mhurhangee/ep-ind-claims huggingface dataset:
Suction tube for a vacuum cleaner, wherein the suction tube has a catch means on at least one end, wherein a catch lug of an attachment element to be connected to the suction tube can be snapped into the catch means, wherein the suction tube and the catch means form a closed tube wall, so that the intake of additional air through the catch means into the suction tube is prevented, characterized in that an opening is formed in the tube wall and that an insert forming the catch means is inserted in the opening.
A magnet coil system, comprising - at least one coil section, wound with a high temperature superconductor (=HTSL) tape conductor, - and a low temperature superconductor (=LTS) wire, the HTSL-tape conductor and the LTS wire being electrically connected in series, - and the HTSL-tape conductor and the LTS wire forming a joint, characterized in that a first end section of the HTSL-tape conductor located before a first end of the HTSL-tape conductor and a first end section of the LTS wire located before a first end of the LTS wire are connected electrically, but not in a superconducting way, in a connecting section along the length of the connecting section, the LTS wire having a flat shape at least in the area of the connecting section and one side of the flat LTS wire abutting on the HTSL-tape conductor, and the connecting section exhibiting a length of at least 5 m. - at least one coil section, wound with a high temperature superconductor (=HTSL) tape conductor, - and a low temperature superconductor (=LTS) wire, - and the HTSL-tape conductor and the LTS wire forming a joint,
A method for dewatering a fiber and particle suspension in the manufacture of pulp, paper or board, wherein a fiber suspension is passed across an electrolytic cell and cell elements equipped with iron and/or aluminum electrodes (2, 3, 4) are used for generating iron and/or aluminum hydroxide working as a molecular sieve, characterized in that the fiber suspension is passed through a flow channel between successive tubular electrodes (2, 3, 4) of aluminum and/or iron and an inner electrode surrounding by the tubular electrodes (2, 3, 4) and made of stainless steel, nickel, chromium or platinum, the tubular electrodes (2, 3, 4) being connected to the plus pole of various power sources and the inner electrode being connected to the minus pole of the power sources, the method comprising the steps of - individually regulating the power sources to regulate the currents of the cell elements equipped with different electrodes - hydrogen released in electrolysis is used for raising the molecular sieve, and fibers and other possible fillers and particles trapped therein, into an upper part of the advancing fiber suspension, whereby purified water is separated into a lower part of the advancing fiber suspension, and - purified water is removed from the lower part of the advancing fiber suspension. - individually regulating the power sources to regulate the currents of the cell elements equipped with different electrodes - hydrogen released in electrolysis is used for raising the molecular sieve, and fibers and other possible fillers and particles trapped therein, into an upper part of the advancing fiber suspension, whereby purified water is separated into a lower part of the advancing fiber suspension, and - purified water is removed from the lower part of the advancing fiber suspension.
A method of manufacturing a bonded wafer, comprising: implanting at least one gas ion selected from a hydrogen ion and a rare gas ion into a bond wafer from a surface of the bond wafer to form a layer of the implanted ion; bonding the surface from which the ion is implanted into the bond wafer and a surface of a base wafer directly or through an insulator film; subsequently separating the bond wafer along the layer of the implanted ion to form a bonded wafer having a thin film on the base wafer; performing rapid thermal annealing under an atmosphere containing hydrogen on the bonded wafer after separating the bond wafer, the RTA including a period at which the temperature is rapidly increased, a retention period at which a high temperature is retained, and a period at which the temperature is rapidly decreased; and subsequently performing a sacrificial oxidation process to reduce a thickness of the thin film, wherein the RTA is performed under conditions of a retention start temperature of 1175°C to 1250°C and a retention end temperature of 1100°C to 1150°C; wherein a temperature fall occurs without a temperature rise during the retention period of transition between the retention start temperature and the retention end temperature. implanting at least one gas ion selected from a hydrogen ion and a rare gas ion into a bond wafer from a surface of the bond wafer to form a layer of the implanted ion; bonding the surface from which the ion is implanted into the bond wafer and a surface of a base wafer directly or through an insulator film; subsequently separating the bond wafer along the layer of the implanted ion to form a bonded wafer having a thin film on the base wafer; performing rapid thermal annealing under an atmosphere containing hydrogen on the bonded wafer after separating the bond wafer, the RTA including a period at which the temperature is rapidly increased, a retention period at which a high temperature is retained, and a period at which the temperature is rapidly decreased; and subsequently performing a sacrificial oxidation process to reduce a thickness of the thin film, wherein the RTA is performed under conditions of a retention start temperature of 1175°C to 1250°C and a retention end temperature of 1100°C to 1150°C; wherein a temperature fall occurs without a temperature rise during the retention period of transition between the retention start temperature and the retention end temperature.
A multi-basket clot capturing device, comprising: a distal basket connected to a wire, the distal basket being positionable distal of the clot and operable to capture a distal portion of a clot; a proximal basket connected to a hypotube that is slidably axially connected to the wire, the proximal basket being positionable proximal of the clot and operable to capture a proximal portion of the clot; a cage formable between the proximal and distal baskets, the cage being formable around multiple portions of the clot for capturing the clot; a plurality of struts of the distal basket; characterised in that the device further comprises: a plurality of spoke members pivotally connected between the struts and a distal end of the hypotube; wherein moving the hypotube distally relative to the wire causes the spoke members to expand the distal basket distal of the clot. a distal basket connected to a wire, the distal basket being positionable distal of the clot and operable to capture a distal portion of a clot; a proximal basket connected to a hypotube that is slidably axially connected to the wire, the proximal basket being positionable proximal of the clot and operable to capture a proximal portion of the clot; a cage formable between the proximal and distal baskets, the cage being formable around multiple portions of the clot for capturing the clot; a plurality of struts of the distal basket; characterised in that the device further comprises: a plurality of spoke members pivotally connected between the struts and a distal end of the hypotube; wherein moving the hypotube distally relative to the wire causes the spoke members to expand the distal basket distal of the clot.
A reconfigurable fluidic shutter (320, 400, 600, 700, 800, 900) arranged to selectively shield an antenna array comprising: a first surface and a second surface (322, 324, 410, 420, 630, 640, 730, 740, 830, 840 930, 940) spaced apart and defining a cavity (326, 424, 650, 750, 850, 950) therebetween; and at least one pump configured to pump a liquid (328, 660, 760, 860, 960) that attenuates electromagnetic radiation into the cavity, out of the cavity, or both; wherein the first and second surfaces (322, 324, 410, 420, 630, 640, 730, 740, 830, 840 930, 940) are transparent to electromagnetic radiation; wherein the liquid comprises a liquefied metal or alloy composition; and wherein, when the liquid is in the cavity (328, 660, 760, 860, 960), the liquid forms a metal sheet adapted to cover an antenna array aperture to prevent RF signals from entering or leaving the antenna array. a first surface and a second surface (322, 324, 410, 420, 630, 640, 730, 740, 830, 840 930, 940) spaced apart and defining a cavity (326, 424, 650, 750, 850, 950) therebetween; and at least one pump configured to pump a liquid (328, 660, 760, 860, 960) that attenuates electromagnetic radiation into the cavity, out of the cavity, or both; wherein the first and second surfaces (322, 324, 410, 420, 630, 640, 730, 740, 830, 840 930, 940) are transparent to electromagnetic radiation; wherein the liquid comprises a liquefied metal or alloy composition; and wherein, when the liquid is in the cavity (328, 660, 760, 860, 960), the liquid forms a metal sheet adapted to cover an antenna array aperture to prevent RF signals from entering or leaving the antenna array.
A pneumatic tire for a motorcycle comprising a tread portion (10, 20, 30, 40) formed into a ring shape, the tread portion (10, 20, 30, 40) being provided with circumferential shallow grooves (11a, 21a, 31a, 41a, 41a') formed by extending shallow grooves having a width of 0.1 to 2.0 mm and a depth of 0.1 to 2.0 mm in a tire circumferential direction, wherein a width of the circumferential shallow grooves provided in the tread portion is changed in a direction of extension of the circumferential shallow grooves.
An electronic vapour provision device comprising a power cell, a liquid store, and a vaporiser for vaporising liquid from the liquid store, wherein the vaporiser comprises a heating element and a heating element support, wherein the heating element is on the inside of the heating element support; wherein the heating element is not supported on its inside; wherein one or more gaps are provided between the heating element and the inner surface of the heating element support; and wherein the heating element is in contact with the heating element support at two or more locations.
Method for the production of an orthosis consisting of at least one upper and lower part, each in the form of a shell or clamp, which are adapted or approximated to the ergonomics of a body part of a patient to be treated, and an intermediate element (7, 9) coupling the upper and lower part, wherein at least the upper and /or lower part of the orthosis is produced according to the rapid prototyping method, characterized in that the external geometry of the relevant body part of the patient is individually measured and stored digitally as three-dimensional CAD data, and in that these ergonomics data read in in such a way with respect to the individual patient body part are superimposed with previously stored standardized shape data with respect to a simulated body part in such a way that a shape is obtained which is externally approximated to the simulated body part, but the internal dimensions of which are exactly adapted to the ergonomics of the body part to be treated.
An ablation probe tip having a shaft with an insertion end, said ablation probe tip being configured to receive ablation means from an ablation source, said ablation probe tip for ablating targeted tissue from within, said ablation probe tip comprising: (a) said shaft including a coaxial antenna, said coaxial antenna comprising: (i) an inner conductor; (ii) an annular dielectric insulator layer surrounding said inner conductor; and (iii) an annular outer conductor surrounding said annular dielectric insulator layer; (b) an annular aperture defined in said annular outer conductor toward said insertion end; (c) a center of ablation located within said inner conductor and surrounded by said annular aperture; (d) an annular heat transfer layer surrounding said coaxial antenna and spaced from said insertion end such that said annular aperture is between said annular heat transfer layer and said insertion end; (e) an annular tip cover at said insertion end, said annular tip cover surrounding and covering an end of said coaxial antenna and said annular aperture; (f) said center of ablation being a focal region from which said ablation means radiates through said annular aperture to form an ablation zone; and (g) said ablation zone (150, 160, 170) having a predetermined shape selected from the group consisting of oblate, spherical, and oblong. (a) said shaft including a coaxial antenna, said coaxial antenna comprising: (i) an inner conductor; (ii) an annular dielectric insulator layer surrounding said inner conductor; and (iii) an annular outer conductor surrounding said annular dielectric insulator layer; (i) an inner conductor; (ii) an annular dielectric insulator layer surrounding said inner conductor; and (iii) an annular outer conductor surrounding said annular dielectric insulator layer; (b) an annular aperture defined in said annular outer conductor toward said insertion end; (c) a center of ablation located within said inner conductor and surrounded by said annular aperture; (d) an annular heat transfer layer surrounding said coaxial antenna and spaced from said insertion end such that said annular aperture is between said annular heat transfer layer and said insertion end; (e) an annular tip cover at said insertion end, said annular tip cover surrounding and covering an end of said coaxial antenna and said annular aperture; (f) said center of ablation being a focal region from which said ablation means radiates through said annular aperture to form an ablation zone; and (g) said ablation zone (150, 160, 170) having a predetermined shape selected from the group consisting of oblate, spherical, and oblong.
A basket for transport and/or storage packaging of radioactive materials such as nuclear fuel assemblies, the basket comprising: at least one internal partition (6, 8) comprising at least one wall (80, 82, 84) having two opposite lateral surfaces (81, 85), and at least one peripheral partition, the internal partition (6, 8) delimits at least partially on either side of the same two cells intended to house the radioactive materials, the peripheral partition participating with the internal partition (6, 8) in delimiting the cells, the peripheral partition comprising at least one housing accommodating one end of the at least one wall (80, 82, 84), the housing comprising two opposite lateral housing surfaces (102, 106) and a bottom bringing together the two lateral housing surfaces (102, 106), characterised in that the basket comprises a tightening means configured to press at least one of the lateral wall surfaces (81, 85) against at least one of the lateral housing surfaces (102, 106). at least one internal partition (6, 8) comprising at least one wall (80, 82, 84) having two opposite lateral surfaces (81, 85), and at least one peripheral partition,
A solvated, heat seal coating mixture to be applied onto a surface of a packaging film or foil, said mixture comprising: a solvent; a heat seal resin comprising an amorphous or semi-crystalline polyester or co-polyester with a glass transition temperature (Tg), as measured by ASTM E1356-08, between - 35°C and 0°C and a Ring and Ball Softening Point, as measured by ASTM E28-99, between 60°C and 120°C, the heat seal resin being soluble in said solvent; and an anti-block additive; wherein said mixture when coated on a packaging film or foil and dried to form a heat sealable coating enables heat sealing of coated surfaces face-to-face on a form, fill and seal machine at a sealing temperature as low as 70°C. a solvent; a heat seal resin comprising an amorphous or semi-crystalline polyester or co-polyester with a glass transition temperature (Tg), as measured by ASTM E1356-08, between - 35°C and 0°C and a Ring and Ball Softening Point, as measured by ASTM E28-99, between 60°C and 120°C, the heat seal resin being soluble in said solvent; and an anti-block additive; wherein said mixture when coated on a packaging film or foil and dried to form a heat sealable coating enables heat sealing of coated surfaces face-to-face on a form, fill and seal machine at a sealing temperature as low as 70°C.
Method for service-based authentication of a terminal to a network, the terminal comprising one or more communications interfaces for setting-up a communication channel with the network, the method comprising the steps of: - sending a service request for access to a network service; - receiving in response to the service request an authentication request from the network; - identifying the communication channel through which the authentication request was received; - determining a service code SC associated with the identified communication channel; and, - sending an authentication response RES to the network, wherein the authentication response depends on the identified communication channel; characterized in that: - the authentication response RES is calculated on the basis of the information in the authentication request and the service code SC, thereby securely including information regarding the identity of the communication channel through which the authentication request was received into the authentication response RES. - sending a service request for access to a network service; - receiving in response to the service request an authentication request from the network; - identifying the communication channel through which the authentication request was received; - determining a service code SC associated with the identified communication channel; and, - sending an authentication response RES to the network, wherein the authentication response depends on the identified communication channel; - the authentication response RES is calculated on the basis of the information in the authentication request and the service code SC, thereby securely including information regarding the identity of the communication channel through which the authentication request was received into the authentication response RES.
An internal combustion engine having at least three cylinders (2, 2', 2") in a row in a crankcase and having a cylinder head with an intake side and an exhaust side, and also a respective web region between the cylinders (2, 2', 2"), wherein a first and a second coolant channel (7, 8) for a coolant, which channels are arranged substantially parallel to a longitudinal axis of the internal combustion engine, are provided for the cylinder head and/or for the crankcase, wherein the first and the second coolant channels (7, 8) are interconnected in a manner to convey coolant through at least one web hole (9, 9') and wherein the coolant can flow through the cylinder head substantially transversely and partly longitudinally to the longitudinal axis, characterised in that a flow cross section of the first coolant channel decreases in the flow direction of the coolant and a flow cross section of the second coolant channel increases in the flow direction of the coolant, it being possible for at least 50 % of the total conveyed coolant to be conveyed transversely to the longitudinal axis through the web hole (9, 9') and through the cylinder head.
A scraper for a drum of a road roller, comprising a scraper bar, a support rail on which the scraper bar is retained, a retaining apparatus for the support rail, and a support apparatus via which the scraper is fixed to the road roller, characterized in that the retaining apparatus is implemented over the length of the support rail as a T-profile or a dovetail profile, and a bolting element is provided as a counterpart which is complementary to the T-profile or dovetail profile, and that the support apparatus is clamped onto the retaining apparatus via the bolting element.
A terminal, comprising: a plurality of microphones; a display unit configured to display a content; and a controller configured to: obtain an input to at least one partial region of the displayed content, and control the display unit to output a video having the at least one partial region of the content move therein in a manner corresponding to the obtained input, characterized in that the controller is further configured to: obtain a sound around the terminal through the microphones, determine a direction of the obtained sound, and control the display unit to output the video having the at least one partial region move in the determined direction. a plurality of microphones; a display unit configured to display a content; and a controller configured to: obtain an input to at least one partial region of the displayed content, and control the display unit to output a video having the at least one partial region of the content move therein in a manner corresponding to the obtained input, characterized in that the controller is further configured to: obtain a sound around the terminal through the microphones, determine a direction of the obtained sound, and control the display unit to output the video having the at least one partial region move in the determined direction. obtain an input to at least one partial region of the displayed content, and control the display unit to output a video having the at least one partial region of the content move therein in a manner corresponding to the obtained input, characterized in that the controller is further configured to: obtain a sound around the terminal through the microphones, determine a direction of the obtained sound, and control the display unit to output the video having the at least one partial region move in the determined direction. obtain a sound around the terminal through the microphones, determine a direction of the obtained sound, and control the display unit to output the video having the at least one partial region move in the determined direction.
A system for tracking, with ultrasound, a medical instrument having mounted thereto an acoustic sensor that is configured to respond to ultrasonic energy received from an ultrasound imaging probe that is configured for transmitting and receiving ultrasonic energy in a plurality of beams, the system comprising: an ultrasound transducer for attaching to the ultrasound energy transmitting and receiving ultrasound imaging probe such that when attached to the ultrasound imaging probe the ultrasound transducer moves with said probe during use; and a control module configured to interpret the ultrasonic energy received from the ultrasound imaging probe by i) the ultrasound transducer and by ii) the acoustic sensor to determine a three dimensional location of the medical instrument; wherein the three dimensional location of the medical instrument is determined based on a signal from the ultrasound transducer indicative of when a particular beam of the ultrasound imaging probe is fired; and based on a signal from the acoustic sensor indicative of when the corresponding beam arrives at the acoustic sensor. an ultrasound transducer for attaching to the ultrasound energy transmitting and receiving ultrasound imaging probe such that when attached to the ultrasound imaging probe the ultrasound transducer moves with said probe during use; and a control module configured to interpret the ultrasonic energy received from the ultrasound imaging probe by i) the ultrasound transducer and by ii) the acoustic sensor to determine a three dimensional location of the medical instrument; wherein the three dimensional location of the medical instrument is determined based on a signal from the ultrasound transducer indicative of when a particular beam of the ultrasound imaging probe is fired; and based on a signal from the acoustic sensor indicative of when the corresponding beam arrives at the acoustic sensor.