mhurhangee/ep-ind-claims huggingface dataset:
A folded-waveguide slow-wave structure equipped with an internal load, comprising: - a central plate comprising a rectilinear beam slip hole of same direction as the longitudinal axis (z) of the central plate, and a serpentine- shaped folded slit having its folds in the direction of the width of the waveguide; - a lower plate and an upper plate closing the waveguide, placed on and under the central plate, respectively; - at least one groove with a cross section that may be variable or constant along the longitudinal axis (z) of the waveguide, in at least one face internal to the waveguide of the lower plate, the upper plate or the central plate, at least partially comprising a material with hyperfrequency losses; in order to form a closed slow-wave structure in which a hybrid slow wave propagates, the amplitude of which is attenuated by at least 20 dB between the start and the end of the portion of the groove(s) containing a lossy material - a central plate comprising a rectilinear beam slip hole of same direction as the longitudinal axis (z) of the central plate, and a serpentine- shaped folded slit having its folds in the direction of the width of the waveguide; - a lower plate and an upper plate closing the waveguide, placed on and under the central plate, respectively; - at least one groove with a cross section that may be variable or constant along the longitudinal axis (z) of the waveguide, in at least one face internal to the waveguide of the lower plate, the upper plate or the central plate, at least partially comprising a material with hyperfrequency losses;
A tri-axial nuclear magnetic resonance apparatus for testing of petro-physical properties and gathering of geo-mechanical information, the tri-axial nuclear magnetic resonance apparatus comprising: a tri-axial load frame encasing: a tri-axial load cell having a tri-axial sample holder and defining at least one space surrounding the tri-axial sample holder, the tri-axial load cell being suitable for applying axial stress on a sample when connected to a pump; at least one end cap operable to contact the tri-axial load cell; at least one electrical sensor for electrical analysis of the sample; at least one acoustic sensor for acoustic analysis of the sample; and a nuclear magnetic resonance instrument. a tri-axial load cell having a tri-axial sample holder and defining at least one space surrounding the tri-axial sample holder, the tri-axial load cell being suitable for applying axial stress on a sample when connected to a pump; at least one end cap operable to contact the tri-axial load cell; at least one electrical sensor for electrical analysis of the sample; at least one acoustic sensor for acoustic analysis of the sample; and a nuclear magnetic resonance instrument.
An injection molding machine comprising: a drive unit (300, 300a, 300b, 300c); and a control unit, wherein each of the drive unit (300, 300a, 300b, 300c) and the control unit includes a heat source in an internal space which is covered with a cover of each of the drive unit (300, 300a, 300b, 300c) and the control unit, characterized in that, the internal space of any one unit of the drive unit (300, 300a, 300b, 300c) and the control unit is cooled by a cooler, wherein the cooler is adapted for cooling air in an internal space of a frame, and in the cooler heated air inside the frame is forcibly circulated by an internal fan motor. a drive unit (300, 300a, 300b, 300c); and a control unit, wherein each of the drive unit (300, 300a, 300b, 300c) and the control unit includes a heat source in an internal space which is covered with a cover of each of the drive unit (300, 300a, 300b, 300c) and the control unit, characterized in that, the internal space of any one unit of the drive unit (300, 300a, 300b, 300c) and the control unit is cooled by a cooler, wherein the cooler is adapted for cooling air in an internal space of a frame, and in the cooler heated air inside the frame is forcibly circulated by an internal fan motor.
A surgical manipulator for manipulating a surgical instrument and an energy applicator extending from the surgical instrument, said surgical manipulator comprising: at least one controller configured to determine a commanded pose to which the energy applicator is advanced, wherein said commanded pose is determined based on a summation of a plurality of forces and torques; wherein said at least one controller is configured to control the operation of said surgical manipulator in a manual mode or a semi-autonomous mode by selectively adjusting said plurality of forces and torques, wherein, when operated in manual mode, the surgical manipulator is controlled to move the instrument in response to forces and torques applied by a user on the instrument, and, when operated in semi-autonomous mode, the surgical manipulator is controlled to move the instrument along a generated path of travel, wherein the path of travel is generated prior to operating the instrument in semi-autonomous mode and wherein the plurality of forces and torques are calculated by the controller, the plurality of forces and torques being the forces and torques necessary to move the instrument along the path of travel. at least one controller configured to determine a commanded pose to which the energy applicator is advanced, wherein said commanded pose is determined based on a summation of a plurality of forces and torques; wherein said at least one controller is configured to control the operation of said surgical manipulator in a manual mode or a semi-autonomous mode by selectively adjusting said plurality of forces and torques, wherein, when operated in manual mode, the surgical manipulator is controlled to move the instrument in response to forces and torques applied by a user on the instrument, and, when operated in semi-autonomous mode, the surgical manipulator is controlled to move the instrument along a generated path of travel, wherein the path of travel is generated prior to operating the instrument in semi-autonomous mode and wherein the plurality of forces and torques are calculated by the controller, the plurality of forces and torques being the forces and torques necessary to move the instrument along the path of travel. when operated in manual mode, the surgical manipulator is controlled to move the instrument in response to forces and torques applied by a user on the instrument, and, when operated in semi-autonomous mode, the surgical manipulator is controlled to move the instrument along a generated path of travel, wherein the path of travel is generated prior to operating the instrument in semi-autonomous mode and wherein the plurality of forces and torques are calculated by the controller, the plurality of forces and torques being the forces and torques necessary to move the instrument along the path of travel.
An overload protection means for a force measuring element, said force measuring element being provided in the form of a double or multiple bending beam with measuring transducers and including a limiting member which extends transversely to the direction of force application and which is fixedly joined to the clamping end or force receiving portion of the force measuring element, wherein the movable portion of the double or multiple bending beam and the limiting member are spaced apart from each other by a gap such that the deflection of the movable portion is limited, characterised in that the limiting member is provided in the form of an overload beam arranged at least in the interspace between two adjacent deformation bodies or bending beams (2, 3) and that a stop head is formed at the end of the overload beam, wherein said stop head projects into a recess in the movable portion of the double or multiple bending beam, said recess having at least one recess portion (15, 16) extending transversely to the longitudinal direction of the beam and by which the overload beam is separated from the movable portion, said recess portion (15, 16) extending in the region of the overload beam and also in the region of the movable portion, and wherein at least one dowel pin (4, 5) which leaves a defined gap (18, 19) between the overload beam and the movable portion is fixed inside the recess portion (15, 16).
A juicer having an autonomous circulation filtration function, comprising: a container, a filter barrel, and a return pipe; wherein the return pipe is configured to reflux juice in the container into the filter barrel for filtering; a lower end of the filter barrel is arranged in the container; an upper end of the return pipe forms a juice outlet end; a lower end of the return pipe forms a juice inlet end; the juice is introduced into the filter barrel through the juice outlet end and the juice inlet end; a liquid inlet is defined on the filter barrel; the liquid inlet is defined corresponding to the juice outlet end of the return pipe; characterized in that a rotating cutter is arranged on a bottom portion of the container, and in that a press-in portion is eccentrically arranged on the rotating cutter; wherein the press-in portion is configured to press the juice into the juice inlet end. a container, a filter barrel, and a return pipe; wherein the return pipe is configured to reflux juice in the container into the filter barrel for filtering; a lower end of the filter barrel is arranged in the container; an upper end of the return pipe forms a juice outlet end; a lower end of the return pipe forms a juice inlet end; the juice is introduced into the filter barrel through the juice outlet end and the juice inlet end; a liquid inlet is defined on the filter barrel; the liquid inlet is defined corresponding to the juice outlet end of the return pipe; characterized in that a rotating cutter is arranged on a bottom portion of the container, and in that a press-in portion is eccentrically arranged on the rotating cutter; wherein the press-in portion is configured to press the juice into the juice inlet end.
A battery protection and monitoring system, comprising: a plurality of MAFET (Mechanically Actuated Field Effect Transistor) switches (100; 201, 202, 203), wherein each MAFET switch among said plurality of MAFET switches (100; 201,202, 203) is capable of switching from an open switch condition to a closed switch condition or vice versa, said plurality of MAFET switches connectable to a battery; a plurality of MOSFET transistors (205, 206) associated with and which connect electrically with at least one MAFET switch (100; 201, 202, 203) among said plurality of MAFET switches; and a PPTC (Polymeric Positive Temperature Coefficient) device associated with said plurality of transistors and said plurality of MAFET switches (100; 201,202, 203) wherein said PPTC device, said plurality of MAFET switches and said plurality of transistors operate in association with one another and said open switch condition or said closed switch condition of said plurality of MAFET switches to identify, monitor and prevent at least one dangerous condition associated with said battery. a plurality of MAFET (Mechanically Actuated Field Effect Transistor) switches (100; 201, 202, 203), wherein each MAFET switch among said plurality of MAFET switches (100; 201,202, 203) is capable of switching from an open switch condition to a closed switch condition or vice versa, said plurality of MAFET switches connectable to a battery; a plurality of MOSFET transistors (205, 206) associated with and which connect electrically with at least one MAFET switch (100; 201, 202, 203) among said plurality of MAFET switches; and a PPTC (Polymeric Positive Temperature Coefficient) device associated with said plurality of transistors and said plurality of MAFET switches (100; 201,202, 203) wherein said PPTC device, said plurality of MAFET switches and said plurality of transistors operate in association with one another and said open switch condition or said closed switch condition of said plurality of MAFET switches to identify, monitor and prevent at least one dangerous condition associated with said battery.
A composition for use in a sensing element for one or more of: (i) monitoring leakage, (ii) a structural change, and (iii) temperature change in a hydrocarbon transportation or storage structure, the composition comprising: a polymer; and conductive nanoparticles admixed with and dispersed within the polymer, wherein the conductive nanoparticles are both of (i) carbon nanotubes and (ii) graphene nanoplatelets, and, optionally, wherein the composition further comprises semi conductive nanoparticles admixed with and dispersed within the polymer. wherein the conductive nanoparticles are both of (i) carbon nanotubes and (ii) graphene nanoplatelets, and, optionally, wherein the composition further comprises semi conductive nanoparticles admixed with and dispersed within the polymer.
Arrangement comprising a plug for sealing against an inner wall of a pipeline, wherein the plug comprises a main body, sealing means and actuation means for moving the sealing means from a retracted to an extended state in contact with the inner wall of the pipeline, said sealing means comprising an annular packer element, arranged between two relative movable body elements (5,6) of the main body actuated by the actuation means, wherein the packer element in a cross section transverse to a circumferential direction forms a mainly four sided shape in a retracted position, and wherein the packer element comprises a first section and at least a second section (711;713) and a third section (712;714,715), said second and third sections having a material with a larger rigidity than that of the first section, said second and third sections being formed in two outward facing corners of the cross-section of the packer element and are provided with springs embedded in the material forming the packer element, and means (720,722,724) in an outer peripheral surface formed by a first side of the packer element, which means comprises at least one peripheral rib connected to the first side of the first section of the packer element.
A hearing aid comprising: a wireless communications element for wireless communication; a signal processing element for providing an audio signal; a connector for coupling an in-ear element to the hearing aid; a first conductor connected to the wireless communications element; and a second conductor configured for carrying the audio signal to the connector; the first and second conductors each have first and second portions respectively, wherein the respective first portions are electrically connected to one another via the wireless communications element and the signal processing element, wherein the second portion of first conductor is arranged such that, in use, there is a capacitive coupling between the second portion of the first conductor and the second conductor, and characterized in that the first conductor, the wireless communications element, the signal processing element, a conductor interconnecting the wireless communication element and the signal processing element, the second conductor, and the capacitive coupling, are configured to act as an antenna for receiving wireless RF signals. a wireless communications element for wireless communication; a signal processing element for providing an audio signal; a connector for coupling an in-ear element to the hearing aid; a first conductor connected to the wireless communications element; and a second conductor configured for carrying the audio signal to the connector; the first and second conductors each have first and second portions respectively, wherein the respective first portions are electrically connected to one another via the wireless communications element and the signal processing element, wherein the second portion of first conductor is arranged such that, in use, there is a capacitive coupling between the second portion of the first conductor and the second conductor, and characterized in that the first conductor, the wireless communications element, the signal processing element, a conductor interconnecting the wireless communication element and the signal processing element, the second conductor, and the capacitive coupling, are configured to act as an antenna for receiving wireless RF signals.
A process for producing a composite body comprising an aerogel and a fiber-reinforced component, comprising the following successive steps: i) providing at least one semifinished textile fabric, ii) contacting said at least one semifinished textile fabric with at least one aerogel material, iii) infiltrating said semifinished textile fabric employed, and partially infiltrating said aerogel materials employed, with a liquid binder, and iv) curing the binder. i) providing at least one semifinished textile fabric, ii) contacting said at least one semifinished textile fabric with at least one aerogel material, iii) infiltrating said semifinished textile fabric employed, and partially infiltrating said aerogel materials employed, with a liquid binder, and iv) curing the binder.
A radio access network node for assisting a Dedicated Core Network, DCN, selection, the radio access network node comprising: means for receiving from one or more core network nodes (30, 300) coupled to the radio access network node a message for configuring at least one DCN supported by the one or more core network nodes (30, 300), wherein the message includes a list of DCN types that the one or more core network nodes (30, 300) support; means for broadcasting system information including information indicating the list of DCN types supported by the one or more core network nodes (30, 300); means for receiving from a mobile terminal which receives the system information, a Radio Resource Control, RRC, setup complete message including information for indicating the DCN type of the mobile terminal; and means for selecting at least one of the one or more core network nodes (30, 300) based on the DCN type of the mobile terminal and the list of DCN types supported by the one or more core network nodes (30, 300). means for receiving from one or more core network nodes (30, 300) coupled to the radio access network node a message for configuring at least one DCN supported by the one or more core network nodes (30, 300), wherein the message includes a list of DCN types that the one or more core network nodes (30, 300) support; means for broadcasting system information including information indicating the list of DCN types supported by the one or more core network nodes (30, 300); means for receiving from a mobile terminal which receives the system information, a Radio Resource Control, RRC, setup complete message including information for indicating the DCN type of the mobile terminal; and means for selecting at least one of the one or more core network nodes (30, 300) based on the DCN type of the mobile terminal and the list of DCN types supported by the one or more core network nodes (30, 300).
A water-soluble unit dose article comprising a water-soluble fibrous structure comprising a particle comprising a ratio of Linear Alkylbenzene Sulfonate to Alkylethoxylated Sulfate of greater than 1, preferably between 1.01 and 3, more preferably between 1.05 and 2.5, even more preferably between 1.1 and 2.0.
An effervescent beverage can comprising: a top surface; a bottom surface; and a body, wherein an inner surface of the body is provided with first recesses and second recesses, the first recesses have a diameter of 5 um or more and 20 um or less, characterised in that the number of the plurality of first recesses is 200 to 2000 per 1 mm 2, the second recesses have a diameter of 0.5 um or more and less than 5 um, and the number of the plurality of second recesses is 7000 to 15000 per 1 mm 2 a top surface; a bottom surface; and a body, wherein an inner surface of the body is provided with first recesses and second recesses, the first recesses have a diameter of 5 um or more and 20 um or less, characterised in that the number of the plurality of first recesses is 200 to 2000 per 1 mm 2, the second recesses have a diameter of 0.5 um or more and less than 5 um, and the number of the plurality of second recesses is 7000 to 15000 per 1 mm 2
A blood-donation system comprising: a blood-donating chair, the blood-donating chair having a power supply; and a controller affixed to or removable from the blood-donating chair, the controller configured to operatively link at a first time with a first blood-processing apparatus and at a second time with a second blood-processing apparatus, the controller configured to control the operation of the first blood-processing apparatus and/or the second blood-processing apparatus, wherein the blood-processing apparatuses receive and treat or process blood from donors, the power supply configured to supply power to the first and second blood-processing apparatuses. a blood-donating chair, the blood-donating chair having a power supply; and a controller affixed to or removable from the blood-donating chair, the controller configured to operatively link at a first time with a first blood-processing apparatus and at a second time with a second blood-processing apparatus, the controller configured to control the operation of the first blood-processing apparatus and/or the second blood-processing apparatus, wherein the blood-processing apparatuses receive and treat or process blood from donors, the power supply configured to supply power to the first and second blood-processing apparatuses.
A dental pressing furnace for producing a dental restoration part in a muffle by heating and pressing a blank, with a combustion chamber, a pressing stamp guided in a guide opening for applying pressing force to the heated blank in the muffle, characterized in that an optical conductor guided at least partially through the pressing stamp for conducting the temperature of the blank in the form of thermal radiation is configured to conduct the temperature of the blank from the combustion chamber, and that an optical temperature sensor connected to the optical conductor outside of the combustion chamber detects the temperature of the blank based on the thermal radiation which has been conducted to the outside.