mhurhangee/ep-ind-claims huggingface dataset:
Thermal insulating system for high temperature industrial tanks and equipment, comprising - an insulating material adapted to be placed on the walls of the industrial tanks and equipment, - a covering system covering the insulating material, and - a support system supporting the insulating material and the covering system, wherein - the covering system comprises a plurality of covering sheets, - in that each covering sheet is fixed only to the support system, - in that adjacent covering sheets overlap longitudinally one over the other, giving rise to overlapped sections, the overlapped sections comprising - an upper part belonging to one of the adjacent covering sheets and - a lower part belonging to the other adjacent covering sheet, - in that the covering system comprises at least a substantially omega-shaped longitudinal assembly clip placed at each overlapped section, on the interior sides of the covering sheets, the longitudinal assembly clip comprising in turn - a first end attached to the upper part of the overlapped section, - a central portion separated from the covering sheets, and - a second end contacting the lower part of the overlapped section and pressing said lower part, - and in that the longitudinal assembly clip retains the lower part of the overlapped sections against the upper part in such position that said lower part always contacts said upper part at least on one point. - an insulating material adapted to be placed on the walls of the industrial tanks and equipment, - a covering system covering the insulating material, and - a support system supporting the insulating material and the covering system, wherein - the covering system comprises a plurality of covering sheets, - in that each covering sheet is fixed only to the support system, - in that adjacent covering sheets overlap longitudinally one over the other, giving rise to overlapped sections, the overlapped sections comprising - an upper part belonging to one of the adjacent covering sheets and - a lower part belonging to the other adjacent covering sheet, - an upper part belonging to one of the adjacent covering sheets and - a lower part belonging to the other adjacent covering sheet, - in that the covering system comprises at least a substantially omega-shaped longitudinal assembly clip placed at each overlapped section, on the interior sides of the covering sheets, the longitudinal assembly clip comprising in turn - a first end attached to the upper part of the overlapped section, - a central portion separated from the covering sheets, and - a second end contacting the lower part of the overlapped section and pressing said lower part, - a first end attached to the upper part of the overlapped section, - a central portion separated from the covering sheets, and - a second end contacting the lower part of the overlapped section and pressing said lower part, - and in that the longitudinal assembly clip retains the lower part of the overlapped sections against the upper part in such position that said lower part always contacts said upper part at least on one point.
A method, comprising: receiving, by an element of a first station, header data and payload data from a networking application, wherein the payload data is to be transmitted in a packet to a second station via a wireless transmitter of the first station, wherein the header data specifies that the packet is associated with a first quality of service, QoS, category; analyzing, by the first station, at least one of the header data and the payload data, and at least one of an arrival rate of packets of the networking application received by the first station and an egress rate of packets of the networking application transmitted from the first station to the second station, to associate the packet with a second QoS category; and setting, by the first station, at least one bit of the IP header for the packet based on the analyzing to mark the packet and associate the packet with the second QoS category; wherein the priority of the second QoS category is higher than the priority of the first QoS category. receiving, by an element of a first station, header data and payload data from a networking application, wherein the payload data is to be transmitted in a packet to a second station via a wireless transmitter of the first station, wherein the header data specifies that the packet is associated with a first quality of service, QoS, category; analyzing, by the first station, at least one of the header data and the payload data, and at least one of an arrival rate of packets of the networking application received by the first station and an egress rate of packets of the networking application transmitted from the first station to the second station, to associate the packet with a second QoS category; and at least one of the header data and the payload data, and at least one of an arrival rate of packets of the networking application received by the first station and an egress rate of packets of the networking application transmitted from the first station to the second station, to associate the packet with a second QoS category; and setting, by the first station, at least one bit of the IP header for the packet based on the analyzing to mark the packet and associate the packet with the second QoS category; wherein the priority of the second QoS category is higher than the priority of the first QoS category.
A method for preparing a composite printing form comprising: a) providing one photosensitive element comprising a layer of a photopolymerizable composition and an infrared sensitive layer disposed above the photopolymerizable layer and covering or substantially covering the entire surface of the photopolymerizable layer, the element having a planar area; b) positioning the element adjacent a carrier characterized by having no marking or indicator for positioning of the element, wherein the positioning step comprises locating a leading edge of the one element at a distance from a leading edge of the carrier, and wherein 70% to 99% of the planar area of the carrier is covered by the one photosensitive element, such that no template is necessary to position the element; c) securing the element to the carrier; d) imagewise exposing the infrared sensitive layer with infrared laser radiation to form a mask on the element; e) overall exposing the element to actinic radiation through the mask; and f) treating the element of e) to form a relief structure on the carrier. a) providing one photosensitive element comprising a layer of a photopolymerizable composition and an infrared sensitive layer disposed above the photopolymerizable layer and covering or substantially covering the entire surface of the photopolymerizable layer, the element having a planar area; b) positioning the element adjacent a carrier characterized by having no marking or indicator for positioning of the element, wherein the positioning step comprises locating a leading edge of the one element at a distance from a leading edge of the carrier, and wherein 70% to 99% of the planar area of the carrier is covered by the one photosensitive element, such that no template is necessary to position the element; c) securing the element to the carrier; d) imagewise exposing the infrared sensitive layer with infrared laser radiation to form a mask on the element; e) overall exposing the element to actinic radiation through the mask; and f) treating the element of e) to form a relief structure on the carrier.
A method for configuring a network device using a portable computer-readable storage medium, the method comprising: reading in, at a computer, an XML schema for broadband modem device configuration comprising a session instance identifier element, a DHCP element for indicating whether DHCP is supported, and a link modulation element for indicating a type of broadband connection; reading in a configuration setting; generating a configuration settings XML file instance in accordance with the XML schema for broadband modem device configuration; and copying the configuration settings XML file; loading the configuration settings XML file onto the network device from the portable computer-readable storage medium; and configuring network settings of the network device based on the loaded configuration settings XML file; wherein the network device is a broadband modem device. reading in, at a computer, an XML schema for broadband modem device configuration comprising a session instance identifier element, a DHCP element for indicating whether DHCP is supported, and a link modulation element for indicating a type of broadband connection; reading in a configuration setting; generating a configuration settings XML file instance in accordance with the XML schema for broadband modem device configuration; and copying the configuration settings XML file; loading the configuration settings XML file onto the network device from the portable computer-readable storage medium; and configuring network settings of the network device based on the loaded configuration settings XML file; wherein the network device is a broadband modem device.
A computer aided diagnosis, CAD, apparatus (70, 100) comprising: a probe angular velocity detector (71, 103) configured to detect an angular velocity of a probe representing a change in an angle of the probe at a surface of an object; and a processor (73, 75, 105, 106) configured to: receive the angular velocity and an image captured by the probe, and segment the image into sub-regions based on the angular velocity; sample the sub-regions with a different sampling rate based on a depth of a sub-region from the surface of the object; and perform image processing to detect a lesion based on a sampling result of the processor. a probe angular velocity detector (71, 103) configured to detect an angular velocity of a probe representing a change in an angle of the probe at a surface of an object; and a processor (73, 75, 105, 106) configured to: receive the angular velocity and an image captured by the probe, and segment the image into sub-regions based on the angular velocity; sample the sub-regions with a different sampling rate based on a depth of a sub-region from the surface of the object; and perform image processing to detect a lesion based on a sampling result of the processor. receive the angular velocity and an image captured by the probe, and segment the image into sub-regions based on the angular velocity; sample the sub-regions with a different sampling rate based on a depth of a sub-region from the surface of the object; and perform image processing to detect a lesion based on a sampling result of the processor.
A non-contact IC tag comprising: a first member including an IC chip and a first antenna connected to the IC chip; a second member including a second antenna; and a movement restriction unit (25, 27) that, when the first member is moved to a predetermined position in the second member, restricts a movement of the first member from the predetermined position, wherein the predetermined position is a position where the first antenna and the second antenna are electromagnetically coupled to each other or a position where the first antenna and the second antenna are directly electrically conducted to each other, characterized in that the first member and the second member are configured to form an annular body at least when the first member is in the predetermined position, and to open a part of the annular body when the first member is in an open position which is different form the predetermined position.
An anchor for anchoring a flexible elongate device to tissue within a patient comprising: a first support having a first lumen; a second support having a second lumen; and a sleeve having a first end fixedly attached to the first support and a second end fixedly attached to the second support, wherein the sleeve is comprised of a flexible or semi-flexible material, and wherein the first support and the second support are comprised of a material that is more rigid than the material of the sleeve, wherein the first and second supports and the sleeve are aligned to allow the passage of the elongate device through the first lumen, second lumen and sleeve, and wherein rotation of at least the first support twists the sleeve so that the sleeve engages the elongate device in a manner that resists movement of the elongate device in relation to the sleeve, wherein the anchor is configured for attachment to the tissue, and wherein the sleeve is compliant and conforms to the elongate device in an atraumatic manner during engagement. a first support having a first lumen; a second support having a second lumen; and a sleeve having a first end fixedly attached to the first support and a second end fixedly attached to the second support, wherein the sleeve is comprised of a flexible or semi-flexible material, and wherein the first support and the second support are comprised of a material that is more rigid than the material of the sleeve, wherein the first and second supports and the sleeve are aligned to allow the passage of the elongate device through the first lumen, second lumen and sleeve, and wherein rotation of at least the first support twists the sleeve so that the sleeve engages the elongate device in a manner that resists movement of the elongate device in relation to the sleeve, wherein the anchor is configured for attachment to the tissue, and wherein the sleeve is compliant and conforms to the elongate device in an atraumatic manner during engagement.
A method for forming an interconnection structure for a semiconductor device, comprising: forming a first conductive layer above a first conductive line and a second conductive line, wherein the first and second conductive lines are arranged with a respective end portion abutting a spacer separating the first and second conductive lines from each other, wherein the first conductive line is covered by a first mask layer separating the first line from the conductive layer, and wherein the second conductive line is partly covered by a second mask layer, allowing a contacting portion of the first conductive layer to contact the second conductive line; etching the first conductive layer to form a set of third conductive lines, wherein at least one of the third conductive lines comprises said contacting portion forming a first via connection; forming spacers on side walls of the set of third conductive lines; forming, between two neighbouring spacers, a via hole extending through the first mask to the underlying first conductive line; and depositing a second conductive layer filling the via hole to form a second via connection and forming a set of fourth conductive lines extending between said spacers. forming a first conductive layer above a first conductive line and a second conductive line, wherein the first and second conductive lines are arranged with a respective end portion abutting a spacer separating the first and second conductive lines from each other, wherein the first conductive line is covered by a first mask layer separating the first line from the conductive layer, and wherein the second conductive line is partly covered by a second mask layer, allowing a contacting portion of the first conductive layer to contact the second conductive line; etching the first conductive layer to form a set of third conductive lines, wherein at least one of the third conductive lines comprises said contacting portion forming a first via connection; forming spacers on side walls of the set of third conductive lines; forming, between two neighbouring spacers, a via hole extending through the first mask to the underlying first conductive line; and depositing a second conductive layer filling the via hole to form a second via connection and forming a set of fourth conductive lines extending between said spacers.
Process for producing a composite material, comprising the following steps: (a) preparing a first aqueous solution comprising salts of bismuth and of nickel or of bismuth and of cobalt and further comprising a salt of magnesium; (b) preparing a second aqueous solution comprising a molybdenum compound and optionally a binder; (c) adding the first aqueous solution to the second aqueous solution, forming a first suspension; (d) adding a second suspension to the first suspension to form a third suspension, the second suspension comprising SiO 2 which has a pore volume in the range from 0.1 to 10 ml/g and an average particle size in the range from 3 to 20 μm; and (e) spray-calcining the third suspension at a temperature in the range from 300 to 600°C, to give the composite material comprising a bismuth-molybdenum-nickel mixed oxide or bismuth-molybdenum-cobalt mixed oxide. (a) preparing a first aqueous solution comprising salts of bismuth and of nickel or of bismuth and of cobalt and further comprising a salt of magnesium; (b) preparing a second aqueous solution comprising a molybdenum compound and optionally a binder; (c) adding the first aqueous solution to the second aqueous solution, forming a first suspension; (d) adding a second suspension to the first suspension to form a third suspension, the second suspension comprising SiO 2 which has a pore volume in the range from 0.1 to 10 ml/g and an average particle size in the range from 3 to 20 μm; and (e) spray-calcining the third suspension at a temperature in the range from 300 to 600°C, to give the composite material comprising a bismuth-molybdenum-nickel mixed oxide or bismuth-molybdenum-cobalt mixed oxide.
A method of preparing an aluminum alloy-resin composite, comprising the steps of: S1: anodizing a surface of an aluminum alloy substrate to form an oxide layer on the surface, in which the oxide layer is formed with nanopores having a pore size of 10 to 100nm; S2: immersing the resulting aluminum alloy substrate in step S1 in an alkaline solution having a pH of about 10 to about 13, to form corrosion pores having a pore size of 200nm to 2000nm in an outer surface of the oxide layer, wherein the alkaline solution consists of an aqueous solution consisting of at least one selected from a soluble carbonates, a soluble phosphate, a soluble sulfate, a soluble borate and NaOH S3: injection molding a resin onto the surface of the resulting aluminum alloy substrate in step S2 in a mold to obtain the aluminum alloy-resin composite. S1: anodizing a surface of an aluminum alloy substrate to form an oxide layer on the surface, in which the oxide layer is formed with nanopores having a pore size of 10 to 100nm; S2: immersing the resulting aluminum alloy substrate in step S1 in an alkaline solution having a pH of about 10 to about 13, to form corrosion pores having a pore size of 200nm to 2000nm in an outer surface of the oxide layer, wherein the alkaline solution consists of an aqueous solution consisting of at least one selected from a soluble carbonates, a soluble phosphate, a soluble sulfate, a soluble borate and NaOH S3: injection molding a resin onto the surface of the resulting aluminum alloy substrate in step S2 in a mold to obtain the aluminum alloy-resin composite.
A system for heat removal from server racks, comprising: a mixing chamber of a substantially rectangular frame, defined by: a first major surface configured to receive heat generated from the server racks, a second major surface configured to expel the heat to at least one heat removal cabinet; impermeable top, bottom and lateral surfaces disposed adjacent to the major surfaces, thus forming an enclosure of the mixing chamber; wherein: the mixing chamber comprises at least one divider configured to divide the mixing chamber into a plurality of partitions, wherein each partition of the plurality of partitions is configured to couple along the width and height of a server rack at the first major surface; and wherein each partition of the plurality of partitions is configured to couple along the width and height of a heat removal cabinet at the second major surface; and wherein the at least one divider has a web structure for enabling heated air therethrough so that a volume of the heated air is mixed homogenously and a temperature of the heated air in the mixing chamber approaches equilibrium. a first major surface configured to receive heat generated from the server racks, a second major surface configured to expel the heat to at least one heat removal cabinet; impermeable top, bottom and lateral surfaces disposed adjacent to the major surfaces, thus forming an enclosure of the mixing chamber; wherein: the mixing chamber comprises at least one divider configured to divide the mixing chamber into a plurality of partitions, wherein each partition of the plurality of partitions is configured to couple along the width and height of a server rack at the first major surface; and wherein each partition of the plurality of partitions is configured to couple along the width and height of a heat removal cabinet at the second major surface; and wherein the at least one divider has a web structure for enabling heated air therethrough so that a volume of the heated air is mixed homogenously and a temperature of the heated air in the mixing chamber approaches equilibrium. the mixing chamber comprises at least one divider configured to divide the mixing chamber into a plurality of partitions, wherein each partition of the plurality of partitions is configured to couple along the width and height of a server rack at the first major surface; and wherein each partition of the plurality of partitions is configured to couple along the width and height of a heat removal cabinet at the second major surface; and wherein the at least one divider has a web structure for enabling heated air therethrough so that a volume of the heated air is mixed homogenously and a temperature of the heated air in the mixing chamber approaches equilibrium.
A system consisting of a weapon barrel, a chamber muzzle brake, and a projectile which is arranged as ammunition in the weapon barrel, wherein the chamber muzzle brake is arranged at one end of the weapon barrel and has a hollow body with three outlet openings which are arranged radially on the body and at an angle of 120 degrees to each other, wherein in that the ammunition comprises a sabot which is designed in three parts, and in that the three parts of the sabot are arranged symmetrically, characterized in that the three parts of the sabot can be aligned according to the outlet openings of the chamber muzzle brake in order to improve the impact performance. wherein in that the ammunition comprises a sabot which is designed in three parts, and in that the three parts of the sabot are arranged symmetrically, characterized in that the three parts of the sabot can be aligned according to the outlet openings of the chamber muzzle brake in order to improve the impact performance.