mhurhangee/ep-ind-claims huggingface dataset:
A waveguide array antenna (120, 200, 300, 400) for satellite communications, the antenna (120, 200, 300, 400) being configured to transmit and/or receive a first polarization signal and a second polarization signal, said second polarization being orthogonal to said first polarization, and comprising an array of unit cells (250, 350, 600), wherein each unit cell (250, 350, 600) comprises: - a radiating element (253, 353, 402, 602); and - below said radiating element (253, 353, 402, 602), a mode filter (252, 352, 403, 603, 700) connected to said radiating element (253, 353, 402, 602), said mode filter (252, 352, 403, 603, 700) being configured to pass a fundamental mode of propagation of said first polarization signal and of said second polarization signal and to reject higher order modes of propagation, wherein said mode filter (252, 352, 403, 603, 700) comprises a center portion and two end portions (720, 730) at the two sides of the center portion, wherein the center portion is a waveguide having a cross section with a Malta Cross shape, and wherein each of said end portions (720, 730) has the form of a square waveguide comprising hollow cylindrical elements at its corners. - a radiating element (253, 353, 402, 602); and - below said radiating element (253, 353, 402, 602), a mode filter (252, 352, 403, 603, 700) connected to said radiating element (253, 353, 402, 602), said mode filter (252, 352, 403, 603, 700) being configured to pass a fundamental mode of propagation of said first polarization signal and of said second polarization signal and to reject higher order modes of propagation,
An NOP agonist that is a non-opioid molecule for use in a method for the treatment of pain comprising administering to an individual in need thereof an effective dose of said NOP agonist via craniofacial mucosal administration, provided that the NOP agonist is not co-administered with an oxytocin peptide.
An electronic device comprising: a cover which is rotatably attached in an openable/closable manner to a device case and conceals a storage section provided in the device case; an operating member which is exposed outside of the device case; and a lock member which locks the cover, and lifts the cover upward in an opening direction when the lock on the cover is released by the operating member characterized in that the operating member is rotatably attached to the device case, the lock member locks the cover in a state where the cover conceals the storage section, and lifts the cover upward in an opening direction when the lock on the cover is released by a rotation operation of the operating member, and by comprising an interlocking rotating section comprised in the lock member which rotates by the rotation operation of the operating member; a lock section which is provided in the interlocking rotating section, and which engages with an engaging section of the cover and locks the cover in a state where the cover conceals the storage section; and a lifting upward section which is provided in the interlocking rotating section and lifts the cover upward in the opening direction when the lock on the cover by the lock section is released. a cover which is rotatably attached in an openable/closable manner to a device case and conceals a storage section provided in the device case; an operating member which is exposed outside of the device case; and a lock member which locks the cover, and lifts the cover upward in an opening direction when the lock on the cover is released by the operating member characterized in that the operating member is rotatably attached to the device case, the lock member locks the cover in a state where the cover conceals the storage section, and lifts the cover upward in an opening direction when the lock on the cover is released by a rotation operation of the operating member, and by comprising an interlocking rotating section comprised in the lock member which rotates by the rotation operation of the operating member; a lock section which is provided in the interlocking rotating section, and which engages with an engaging section of the cover and locks the cover in a state where the cover conceals the storage section; and a lifting upward section which is provided in the interlocking rotating section and lifts the cover upward in the opening direction when the lock on the cover by the lock section is released.
A composition of matter comprising a plurality of nanowires on a graphitic substrate, said nanowires having been grown epitaxially on said graphitic substrate in the presence of a metal catalyst such that a catalyst deposit is located at the top of at least some of said nanowires, wherein said nanowires comprise at least one group III-V compound; wherein said nanowires have been grown in the direction for a cubic nanowire crystal structure or direction for hexagonal nanowire crystal structure; wherein a graphitic layer is in contact with at least some of the catalyst deposits on top of said nanowires; and wherein said graphitic substrate and said graphitic layer are made of graphene, graphane or graphene oxide
A bulk component supply device which is moved together with a mounting head for mounting electronic circuit components on a circuit substrate, comprising: a bulk component case which houses electronic circuit components in a loosely packed state as bulk components; a component passage which arranges bulk components in a line and guides the bulk components to a component supply section; the bulk component supply device being characterized by a bulk component transfer device which transfers bulk components to the component passage and which is equipped with a bulk component driving device which applies moving force in the direction of the component passage to bulk components inside the bulk component case, wherein the bulk component case and the component passage are fixed to each other to configure a passage-equipped component case, and wherein a leading passage-equipped component case, which is the passage-equipped component case which is moved together with the mounting head, and a following passage-equipped component case, which is a separate passage-equipped component case to the leading passage-equipped component case, are exchangeable with at least a driving source of the bulk component driving device being held on the mounting head. a bulk component case which houses electronic circuit components in a loosely packed state as bulk components; a component passage which arranges bulk components in a line and guides the bulk components to a component supply section; the bulk component supply device being characterized by a bulk component transfer device which transfers bulk components to the component passage and which is equipped with a bulk component driving device which applies moving force in the direction of the component passage to bulk components inside the bulk component case, wherein the bulk component case and the component passage are fixed to each other to configure a passage-equipped component case, and wherein a leading passage-equipped component case, which is the passage-equipped component case which is moved together with the mounting head, and a following passage-equipped component case, which is a separate passage-equipped component case to the leading passage-equipped component case, are exchangeable with at least a driving source of the bulk component driving device being held on the mounting head.
A communication system assembly comprising a communication module and a safety module, wherein the communication module is adapted to be connected to a network and to a host system, wherein the communication module is adapted to receive data from the network and provide a subset of said data as safety data to said safety module and provide a different subset of said data as process data to the host system, and wherein the communication module comprises software code portions representing one or more software objects, wherein said objects are adapted to communicate both with the safety module and the host system, such that data may be transferred from the safety module to the host system.
A (meth)acrylic block copolymer comprising a methacrylic polymer block and a methacrylic polymer block that each have an active energy ray curable group including a partial structure of the following general formula, and further comprising an acrylic polymer block that has no active energy ray curable groups and is present between the methacrylic polymer block and the methacrylic polymer block, the content of monomer units derived from methyl methacrylate relative to all monomer units in the methacrylic polymer block and the methacrylic polymer block being not less than 30 mass%, the content of monomer units derived from an alkyl acrylate ester having an alkyl group with 6 or more carbon atoms relative to all monomer units in the acrylic polymer block being not less than 40 mass%, wherein in the formula, R 1 is a hydrogen atom or a hydrocarbon group with 1 to 20 carbon atoms.
A catheter, comprising: an elongated body; a distal electrode assembly, including an electrode having a shell configured with an inner chamber, the shell having a wall defining a proximal portion and a distal portion, the wall of the distal portion having a plurality of apertures; a plurality of micro-elements extending through the inner chamber between the proximal portion and the distal portion, each micro-element having a distal end received in a respective aperture, each distal end being at least coextensive with an outer surface of the wall; and a control handle, characterised in that: each micro element includes a tube with a lumen through which extend thermistor wires and a lead wire, the thermistor wires and the lead wire being isolated from each other by a suitable electrically non-conductive and non-thermally insulative material that fills the lumen, and an electrically conductive shell cap to which the lead wire is soldered, the shell cap being cup-shaped with a u-shaped cross section the opening of which sits inside a distal end of the tube. an elongated body; a distal electrode assembly, including an electrode having a shell configured with an inner chamber, the shell having a wall defining a proximal portion and a distal portion, the wall of the distal portion having a plurality of apertures; a plurality of micro-elements extending through the inner chamber between the proximal portion and the distal portion, each micro-element having a distal end received in a respective aperture, each distal end being at least coextensive with an outer surface of the wall; and an electrode having a shell configured with an inner chamber, the shell having a wall defining a proximal portion and a distal portion, the wall of the distal portion having a plurality of apertures; a plurality of micro-elements extending through the inner chamber between the proximal portion and the distal portion, each micro-element having a distal end received in a respective aperture, each distal end being at least coextensive with an outer surface of the wall; and a control handle, characterised in that: each micro element includes a tube with a lumen through which extend thermistor wires and a lead wire, the thermistor wires and the lead wire being isolated from each other by a suitable electrically non-conductive and non-thermally insulative material that fills the lumen, and an electrically conductive shell cap to which the lead wire is soldered, the shell cap being cup-shaped with a u-shaped cross section the opening of which sits inside a distal end of the tube.
Support structure for an optical reflecting telescope comprising - a beam inlet where beams enter the support structure, - a primary support for a primary mirror, - a secondary support for a secondary mirror, - at least three struts which extend between the primary support and the secondary support, and - a beam outlet where the beams leave the support structure, wherein the support structure has the contour of a single shell hyperboloid, the primary support, the secondary support and the struts are configured so that they support the primary mirror and the secondary mirror so that a z-shaped beam path is provided between the beam inlet, the primary mirror, the secondary mirror and the beam outlet, and wherein all struts which extend between the primary support and the secondary support have the same length. - a beam inlet where beams enter the support structure, - a primary support for a primary mirror, - a secondary support for a secondary mirror, - at least three struts which extend between the primary support and the secondary support, and - a beam outlet where the beams leave the support structure, wherein the support structure has the contour of a single shell hyperboloid, the primary support, the secondary support and the struts are configured so that they support the primary mirror and the secondary mirror so that a z-shaped beam path is provided between the beam inlet, the primary mirror, the secondary mirror and the beam outlet, and wherein all struts which extend between the primary support and the secondary support have the same length.
A method for controlling a turbomachine equipped with a gas generator comprising, respectively, low-pressure and high-pressure, rotation shafts, the turbomachine including at least one electric machine (ME1, ME2) forming a device for injecting/taking-off power onto/from one of said rotation shafts, said method including steps included in a control loop and comprising: - the determining (E10, F10), for at least one shaft and as a function of a rating setpoint (N2_REQ) associated with said at least one shaft, of a variation dU of a mechanical power command, - the determining (E20, F20), for the set of electric machines and as a function of an injection/take-off setpoint (Pelec_REQ) associated with said set of electric machines, of a variation dPelec of a power injection/take-off command, - the determining (E30, F30) of a multivariable command (C_MULTI) including a fuel flow rate component (Wf_MULTI) as well as a power injection/take-off component (U1, U2) for each electric machine, said multivariable command being determined such as to: • optimize a constraint of tracking of said variations dU and dPelec, • observe operating limits of the turbomachine. - the determining (E10, F10), for at least one shaft and as a function of a rating setpoint (N2_REQ) associated with said at least one shaft, of a variation dU of a mechanical power command, - the determining (E20, F20), for the set of electric machines and as a function of an injection/take-off setpoint (Pelec_REQ) associated with said set of electric machines, of a variation dPelec of a power injection/take-off command, - the determining (E30, F30) of a multivariable command (C_MULTI) including a fuel flow rate component (Wf_MULTI) as well as a power injection/take-off component (U1, U2) for each electric machine, said multivariable command being determined such as to: • optimize a constraint of tracking of said variations dU and dPelec, • observe operating limits of the turbomachine. • optimize a constraint of tracking of said variations dU and dPelec, • observe operating limits of the turbomachine.
A seat unit for a passenger vehicle comprising: a lower support structure comprising at least two leg supports, each leg support comprising a central portion, a front portion, and a rear portion; and an upper support structure comprising a seat pan and a seat back integrally formed into a single component; characterised in that each leg support is integrally formed into a downwardly orientated arcuate shape such that the front portion and the rear portion extend downwardly from the central portion forming an arch so as to allow a load to be dispersed over the arch. a lower support structure comprising at least two leg supports, each leg support comprising a central portion, a front portion, and a rear portion; and an upper support structure comprising a seat pan and a seat back integrally formed into a single component;
An abnormality detection method of detecting abnormality of a blast furnace from tuyere images shot by cameras installed in vicinities of a plurality of tuyeres of the blast furnace, the abnormality detection method comprising: a collecting step of collecting, in a time-series manner, representative brightness vectors defined by representative brightnesses determined based on brightness values of respective pixels for each of the tuyeres image previously shot by the cameras at a same time; an extracting step of extracting a principal component vector by performing principal component analysis on the representative brightness vectors collected in the time-series manner; a calculating step of calculating, as an evaluation value, a length of a normal line drawn in a direction of the principal component vector from the representative brightness vector collected from the tuyere images shot by the cameras at the same time during an operation; and a detecting step of detecting the abnormality of the blast furnace by comparing the evaluation value with a predetermined threshold. a collecting step of collecting, in a time-series manner, representative brightness vectors defined by representative brightnesses determined based on brightness values of respective pixels for each of the tuyeres image previously shot by the cameras at a same time; an extracting step of extracting a principal component vector by performing principal component analysis on the representative brightness vectors collected in the time-series manner; a calculating step of calculating, as an evaluation value, a length of a normal line drawn in a direction of the principal component vector from the representative brightness vector collected from the tuyere images shot by the cameras at the same time during an operation; and a detecting step of detecting the abnormality of the blast furnace by comparing the evaluation value with a predetermined threshold.
A control switch mechanism (20, 30) comprising: an optical sensor (21, 31) that includes a light emitting element (21a, 31a) and a light receiving element (21b, 31b); and a mechanical structure (22, 32) configured to increase or decrease an amount of light received by the light receiving element (21b, 31b), wherein an increase and a decrease in output of an operation device are controlled along with an increase and decrease in amount of light received by the light receiving element (21b, 31b) due to relative movement between the optical sensor (21, 31) and the mechanical structure (22, 32), wherein the optical sensor (21, 31) is made of a reflection type optical sensor, and the mechanical structure (22, 32) is made of a reflector provided at a position facing the light emitting element (21a, 31a), characterized in that the reflector is inclined with respect to a plane vertical to an optical axis of light emitted from the light emitting element (21a, 31a), and an inclination angle of the reflector varies in accordance with a region of the reflector, corresponding to a relative moving amount between the optical sensor (21, 31) and the mechanical structure (22, 32). an optical sensor (21, 31) that includes a light emitting element (21a, 31a) and a light receiving element (21b, 31b); and a mechanical structure (22, 32) configured to increase or decrease an amount of light received by the light receiving element (21b, 31b), wherein an increase and a decrease in output of an operation device are controlled along with an increase and decrease in amount of light received by the light receiving element (21b, 31b) due to relative movement between the optical sensor (21, 31) and the mechanical structure (22, 32), wherein the optical sensor (21, 31) is made of a reflection type optical sensor, and the mechanical structure (22, 32) is made of a reflector provided at a position facing the light emitting element (21a, 31a), characterized in that the reflector is inclined with respect to a plane vertical to an optical axis of light emitted from the light emitting element (21a, 31a), and an inclination angle of the reflector varies in accordance with a region of the reflector, corresponding to a relative moving amount between the optical sensor (21, 31) and the mechanical structure (22, 32).
Operating terminal of an agricultural machine comprising computer hardware and computer software for operating the electrical and/or electronic functions of the connected agricultural machine, characterised in that hypervisor software is installed on the operating terminal, which software abstracts the guest systems connected thereto and the application software contained therein from the computer hardware, controls the communication between the guest systems, and allocates computing time of the computer hardware to the guest systems, the system architecture of the hypervisor software being configured for guest systems - G 2 to G n, as a basis for the application software of the manufacturer of the operating terminal and/or drivers for interfaces that are not to be made available to other partitions, - G X, as a basis for safety-critical application software, - G Y, as a basis for additional interface drivers which are to enable the other guest systems, with the exception of the guest system G X, to access different computer hardware and software interfaces, and - G 1, for retrofitting and retro-installation of an additional complete guest system, including the application software contained therein. - G 2 to G n, as a basis for the application software of the manufacturer of the operating terminal and/or drivers for interfaces that are not to be made available to other partitions, - G X, as a basis for safety-critical application software, - G Y, as a basis for additional interface drivers which are to enable the other guest systems, with the exception of the guest system G X, to access different computer hardware and software interfaces, and - G 1, for retrofitting and retro-installation of an additional complete guest system, including the application software contained therein.
An endoscopic suturing apparatus comprising: an elongated body portion; a first jaw member extending from the body portion; a second jaw member extending from the body portion opposing the first jaw member; a needle blade configured to secure a needle in the second jaw member; and characterised in that it further comprises: a split nest slide coupled to the second jaw member, the split nest slide being coupled to a flexible link that is configured to control movement of the split nest slide to position the needle in a folded, the needle lying flat and parallel to the jaw member, pointing proximally, or unfolded, the needle being perpendicular to and protruding from the gripping surface of the jaw member, position. an elongated body portion; a first jaw member extending from the body portion; a second jaw member extending from the body portion opposing the first jaw member; a needle blade configured to secure a needle in the second jaw member; and characterised in that it further comprises: a split nest slide coupled to the second jaw member, the split nest slide being coupled to a flexible link that is configured to control movement of the split nest slide to position the needle in a folded, the needle lying flat and parallel to the jaw member, pointing proximally, or unfolded, the needle being perpendicular to and protruding from the gripping surface of the jaw member, position. a split nest slide coupled to the second jaw member, the split nest slide being coupled to a flexible link that is configured to control movement of the split nest slide to position the needle in a folded, the needle lying flat and parallel to the jaw member, pointing proximally, or unfolded, the needle being perpendicular to and protruding from the gripping surface of the jaw member, position.