mhurhangee/ep-ind-claims huggingface dataset:
A joint mechanism comprising: two rotation members (9, 10); a support member that supports the two rotation members (9, 10) so as to be rotatable about two joint shafts (A, B) that are disposed in a skew-lines positional relationship with a space between each other; and a rotational-force transmitting mechanism that transmits a rotational force between the rotation members (9, 10), wherein the rotational-force transmitting mechanism is provided with a transmission member formed of a rigid piece that is supported so as to be movable only in a direction parallel to a line of intersection between planes (C, D) that are respectively orthogonal to the two joint shafts (A, B) and a cam mechanism that is disposed between the transmission member and the two rotation members (9, 10), respectively, and that converts rotational motions of the rotation members (9, 10) to a linear motion of the transmission member, wherein the cam mechanism includes an elongated hole that is provided in one of the rotation member (9, 10) and the transmission member and that extends in a direction that intersects a direction in which the transmission member moves and a movable portion that is accommodated in the elongated hole so as to be movable in the elongated hole in a longitudinal direction and that is provided in the other of the rotation member (9, 10) and the transmission member. two rotation members (9, 10); a support member that supports the two rotation members (9, 10) so as to be rotatable about two joint shafts (A, B) that are disposed in a skew-lines positional relationship with a space between each other; and a rotational-force transmitting mechanism that transmits a rotational force between the rotation members (9, 10), wherein the rotational-force transmitting mechanism is provided with a transmission member formed of a rigid piece that is supported so as to be movable only in a direction parallel to a line of intersection between planes (C, D) that are respectively orthogonal to the two joint shafts (A, B) and a cam mechanism that is disposed between the transmission member and the two rotation members (9, 10), respectively, and that converts rotational motions of the rotation members (9, 10) to a linear motion of the transmission member, wherein the cam mechanism includes an elongated hole that is provided in one of the rotation member (9, 10) and the transmission member and that extends in a direction that intersects a direction in which the transmission member moves and a movable portion that is accommodated in the elongated hole so as to be movable in the elongated hole in a longitudinal direction and that is provided in the other of the rotation member (9, 10) and the transmission member.
A method of producing a microelectronic device in a substrate comprising a first semiconductor layer disposed on a dielectric layer, the dielectric layer being disposed on a second semiconductor layer comprising at least a monocrystalline semiconductor, the method comprising at least the following steps: - etching a trench through the first semiconductor layer and the dielectric layer such that a bottom wall of the trench is formed by the top face of the second semiconductor layer, said top face being in contact with the dielectric layer, and such that the trench delimits, in the first semiconductor layer, at least one active region of the microelectronic device, - chemical vapor etching of the second semiconductor layer, at the level of the bottom wall of the trench, according to at least two crystalline planes of the second semiconductor layer, one of said two crystalline planes corresponding to a crystalline orientation of the second semiconductor layer, such that the ratio between the vertical etching rates and lateral etching rates is controlled, and such that an etched part of the second semiconductor layer extends under a part of the active region, - filling of the trench and of said etched part of the second semiconductor layer with a dielectric material, forming an isolation trench surrounding the active region and comprising, at the level of the etched part of the second semiconductor layer, at least one portion of the dielectric material extending under a part of the active region. - etching a trench through the first semiconductor layer and the dielectric layer such that a bottom wall of the trench is formed by the top face of the second semiconductor layer, said top face being in contact with the dielectric layer, and such that the trench delimits, in the first semiconductor layer, at least one active region of the microelectronic device, - chemical vapor etching of the second semiconductor layer, at the level of the bottom wall of the trench, according to at least two crystalline planes of the second semiconductor layer, one of said two crystalline planes corresponding to a crystalline orientation of the second semiconductor layer, such that the ratio between the vertical etching rates and lateral etching rates is controlled, and such that an etched part of the second semiconductor layer extends under a part of the active region, - filling of the trench and of said etched part of the second semiconductor layer with a dielectric material, forming an isolation trench surrounding the active region and comprising, at the level of the etched part of the second semiconductor layer, at least one portion of the dielectric material extending under a part of the active region.
A balloon catheter (1; 1', 1"; 10; 10'; 10") with a catheter shaft (12'; 12/13) and an expandable balloon portion (3c; 14; 14'), and with a working means for working on vascular deposits, characterised in that the working means comprises at least one proximally open and distally closed attachment tube (5; 5', 5"; 15; 15'; 15.1, 15.2) or a plurality of attachment tubes (5; 5', 5"; 15; 15'; 15.1, 15.2), in particular three to five attachment tubes, laid on the periphery of the balloon portion, and wherein the attachment tube or each attachment tube (5; 5', 5"; 15; 15'; 15.1, 15.2) is securely fixed to the catheter shaft (12'; 12/13) substantially only at the proximal balloon neck and at the distal balloon neck.
Method for controlling a data traffic between a communication device and a communication network via a communication link comprising the following steps: - supervision of communication applications on the communication device, - recognizing a data communication request of an active communication application, - comparison of the active communication application with at least one prioritizing feature, - unblock, reduce, prefer, accelerate or block a data communication of the active communication application on the basis of the result of the comparison, characterized in that a request for the current display of the communication device is made for the step of the comparison, wherein the data communication is unblocked when the active communication application is currently displayed on the display, and wherein the comparison of the active communication application is carried out with the prioritizing characteristic of the communication application and/or of the communication network at least with the prioritizing feature location of the communication device. - supervision of communication applications on the communication device, - recognizing a data communication request of an active communication application, - comparison of the active communication application with at least one prioritizing feature, - unblock, reduce, prefer, accelerate or block a data communication of the active communication application on the basis of the result of the comparison,
A combined brewing system for brewing a fermented alcoholic beverage at home or on a small scale, said system comprising a single vessel which is capable of being pressurized, wherein said vessel comprises a sealable opening, a temperature control system comprising a heating means, a refrigeration means and a temperature regulation device to selectively control the temperature of the contents of the vessel, wherein the temperature control system is integral with the vessel or removably coupled with the vessel,: sediment removal means comprising a tapered profile in the bottom region of the vessel and a sediment collection body which terminates with a dump valve which thereby enables the sediment to be removed from the vessel while the vessel is under pressure, means for regulating the pressure of the vessel to facilitate and control natural carbonation of the contents of the vessel resulting from fermentation, a means for receiving compressed gas to facilitate dispense of the contents of the vessel, and to maintain the natural carbonation level of the beverage, a draft dispense mechanism for drawing off the contents of the vessel, said vessel thereby being capable of accommodating at least the brewing steps of fermentation, natural carbonation, maturation, and draw off. sediment removal means comprising a tapered profile in the bottom region of the vessel and a sediment collection body which terminates with a dump valve which thereby enables the sediment to be removed from the vessel while the vessel is under pressure, means for regulating the pressure of the vessel to facilitate and control natural carbonation of the contents of the vessel resulting from fermentation, a means for receiving compressed gas to facilitate dispense of the contents of the vessel, and to maintain the natural carbonation level of the beverage, a draft dispense mechanism for drawing off the contents of the vessel, said vessel thereby being capable of accommodating at least the brewing steps of fermentation, natural carbonation, maturation, and draw off.
A juice extractor comprising: a food processing chamber including a food inlet, a juice outlet and a pulp outlet, wherein the food processing chamber comprises: a food entry section including the food inlet; and a food compression section extending between the food entry section and the food pulp outlet; a spindle extending through the food processing chamber for transporting food from the food entry section through the food compression section; and a motor including a gear box coupled to said spindle and adapted to rotate the spindle at a rotation speed of at least 250 rotations per minute during operation of the juice extractor, characterized in that said helical cutting portion comprises an angled or curved cutting blade with a cutting edge angled or pointing towards the food compression section, and in that said spindle comprises a body and a helical member extending from said body by a height of no more than 10 mm, said helical member including a helical cutting portion in the food entry section. a food processing chamber including a food inlet, a juice outlet and a pulp outlet, wherein the food processing chamber comprises: a food entry section including the food inlet; and a food compression section extending between the food entry section and the food pulp outlet; a spindle extending through the food processing chamber for transporting food from the food entry section through the food compression section; and a motor including a gear box coupled to said spindle and adapted to rotate the spindle at a rotation speed of at least 250 rotations per minute during operation of the juice extractor, characterized in that said helical cutting portion comprises an angled or curved cutting blade with a cutting edge angled or pointing towards the food compression section, and in that said spindle comprises a body and a helical member extending from said body by a height of no more than 10 mm, said helical member including a helical cutting portion in the food entry section. a food entry section including the food inlet; and a food compression section extending between the food entry section and the food pulp outlet; a spindle extending through the food processing chamber for transporting food from the food entry section through the food compression section; and a motor including a gear box coupled to said spindle and adapted to rotate the spindle at a rotation speed of at least 250 rotations per minute during operation of the juice extractor, characterized in that said helical cutting portion comprises an angled or curved cutting blade with a cutting edge angled or pointing towards the food compression section, and in that said spindle comprises a body and a helical member extending from said body by a height of no more than 10 mm, said helical member including a helical cutting portion in the food entry section.
Use of a composition for controlling nematode, the composition comprising, as an effective ingredient, a grammicin compound of the following chemical formula 1 or an agriculturally acceptable salt thereof:
Winding head arrangement for an electric rotating machine having at least one base body (26, 28) and a plurality of conductors that are embodied from a first metal material, wherein the base body (26, 28) comprises an electrically conductive material having an electrically insulating coating, wherein the conductors are connected to the base body (26, 28) via the electrically insulating coating, characterised in that the conductors are applied to the electrically insulating coating by means of a first additive production method. wherein the base body (26, 28) comprises an electrically conductive material having an electrically insulating coating, wherein the conductors are connected to the base body (26, 28) via the electrically insulating coating, characterised in that the conductors are applied to the electrically insulating coating by means of a first additive production method.
A bracket for attaching a light fitting to a ceiling or wall, the bracket comprising a main body to be directly applied to the ceiling or wall and to be flush with the ceiling or wall, the main body comprising: a central portion with a central aperture for the passage of an electrical cable coming out from the ceiling or wall, the central aperture being sized so that the electrical cable can pass through the central aperture; and at least two arm portions that extend from the central portion, wherein the at least two arm portions comprise elongated channels for receiving fasteners for fastening the bracket to the ceiling or wall, characterized in that the latitudinal dimension of the central aperture is equal to or greater than the latitudinal dimension of the arm portions.
A field device comprising a diagnoser configured to diagnose an operating state of the field device by hierarchically implementing a plurality of diagnostic processes, wherein the diagnoser is configured to select whether to enable or disable a upper layer diagnostic result of at least one upper layer diagnostic process of the diagnostic processes in a diagnostic process of a lower layer of the one diagnostic process, wherein the diagnoser is configured to perform a diagnostic process of a lower layer of the one diagnostic process based on the diagnostic result of one or a plurality of upper layer diagnostic processes, wherein, when disabling a upper layer diagnostic result of one upper layer diagnostic process, the diagnoser is configured to assume that the diagnostic result of the one upper layer diagnostic process is normal in the diagnostic process of a lower layer of the one diagnostic process, and wherein the diagnoser is configured to hold a parameter that indicates whether disabling a upper layer diagnostic result of a upper layer diagnostic process is being implemented or not, and is configured to select whether or not to assume that the upper layer diagnostic result of the one upper layer diagnostic process is normal on the basis of the parameter. wherein the diagnoser is configured to perform a diagnostic process of a lower layer of the one diagnostic process based on the diagnostic result of one or a plurality of upper layer diagnostic processes, wherein, when disabling a upper layer diagnostic result of one upper layer diagnostic process, the diagnoser is configured to assume that the diagnostic result of the one upper layer diagnostic process is normal in the diagnostic process of a lower layer of the one diagnostic process, and wherein the diagnoser is configured to hold a parameter that indicates whether disabling a upper layer diagnostic result of a upper layer diagnostic process is being implemented or not, and is configured to select whether or not to assume that the upper layer diagnostic result of the one upper layer diagnostic process is normal on the basis of the parameter.
A method for the manufacture of a microfluidic valve, wherein said method comprises performing the following steps: - arranging a substrate configuring a structural portion of the valve, wherein said substrate comprises at least one mechanically inert material to one or more physicochemical properties over time; - printing a succession of one or more filaments of a mechanically responsive material to one or more of said physicochemical properties over time, wherein said mechanically responsive material comprises at least one liquid crystal polymer, and wherein the succession of filaments configures a functional portion of the valve; characterized in that said method comprises an additional step of arranging the succession of filaments of the mechanically responsive material on the substrate of a mechanically inert material by applying an anti-adhesion treatment on one or more interfaces of said filaments and the substrate; wherein the substrate of a mechanically inert material and the filaments of the mechanically responsive material at least partially configure a fluid flow rate through the valve, wherein the succession of filaments of the mechanically responsive material is arranged, in the mentioned fluid flow rate, such that the variation in one or more of the physicochemical parameters causes a disruption in the molecular order of the LCP, contracting or expanding the material along a longitudinal or transversal direction of the filaments, and leading to an increase or reduction of the fluid flow rate. - arranging a substrate configuring a structural portion of the valve, wherein said substrate comprises at least one mechanically inert material to one or more physicochemical properties over time; - printing a succession of one or more filaments of a mechanically responsive material to one or more of said physicochemical properties over time, wherein said mechanically responsive material comprises at least one liquid crystal polymer, and wherein the succession of filaments configures a functional portion of the valve; characterized in that said method comprises an additional step of arranging the succession of filaments of the mechanically responsive material on the substrate of a mechanically inert material by applying an anti-adhesion treatment on one or more interfaces of said filaments and the substrate; wherein the substrate of a mechanically inert material and the filaments of the mechanically responsive material at least partially configure a fluid flow rate through the valve, wherein the succession of filaments of the mechanically responsive material is arranged, in the mentioned fluid flow rate, such that the variation in one or more of the physicochemical parameters causes a disruption in the molecular order of the LCP, contracting or expanding the material along a longitudinal or transversal direction of the filaments, and leading to an increase or reduction of the fluid flow rate.
A wavelength converting optical system comprising: a first wavelength converting optical sub-system which forms a fifth harmonic wave from a first fundamental wave via at least one wavelength converting optical element (3,4,6); a 'second' second harmonic wave forming optical element which forms a 'second' second harmonic wave from a second fundamental wave; a first optical member which combines a third fundamental wave and the 'second' second harmonic wave emitted from the 'second' second harmonic wave forming optical element on the same optical path; a second optical member which combines the third fundamental wave, the 'second' second harmonic wave emitted from the 'second' second harmonic wave forming optical element, and the fifth harmonic wave emitted from the first wavelength converting optical sub-system on the same optical path; a seventh harmonic wave forming optical element which forms a seventh harmonic wave from the second harmonic wave and the fifth harmonic wave; and an eighth harmonic wave forming optical element which forms an eighth harmonic wave from the third fundamental wave and the seventh harmonic wave emitted from the seventh harmonic wave forming optical element. a first wavelength converting optical sub-system which forms a fifth harmonic wave from a first fundamental wave via at least one wavelength converting optical element (3,4,6); a 'second' second harmonic wave forming optical element which forms a 'second' second harmonic wave from a second fundamental wave; a first optical member which combines a third fundamental wave and the 'second' second harmonic wave emitted from the 'second' second harmonic wave forming optical element on the same optical path; a second optical member which combines the third fundamental wave, the 'second' second harmonic wave emitted from the 'second' second harmonic wave forming optical element, and the fifth harmonic wave emitted from the first wavelength converting optical sub-system on the same optical path; a seventh harmonic wave forming optical element which forms a seventh harmonic wave from the second harmonic wave and the fifth harmonic wave; and an eighth harmonic wave forming optical element which forms an eighth harmonic wave from the third fundamental wave and the seventh harmonic wave emitted from the seventh harmonic wave forming optical element.