; and a third electrode (121, 321, 421) formed in inner surfaces of the one or more grooves and electrically connected to the first electrode, characterized in that a width of the groove (123, 323, 423) is larger than a width of the kerf (133, 333, 433). a piezoelectric layer (130, 330, 420) comprising one or more kerfs (133, 333, 433) such that piezoelectric elements are provided in a plurality of rows along an elevation direction; a first electrode (131, 331, 431) formed on an upper side of the piezoelectric layer; a second electrode (132, 332, 432) formed on a lower side of the piezoelectric layer; a matching layer (120, 320, 420) disposed above the piezoelectric layer and comprising one or more grooves (123, 323, 423) connected to the one or more kerfs; and a third electrode (121, 321, 421) formed in inner surfaces of the one or more grooves and electrically connected to the first electrode, characterized in that a width of the groove (123, 323, 423) is larger than a width of the kerf (133, 333, 433).
A table saw comprising: a base assembly; a table assembly supported by the base assembly, the table assembly defining a workpiece support plane; a saw assembly supported by at least one of the table assembly and the base assembly, the saw assembly including a saw blade extending through the table assembly; and a fence assembly disposed on the table assembly, the fence assembly comprising a fixed rail connected to the table assembly, a sliding rail slidingly connected to the fixed rail, and a fence attached to the sliding rail, wherein the fence comprises a fence mount disposable on the sliding rail, a fence beam, having a fence plane, connected to the fence mount and a lock mechanism disposed on the fence mount for locking the fence mount on the sliding rail, wherein the fence can be disposed on the sliding rail in a first position where the fence beam is between first and second ends of the sliding rail, and a second position where the fence beam is not between the first and second ends of the sliding rail, characterised in that the fence plane is substantially perpendicular to the workpiece support plane in both the first position and the second position. a base assembly; a table assembly supported by the base assembly, the table assembly defining a workpiece support plane; a saw assembly supported by at least one of the table assembly and the base assembly, the saw assembly including a saw blade extending through the table assembly; and a fence assembly disposed on the table assembly, the fence assembly comprising a fixed rail connected to the table assembly, a sliding rail slidingly connected to the fixed rail, and a fence attached to the sliding rail, wherein the fence comprises a fence mount disposable on the sliding rail, a fence beam, having a fence plane, connected to the fence mount and a lock mechanism disposed on the fence mount for locking the fence mount on the sliding rail, wherein the fence can be disposed on the sliding rail in a first position where the fence beam is between first and second ends of the sliding rail, and a second position where the fence beam is not between the first and second ends of the sliding rail, characterised in that the fence plane is substantially perpendicular to the workpiece support plane in both the first position and the second position.
A method for the dynamic creation of time-controlled paths, TT-paths, in a computer network consisting of a plurality of computer nodes, distribution modules and communication channels, wherein all distribution modules have access to a global time base, characterised in that a scheduling instance, which is aimed at establishing a time-controlled path with specified path time characteristics from a transmitting computer node to a receiving computer node along an existing virtual connection, firstly, by means of a request message, requests from each distribution module arranged in the virtual connection all the TT-path-descriptor-lists (TTPDL) already confirmed by said distribution modules, wherein a TTPDL comprises: • a reservation interval, that is to say the interval during which the time-controlled message is to be conveyed, • a moment of the expected arrival of the time-controlled message at the input port of the distribution module, • a moment of the transmission of the outgoing message from the output port of the distribution module, and • a specification as to whether the reservation interval is active or passive, wherein the TTPDL is active during the reservation interval if time-controlled messages are expected in this interval, and wherein the TTPDL is passive during the reservation interval, when a reservation has been made and confirmed, but no time-controlled message is currently expected, and wherein the scheduling instance then transmits the specified path time characteristics and all confirmed TTPDLs to a dynamic scheduler, and wherein the dynamic scheduler creates a new TTPDL for each distribution module arranged in the virtual connection, wherein the existing reserved TTPDLs of the distribution modules affected remain unchanged, and wherein the corresponding new TTPDLs are transmitted to each distribution module arranged in the virtual connection, and wherein each distribution module arranged in the virtual connection reserves the TT-path requested and confirms the successful reservation according to the new TTPDLs to the scheduling instance by means of a confirmation message. • a reservation interval, that is to say the interval during which the time-controlled message is to be conveyed, • a moment of the expected arrival of the time-controlled message at the input port of the distribution module, • a moment of the transmission of the outgoing message from the output port of the distribution module, and • a specification as to whether the reservation interval is active or passive,
A combination comprising an autonomous work machine and a mobile device (200, 16), the mobile device (200, 16) comprising: a processor; memory, coupled to the processor, the memory containing instructions that when executed cause the processor to provide an autonomy management application, wherein the autonomy management application includes an autonomy approval function; the autonomy approval function providing a user interface configured to display at least one aspect (260, 262) of an autonomy job to a user and receive user acceptance of the autonomy job; characterized in that the autonomy approval function is configured to instruct the user to move within a pre-determined distance from of the autonomous work that will execute the autonomy job, and provide, based on data of the mobile device (200, 16) and/or the work machine, a machine-verified indication of user proximity within the pre-determined distance; and that the autonomy approval function includes a begin mission user interface element displayable after verification that a user has moved within the pre-determined distance of the autonomous work machine, which begin mission user interface element, when selected, causes the autonomy approval function to initiate motion. a processor; memory, coupled to the processor, the memory containing instructions that when executed cause the processor to provide an autonomy management application, wherein the autonomy management application includes an autonomy approval function; the autonomy approval function providing a user interface configured to display at least one aspect (260, 262) of an autonomy job to a user and receive user acceptance of the autonomy job; characterized in that the autonomy approval function is configured to instruct the user to move within a pre-determined distance from of the autonomous work that will execute the autonomy job, and provide, based on data of the mobile device (200, 16) and/or the work machine, a machine-verified indication of user proximity within the pre-determined distance; and that the autonomy approval function includes a begin mission user interface element displayable after verification that a user has moved within the pre-determined distance of the autonomous work machine, which begin mission user interface element, when selected, causes the autonomy approval function to initiate motion.
A backpack (100, 600, 700), comprising: a spindle coupled to a set of straps (102, 402) and a load (110, 310, 410, 510, 610); a distance sensor (106, 506) to determine a distance between the load and a wearer's back; an actuator (108, 208) coupled to the spindle, wherein the actuator (108, 208) is to adjust a length of the set of straps (102, 402) in response to a first signal from the distance sensor (106, 506); an angle sensor to determine the angle of the load (110, 310, 410, 510, 610) with respect to the ground; an angle adjuster (112, 312, 412) coupled to the load (110, 310, 410, 510, 610) to activate to adjust the angle of the load in response to a second signal from the angle sensor; and a power supply (116, 616, 716). a spindle coupled to a set of straps (102, 402) and a load (110, 310, 410, 510, 610); a distance sensor (106, 506) to determine a distance between the load and a wearer's back; an actuator (108, 208) coupled to the spindle, wherein the actuator (108, 208) is to adjust a length of the set of straps (102, 402) in response to a first signal from the distance sensor (106, 506); an angle sensor to determine the angle of the load (110, 310, 410, 510, 610) with respect to the ground; an angle adjuster (112, 312, 412) coupled to the load (110, 310, 410, 510, 610) to activate to adjust the angle of the load in response to a second signal from the angle sensor; and a power supply (116, 616, 716).
A process for electro less plating a metal on non-conductive surface, wherein the process comprises the steps: a) dipping a substrate to be plated into a colloidal catalyst solution, wherein the substrate comprises through-holes, comprising precious metal nanoparticles stabilized by a polymer, wherein the precious metal is selected from silver, gold, platinum, palladium, rhodium, ruthenium, iridium and osmium and wherein the polymer is polymerized from at least two monomers, a monomer having two or more carboxyl groups or carboxyl acid salt groups and a monomer selected from the group consisting of aromatic vinyl monomer, aromatic allyl monomer and alkadiene; and b) conducting electroless copper plating of the substrate and walls of the through-holes. a) dipping a substrate to be plated into a colloidal catalyst solution, wherein the substrate comprises through-holes, comprising precious metal nanoparticles stabilized by a polymer, wherein the precious metal is selected from silver, gold, platinum, palladium, rhodium, ruthenium, iridium and osmium and wherein the polymer is polymerized from at least two monomers, a monomer having two or more carboxyl groups or carboxyl acid salt groups and a monomer selected from the group consisting of aromatic vinyl monomer, aromatic allyl monomer and alkadiene; and b) conducting electroless copper plating of the substrate and walls of the through-holes.
A method for treating sanitary wastewater in trains, characterized by a) purifying the sanitary wastewater in a bioreactor, b) feeding the wastewater at least partially purified in the bioreactor into a conditioning installation, c) at least partially separating phases of the partially purified wastewater in the conditioning installation, d) obtaining a liquid portion and a solid portion of the at least partially purified wastewater, wherein the conditioning installation comprises a vacuum evaporator, and in step c), a concentration of the partially purified wastewater is performed and the vacuum evaporator is operated at a temperature of 25°C to 35°C, wherein exhaust heat of the bioreactor is fed to the vacuum evaporator, and the partially purified wastewater is heated by means of the exhaust heat of the bioreactor, wherein in step d), a distillate and a concentrate of the at least partially purified wastewater are obtained, and the distillate is conveyed to a train sanitary installation and is used as service water, in particular as rinsing liquid. a) purifying the sanitary wastewater in a bioreactor, b) feeding the wastewater at least partially purified in the bioreactor into a conditioning installation, c) at least partially separating phases of the partially purified wastewater in the conditioning installation, d) obtaining a liquid portion and a solid portion of the at least partially purified wastewater, wherein the conditioning installation comprises a vacuum evaporator, and in step c), a concentration of the partially purified wastewater is performed and the vacuum evaporator is operated at a temperature of 25°C to 35°C, wherein exhaust heat of the bioreactor is fed to the vacuum evaporator, and the partially purified wastewater is heated by means of the exhaust heat of the bioreactor, wherein in step d), a distillate and a concentrate of the at least partially purified wastewater are obtained, and the distillate is conveyed to a train sanitary installation and is used as service water, in particular as rinsing liquid.
An infrared spectrophotometer that irradiates a sample in a sample chamber with infrared light and detects light from the sample with a detector, the infrared spectrophotometer comprising: a housing having a partition wall constituting a wall surface of the sample chamber, with an interferometer chamber in which an optical component is disposed being formed on an opposite side to the sample chamber with respect to the partition wall; a window member that is attachable to and detachable from an opening formed in the partition wall and transmits light between the sample chamber and the interferometer chamber; and a lid member attachable to and detachable from the window member while the window member is fixed to the opening and having a space formed internally, wherein the lid member engages with the window member attached to the opening from a side of the sample chamber so that the side of the sample chamber of the window member is covered with the lid member to set the space in a substantially airtight state, and wherein the space is a moisture absorbent accommodating space for storing a moisture absorbent. a housing having a partition wall constituting a wall surface of the sample chamber, with an interferometer chamber in which an optical component is disposed being formed on an opposite side to the sample chamber with respect to the partition wall; a window member that is attachable to and detachable from an opening formed in the partition wall and transmits light between the sample chamber and the interferometer chamber; and a lid member attachable to and detachable from the window member while the window member is fixed to the opening and having a space formed internally, wherein the lid member engages with the window member attached to the opening from a side of the sample chamber so that the side of the sample chamber of the window member is covered with the lid member to set the space in a substantially airtight state, and wherein the space is a moisture absorbent accommodating space for storing a moisture absorbent.
A method for controlling scissor stabilizers of self-propelled work machines, such as telescopic handlers or the like, of a type comprising one or more pairs of rotatable telescopic stabilizing arms, each arm comprising a first segment and a second segment extensible and retractable with respect to said first segment and provided with a foot for contact with a ground surface, wherein from a working configuration of the stabilizers, in which wheels of said machine are raised from the ground surface, with the relative second segments in a first extended position and with the relative feet resting on the ground surface, the stabilizers are brought into a rest configuration characterised by the following sequence of steps: rotating the arms upwards into a first partially raised position; retracting the second segments into a completely closed position; and rotating the arms upwards into a completely raised position. rotating the arms upwards into a first partially raised position; retracting the second segments into a completely closed position; and rotating the arms upwards into a completely raised position.
A radiographic imaging apparatus comprising: a substrate on one side of which a photosensitive section for photoelectric conversion of incident light, and a separate amplification section for amplification of electric current outputs from the photosensitive section are formed; and a scintillator for converting radiation to visible light, which is arranged on the one side of the substrate; wherein: the photosensitive section includes a plurality of photodiodes arranged in a two-dimensional pattern and has a rectangular shape in planar view; and the amplification section includes: amplifiers for amplifying the electric current outputs from the plurality of photodiodes; capacitors connected in parallel with the amplifiers, and switching elements connected in parallel with the amplifiers and capacitors, characterised in that the scintillator covers a region where the photosensitive section and the amplification section are formed. a substrate on one side of which a photosensitive section for photoelectric conversion of incident light, and a separate amplification section for amplification of electric current outputs from the photosensitive section are formed; and a scintillator for converting radiation to visible light, which is arranged on the one side of the substrate; wherein: the photosensitive section includes a plurality of photodiodes arranged in a two-dimensional pattern and has a rectangular shape in planar view; and the amplification section includes: amplifiers for amplifying the electric current outputs from the plurality of photodiodes; capacitors connected in parallel with the amplifiers, and switching elements connected in parallel with the amplifiers and capacitors, characterised in that the scintillator covers a region where the photosensitive section and the amplification section are formed.
A pipe profile cutting machine a. having a cutting device and b. having a tensioning device by means of which a pipe can be tensioned in a centred manner in a horizontally running longitudinal axis and can be rotated about the longitudinal axis, c. having a chassis by means of which the pipe and/or the cutting device can be displaced in respect of one another parallel to the longitudinal axis, d. having a vertical drive by means of which the cutting device can be displaced in a vertically running vertical axis, e. having a rotary drive by means of which the cutting device can be rotated about the vertical axis, f. having a cutting head on the cutting device and g. having a pivot drive by means of which the cutting head is pivotable about a horizontal pivot axis and h. having an feed drive by means of which the cutting head can be fed in in a beam direction, wherein through rotation of the tensioning device and by means of the chassis, the vertical drive, the rotary drive, the pivot drive and the feed drive, the cutting head can be displaced in such a manner relative to the pipe that a cutting beam coming from the cutting head in the beam direction cuts a contour on the pipe, characterized by a tilting device, by means of which the tensioning device can be tilted in such a manner about 90 degrees that by means of the tensioning device a domed bottom for a container with a vertically running symmetrical axis can be tensioned in a centred manner and rotated about the symmetrical axis. a. having a cutting device and b. having a tensioning device by means of which a pipe can be tensioned in a centred manner in a horizontally running longitudinal axis and can be rotated about the longitudinal axis, c. having a chassis by means of which the pipe and/or the cutting device can be displaced in respect of one another parallel to the longitudinal axis, d. having a vertical drive by means of which the cutting device can be displaced in a vertically running vertical axis, e. having a rotary drive by means of which the cutting device can be rotated about the vertical axis, f. having a cutting head on the cutting device and g. having a pivot drive by means of which the cutting head is pivotable about a horizontal pivot axis and h. having an feed drive by means of which the cutting head can be fed in in a beam direction,
A hardener composition H for an aqueous epoxy resin based two-pack coating formulation wherein the hardener composition H comprises reaction products of - at least difunctional epoxides H1, - at least difunctional hydroxypolyoxyalkylenes H2, - optionally, at least difunctional hydroxyaromatic compounds H3, - unsaturated fatty acids H42 having a carboxyl functionality of more than one which comprise the so-called dimer fatty acids, - secondary amines H5 having additional carbonylimine-blocked primary amino groups, obtained by reaction of amines H51 having at least one, preferably at least two primary amino groups and at least one secondary amino group with carbonyl compounds H52 which have an aldehyde or ketone carbonyl group, and at least one, preferably both of - hydroxy-functional secondary amines H6 having at least one secondary amino group and at least one hydroxyl group, and - amines H7 having at least one primary, and at least one tertiary amino group, wherein the unsaturated fatty acids H42 are incorporated into the hardener in the form of beta-hydroxy esters, the specific amount of substance of beta-hydroxyester groups derived from unsaturated fatty acids H42, based on the mass of solids in the hardener H, being from 0.2 mol/kg to 2 mol/kg, and wherein water is added to these reaction products of H1, H2, H3, H42, H5, H6, and H7 to decompose the carbonylimines which are ketimines or aldimines, and to liberate the primary amino groups to form the hardener composition H. - at least difunctional epoxides H1, - at least difunctional hydroxypolyoxyalkylenes H2, - optionally, at least difunctional hydroxyaromatic compounds H3, - unsaturated fatty acids H42 having a carboxyl functionality of more than one which comprise the so-called dimer fatty acids, - secondary amines H5 having additional carbonylimine-blocked primary amino groups, obtained by reaction of amines H51 having at least one, preferably at least two primary amino groups and at least one secondary amino group with carbonyl compounds H52 which have an aldehyde or ketone carbonyl group, and at least one, preferably both of - hydroxy-functional secondary amines H6 having at least one secondary amino group and at least one hydroxyl group, and - amines H7 having at least one primary, and at least one tertiary amino group, - hydroxy-functional secondary amines H6 having at least one secondary amino group and at least one hydroxyl group, and - amines H7 having at least one primary, and at least one tertiary amino group,