mhurhangee/ep-ind-claims huggingface dataset:
An evaluation method for permeability of a porous membrane that is inserted between a first flow channel and a second flow channel, the evaluation method comprising: acquiring a change that occurs inside a liquid accommodated in the second flow channel as an evaluation indicator of permeability of the porous membrane in a case of supplying a liquid to the first flow channel while continuously changing a supply pressure.
Suction-extraction apparatus for extracting a treatment fluid, in particular an etching fluid, by suction from an essentially planar treatment surface of treatment substrates, in particular printed circuit boards or conductor foils or semiconductor wafers, transported by means of transporting rollers (8, 10) along an essentially horizontal transporting direction, having - a suction source, - a suction-extraction-control unit, which activates the suction source, and - a suction-extraction-tube unit, which is connected to the suction source and has at least one suction-extraction lance, which can have one or more entry-side suction-extraction-nozzle openings positioned at a suction-extraction distance (A s) from the treatment surface, characterized in that - the suction source and the suction-extraction-control unit are designed for a suction-volume flow per suction-extraction lance of at least 30 m 3 /h and a negative suction pressure of no more than 8 kPa. - a suction source, - a suction-extraction-control unit, which activates the suction source, and - a suction-extraction-tube unit, which is connected to the suction source and has at least one suction-extraction lance, which can have one or more entry-side suction-extraction-nozzle openings positioned at a suction-extraction distance (A s) from the treatment surface, characterized in that - the suction source and the suction-extraction-control unit are designed for a suction-volume flow per suction-extraction lance of at least 30 m 3 /h and a negative suction pressure of no more than 8 kPa.
A reconfigurable radar unit comprises: a millimetre wave (mmW) transceiver (Tx/Rx) circuit comprising mmW Tx/Rx components and configured to radiate a transmit radar signal and receive an echo signal thereof; an integrated circuit having mixed analog and baseband components; and a signal processor circuit; wherein the mmW Tx/Rx circuit and mixed analog and baseband components and signal processor circuit are configured to support a plurality of radar signal types; and a radar sensitivity monitor and architecture reconfiguration control unit coupled to the signal processor circuit and at least one switching circuit and configured to monitor a radar performance, wherein the reconfigurable radar unit is characterized in that the plurality of radar signal types use the same mmW Tx/Rx components and employ different signal conditioning paths within the mixed analog and baseband components, and wherein, in response to a detection of a degradation in a monitored radar performance, the radar sensitivity monitor and architecture reconfiguration control unit initiates a change to a different radar signal type that is less affected by the degraded performance by switching to a use of a different transmit signal conditioning path from at least three different transmit signal conditioning paths in transmit mixed analog and baseband components and switching to a use of a different receive signal conditioning path from at least two different receive signal conditioning paths in receive mixed analog and baseband components. a millimetre wave (mmW) transceiver (Tx/Rx) circuit comprising mmW Tx/Rx components and configured to radiate a transmit radar signal and receive an echo signal thereof; an integrated circuit having mixed analog and baseband components; and a signal processor circuit; wherein the mmW Tx/Rx circuit and mixed analog and baseband components and signal processor circuit are configured to support a plurality of radar signal types; and a radar sensitivity monitor and architecture reconfiguration control unit coupled to the signal processor circuit and at least one switching circuit and configured to monitor a radar performance,
- Tyre for a heavy vehicle of the civil engineering type, comprising: - a tread, a crown reinforcement radially on the inside of the tread and a carcass reinforcement radially on the inside of the crown reinforcement, - the crown reinforcement comprising, radially from the outside inwards, - a protective reinforcement comprising at least one protective layer (51, 52) formed of elastic metallic reinforcers making with the circumferential direction an angle at least equal to 10°, - a working reinforcement comprising at least two working layers (61, 62) formed of inelastic metallic reinforcers which are crossed from one working layer to the next and make with the circumferential direction an angle of at most 60°, - an additional reinforcement centred on the equatorial plane of the tyre, comprising at least one additional layer (71, 72) formed of metallic reinforcers making with the circumferential direction an angle of at most 10°, characterized in that the metallic reinforcers of each additional layer (71, 72) are elastic and have a tensile elastic modulus at most equal to 150 GPa. - a tread, a crown reinforcement radially on the inside of the tread and a carcass reinforcement radially on the inside of the crown reinforcement, - the crown reinforcement comprising, radially from the outside inwards, - a protective reinforcement comprising at least one protective layer (51, 52) formed of elastic metallic reinforcers making with the circumferential direction an angle at least equal to 10°, - a working reinforcement comprising at least two working layers (61, 62) formed of inelastic metallic reinforcers which are crossed from one working layer to the next and make with the circumferential direction an angle of at most 60°, - an additional reinforcement centred on the equatorial plane of the tyre, comprising at least one additional layer (71, 72) formed of metallic reinforcers making with the circumferential direction an angle of at most 10°,
A resin comprising a structural unit derived from a compound represented by formula and a structural unit having an acid-labile group: wherein, in formula, R 1 represents a saturated hydrocarbon group having 1 to 24 carbon atoms which may have a substituent or an aromatic hydrocarbon group having 6 to 24 carbon atoms which may have a substituent, and a methylene group included in the saturated hydrocarbon group may be substituted with an oxygen atom or a carbonyl group, R 2 represents an alkyl group having 1 to 6 carbon atoms which may have a halogen atom, a hydrogen atom or a halogen atom, Ar represents an aromatic hydrocarbon group having 6 to 24 carbon atoms which may have a substituent, and L 1 represents a group represented by any one of formula (X 1 -1) to formula (X 1 -8): wherein, in formula (X1-5) to formula (X1-8), L 11, L 13, L 15 and L 17 each independently represent an alkanediyl group having 1 to 6 carbon atoms, L 12, L 14, L 16 and L 18 each independently represent -O-, -CO-, -CO-O-, -O-CO- or -O-CO-O, and ∗ and ∗∗ are bonds, and ∗∗ represents a bond to an iodine atom. R 1 represents a saturated hydrocarbon group having 1 to 24 carbon atoms which may have a substituent or an aromatic hydrocarbon group having 6 to 24 carbon atoms which may have a substituent, and a methylene group included in the saturated hydrocarbon group may be substituted with an oxygen atom or a carbonyl group, R 2 represents an alkyl group having 1 to 6 carbon atoms which may have a halogen atom, a hydrogen atom or a halogen atom, Ar represents an aromatic hydrocarbon group having 6 to 24 carbon atoms which may have a substituent, and L 1 represents a group represented by any one of formula (X 1 -1) to formula (X 1 -8): wherein, in formula (X1-5) to formula (X1-8), L 11, L 13, L 15 and L 17 each independently represent an alkanediyl group having 1 to 6 carbon atoms, L 12, L 14, L 16 and L 18 each independently represent -O-, -CO-, -CO-O-, -O-CO- or -O-CO-O, and ∗ and ∗∗ are bonds, and ∗∗ represents a bond to an iodine atom. L 11, L 13, L 15 and L 17 each independently represent an alkanediyl group having 1 to 6 carbon atoms, L 12, L 14, L 16 and L 18 each independently represent -O-, -CO-, -CO-O-, -O-CO- or -O-CO-O, and ∗ and ∗∗ are bonds, and ∗∗ represents a bond to an iodine atom.
A process for the preparation of the compound of formula comprising the following step: (ii) reacting a compound of formula with the nitric acid in the presence of the sulfuric acid or oleum, wherein the nitric acid is used in an amount of 2 to 20 mole equivalents per 1 mole of the compound.
A user equipment (100, 200) configured to select an interworking Wireless local area network, WLAN, access point (225, 230), the user equipment (100, 200) comprising: a network selection module adapted to receive a list of WLAN access points (225, 230) of one or more WLANs that interwork with an operator of a visited public land mobile network, VPLMN, of the user equipment (100, 200) or an operator of a home public land mobile network, HPLMN, of the user equipment (100, 200), and adapted to identify an access network discovery and selection function, ANDSF, policy wherein the network selection module is further adapted to receive a list of PLMNs connected to the WLAN access points in said list of WLAN access points; characterized in that the network selection module is adapted to select, by applying said an ANDSF policy, one of the WLAN access points in said list of WLAN access points (225, 230) before performing a PLMN selection process; and the network selection module is further adapted to perform the PLMN selection process to select one PLMN out of said list of PLMNs connected to the WLAN access points (225, 230) in said list of WLAN access points (225, 230) based on the selected WLAN access point. a network selection module adapted to receive a list of WLAN access points (225, 230) of one or more WLANs that interwork with an operator of a visited public land mobile network, VPLMN, of the user equipment (100, 200) or an operator of a home public land mobile network, HPLMN, of the user equipment (100, 200), and adapted to identify an access network discovery and selection function, ANDSF, policy wherein the network selection module is further adapted to receive a list of PLMNs connected to the WLAN access points in said list of WLAN access points; characterized in that the network selection module is adapted to select, by applying said an ANDSF policy, one of the WLAN access points in said list of WLAN access points (225, 230) before performing a PLMN selection process; and the network selection module is further adapted to perform the PLMN selection process to select one PLMN out of said list of PLMNs connected to the WLAN access points (225, 230) in said list of WLAN access points (225, 230) based on the selected WLAN access point.
A trail establishment method, wherein the method comprises: Sending, by a controller, a trail inquiry message to a dual stack node in a first network, wherein the trail inquiry message carries identification information of a sink end node of a trail, the sink end node is located in a second network, a source end node of the trail is located in the first network, and the dual stack node supports a protocol of the second network and a protocol of the first network; Receiving, by the controller, a trail feedback message sent by the dual stack node, and forming a virtual topology by using a network topology of the first network and a route, which is carried in the trail feedback message, from the dual stack node to the sink end node corresponding to the identification information of the sink end node, wherein the trail feedback message is a message that the dual stack node sends to the controller after receiving the trail inquiry message and determining the route from the dual stack node to the sink end node; and Acquiring, by the controller, a route, from the source end node to the sink end node, of the trail according to the virtual topology, and establishing a trail from the source end node to the sink end node. Sending, by a controller, a trail inquiry message to a dual stack node in a first network, wherein the trail inquiry message carries identification information of a sink end node of a trail, the sink end node is located in a second network, a source end node of the trail is located in the first network, and the dual stack node supports a protocol of the second network and a protocol of the first network; Receiving, by the controller, a trail feedback message sent by the dual stack node, and forming a virtual topology by using a network topology of the first network and a route, which is carried in the trail feedback message, from the dual stack node to the sink end node corresponding to the identification information of the sink end node, wherein the trail feedback message is a message that the dual stack node sends to the controller after receiving the trail inquiry message and determining the route from the dual stack node to the sink end node; and Acquiring, by the controller, a route, from the source end node to the sink end node, of the trail according to the virtual topology, and establishing a trail from the source end node to the sink end node.
A method for using a handoff controller for handing off a communication session of a mobile first user from a first network to a second network wherein the first network is either an IP network or a cellular network and the second network is of the other type and wherein a mobile handset operated by the mobile first user is in communication with a handset operated by a static second user comprising the steps of: sending a message from the handoff controller to the mobile handset instructing the mobile handset to monitor one or more predetermined characteristics of the air interface between the mobile user and the first network; sending a message from the mobile handset to the handoff controller when one or more predetermined characteristics have been met; receiving at the handoff controller information regarding the available connection points in the second network; determining in the handoff controller the identification of a connection point in the second network; sending a message from the handoff controller to the mobile handset identifying the connection point in the second network; establishing a communication session between the mobile user of the mobile handset and the second network; reconnecting the mobile user of the mobile handset and the static user; further comprising using SIP messages embedded with 802.21 primitives in order to collect information and distribute instructions regarding the handoff of the communication session of the mobile handset from the first network to the second network; wherein the SIP messages are sent and received from the handoff controller implemented in a service control point wherein the handoff controller uses the information to determine to the identity of a target connection point in the second network. sending a message from the handoff controller to the mobile handset instructing the mobile handset to monitor one or more predetermined characteristics of the air interface between the mobile user and the first network; sending a message from the mobile handset to the handoff controller when one or more predetermined characteristics have been met; receiving at the handoff controller information regarding the available connection points in the second network; determining in the handoff controller the identification of a connection point in the second network; sending a message from the handoff controller to the mobile handset identifying the connection point in the second network; establishing a communication session between the mobile user of the mobile handset and the second network; reconnecting the mobile user of the mobile handset and the static user; further comprising using SIP messages embedded with 802.21 primitives in order to collect information and distribute instructions regarding the handoff of the communication session of the mobile handset from the first network to the second network; wherein the SIP messages are sent and received from the handoff controller implemented in a service control point wherein the handoff controller uses the information to determine to the identity of a target connection point in the second network.
Frame for a drawer with securing elements (23, 24) lying opposite a frame body, which securing elements project above the frame body and are provided for attaching a wall element of the frame extending along the frame body between the securing elements (23, 24), wherein the securing elements (23, 24) have a receiving structure (32, 33) pointing towards the other respective securing element (23, 24) with laterally opposite support points for the wall element, characterised in that the securing elements (23, 24) have a cover element (4, 5) that surrounds the receiving structure (32, 33) so that at the top and side an opening remains that points to the other securing element (23, 24), wherein the cover element (4, 5) is configured as a cover cap or a cover hood, and the cover element (4, 5) is configured such that the cover element (4, 5) can be arranged both on the securing element on the front side of the frame and also on the securing element on the rear side of the frame and in that the cover element (4, 5) forms the foremost edge (12, 13, 17, 18) pointing to the other securing element (23, 24) at least on the sides, and in that the cover element (4, 5) has a receiving slot such that a wall element can be pushed in a direction from above in the direction of the frame body and parallel to the frame body into the receiving structure (32, 33) of the securing element (23, 24).
Device for producing containers by shaping preforms made of a thermoplastic material, the device having a plurality of molding units, each of which has at least two molding inserts and a plurality of transfer units movable at least in a transfer region for removing the container or preform from the molding unit, the mold inserts being arranged inside the transfer region in an opening position for transferring a container or preform and forming a chamber outside the transfer region in a closing position for shaping the container from a preform, characterized in that at least one of the plurality of transfer units has a drying device with at least one nozzle connected to the transfer unit for discharging a drying gas stream for drying at least a partial region of inner regions, which form the chamber, of the mold inserts arranged in the transfer region.
A delivery processing apparatus comprising: a conveying mechanism comprising a conveyor provided with a conveying route including a direction change path (35, 37) configured to change a conveying direction of a delivery object, at least a pair of conveying belts (4A, 4B) configured to sandwich the delivery object from both sides to convey the delivery object (s) along the conveying route, and a driver configured to drive the conveying belts; and a plurality of accumulators in which the delivery object conveyed by the conveying mechanism is to be accumulated, wherein one of the pair of conveying belts (4A, 4B) is an inner periphery conveying belt provided in the direction change path (35, 37) and the other of the pair of conveying belts is an outer periphery conveying belt which faces an outer peripheral surface of the inner periphery conveying belt, characterized in that the outer periphery conveying belt is extendable greater than the inner periphery conveying belt, and the direction change path (35, 37) comprises one or a plurality of rotating supports that are configured to come into contact with the delivery object and are rotatable around an axis intersecting the conveying direction. a conveying mechanism comprising a conveyor provided with a conveying route including a direction change path (35, 37) configured to change a conveying direction of a delivery object, at least a pair of conveying belts (4A, 4B) configured to sandwich the delivery object from both sides to convey the delivery object (s) along the conveying route, and a driver configured to drive the conveying belts; and a plurality of accumulators in which the delivery object conveyed by the conveying mechanism is to be accumulated, wherein one of the pair of conveying belts (4A, 4B) is an inner periphery conveying belt provided in the direction change path (35, 37) and the other of the pair of conveying belts is an outer periphery conveying belt which faces an outer peripheral surface of the inner periphery conveying belt, characterized in that the outer periphery conveying belt is extendable greater than the inner periphery conveying belt, and the direction change path (35, 37) comprises one or a plurality of rotating supports that are configured to come into contact with the delivery object and are rotatable around an axis intersecting the conveying direction.
An all solid battery (100, 200), comprising: a cell stack (10, 210) comprising a negative electrode, a solid electrolyte layer, and a positive electrode; a case accommodating the cell stack (10, 210); and a buffer material layer (30, 230, 231) pressurizing the cell stack (10, 210) in the case, wherein the buffer material layer (30, 230, 231) is a thermo-responsive polymer porous sheet, which volume is shrunken at a critical temperature or more and expanded when the temperature is reduced, wherein the buffer material layer (30, 230, 231) is a thermo-responsive polymer having a critical temperature of 50 °C to 80 °C, and wherein the thermo-responsive polymer is selected from poly(N-ethylmethacrylamide), poly(propylene glycol), poly(N-cyclopropylacrylamide), or a combination thereof. a cell stack (10, 210) comprising a negative electrode, a solid electrolyte layer, and a positive electrode; a case accommodating the cell stack (10, 210); and a buffer material layer (30, 230, 231) pressurizing the cell stack (10, 210) in the case, wherein the buffer material layer (30, 230, 231) is a thermo-responsive polymer porous sheet, which volume is shrunken at a critical temperature or more and expanded when the temperature is reduced, wherein the buffer material layer (30, 230, 231) is a thermo-responsive polymer having a critical temperature of 50 °C to 80 °C, and wherein the thermo-responsive polymer is selected from poly(N-ethylmethacrylamide), poly(propylene glycol), poly(N-cyclopropylacrylamide), or a combination thereof.
A pharmaceutical composition characterized in that the composition comprises, with respect to the core weight of the composition, • NAC in the range of 900-2500 mg • Sodium chloride at a rate up to 5% by weight • At least one sweetener and/or flavoring agent at a rate up to 5% by weight and • Optionally one or more pharmaceutically acceptable excipients selected from stabilizing agent, diluent, binder, disintegrant, lubricant, glidant and surfactant, wherein said composition is in the dosage forms of tablet, capsule, fast dissolving tablet or effervescent tablet. • NAC in the range of 900-2500 mg • Sodium chloride at a rate up to 5% by weight • At least one sweetener and/or flavoring agent at a rate up to 5% by weight and • Optionally one or more pharmaceutically acceptable excipients selected from stabilizing agent, diluent, binder, disintegrant, lubricant, glidant and surfactant,