mhurhangee/ep-ind-claims huggingface dataset:
A mobile terminal comprising: a touchscreen to display a perceived 3-Dimensional user interface for arranging at least one 3D object on a 3D space, the touchscreen to receive at least a first input and a second input; and a controller configured to select a 3D polyhedral space from the displayed 3D user interface based on the first input, to display at least one polyhedron (710, 840, 910, 920, 1000, 1610 and 1620) corresponding to the selected 3D polyhedral space, and to change a display state of the at least one polyhedron in response to the second input received via the touchscreen, wherein the controller changes the display state of the at least one polyhedron by enlarging, reducing, rotating or scrolling the at least one polyhedron, characterised in that: wherein the first input includes a first drag input for determining a region corresponding to a base side of the at least one polyhedron and a second drag input, after the first drag input, for determining a height of the at least one polyhedron having the base side, wherein the base side of the at least one polyhedron includes a polygon and the first drag input is for determining the polygon, which starts from a start point (810, 1510) and then returns to the start point. a touchscreen to display a perceived 3-Dimensional user interface for arranging at least one 3D object on a 3D space, the touchscreen to receive at least a first input and a second input; and a controller configured to select a 3D polyhedral space from the displayed 3D user interface based on the first input, to display at least one polyhedron (710, 840, 910, 920, 1000, 1610 and 1620) corresponding to the selected 3D polyhedral space, and to change a display state of the at least one polyhedron in response to the second input received via the touchscreen, wherein the controller changes the display state of the at least one polyhedron by enlarging, reducing, rotating or scrolling the at least one polyhedron, characterised in that: wherein the first input includes a first drag input for determining a region corresponding to a base side of the at least one polyhedron and a second drag input, after the first drag input, for determining a height of the at least one polyhedron having the base side, wherein the base side of the at least one polyhedron includes a polygon and the first drag input is for determining the polygon, which starts from a start point (810, 1510) and then returns to the start point. wherein the first input includes a first drag input for determining a region corresponding to a base side of the at least one polyhedron and a second drag input, after the first drag input, for determining a height of the at least one polyhedron having the base side, wherein the base side of the at least one polyhedron includes a polygon and the first drag input is for determining the polygon, which starts from a start point (810, 1510) and then returns to the start point.
A shell of a mobile communication terminal, comprising: a shell body made of transparent or semitransparent materials and having an outer surface and an inner surface, wherein there are patterns on the inner surface; a semitransparent-semireflecting layer formed on the outer surface of the shell body; wherein the patterns can be formed on a layer transferred on the inner surface of the shell body or can be carved on the inner surface of the shell body, and wherein the patterns can be observed from the outside of the shell body when there a light is transmitted from the inner surface to the outer surface, and the semitransparent-semireflecting layer appears as a mirror when no light is transmitted from the inner surface to the outer surface; and characterized in that the semitransparent-semireflecting layer has a transmittance of 5%-25% and comprises: a primer layer on the outer surface; an electroplated layer on the primer layer; a colored paint layer with predetermined thickness on the electroplated layer; and a topcoat layer with predetermined thickness on the colored paint layer. a shell body made of transparent or semitransparent materials and having an outer surface and an inner surface, wherein there are patterns on the inner surface; a semitransparent-semireflecting layer formed on the outer surface of the shell body; wherein the patterns can be formed on a layer transferred on the inner surface of the shell body or can be carved on the inner surface of the shell body, and wherein the patterns can be observed from the outside of the shell body when there a light is transmitted from the inner surface to the outer surface, and the semitransparent-semireflecting layer appears as a mirror when no light is transmitted from the inner surface to the outer surface; and a primer layer on the outer surface; an electroplated layer on the primer layer; a colored paint layer with predetermined thickness on the electroplated layer; and a topcoat layer with predetermined thickness on the colored paint layer.
Hot air cooking appliance, which comprises a heating block arranged in the upper part and a base arranged in the lower part and comprising a housing above which is located the heating block, said housing being capable of receiving a cooking vessel equipped with an upper opening intended to be disposed facing said heating block, the base comprising a front opening communicating with the housing and capable of enabling the passage of the cooking vessel for its insertion into said housing and its removal from it, said base further comprising two side walls (5, 6) each equipped with a free edge (5a, 6a) contiguous to the front opening, characterised in that said two side walls are also equipped with a transverse cutout (17, 18) on said side wall (5, 6) and leading to said free edge (5a, 6a), each of the cutouts (17, 18) being capable of receiving an element for gripping (20, 21) the cooking vessel so as to preserve manual access to each element for gripping (20, 21) said cooking vessel by said side walls (5, 6) during the insertion of the cooking vessel into said housing or of the removal of the cooking vessel from said housing and capable of enabling the passage of the elements for gripping (20, 21) the cooking vessel by letting them exceed outside of the side walls (5, 6) when said cooking vessel is inserted into the housing, and in that the heating block is removably mounted on the base, said heating block being capable of being placed directly on an upper opening of a cooking vessel independently from said base.
A fluid leakage detector of a marine hose, comprising: a communication pipe that communicates with a fluid retention layer formed between reinforcing layers (4,6) layered on an outer circumference side of a fluid flow path of the marine hose and extends to a hose surface; a casing having a hollow portion that communicates with the communication pipe and that is disposed on the hose surface; a detecting body housed in the hollow portion; and a window portion isolating the hollow portion from outside the casing; the fluid leakage detector of the marine hose being characterized by further comprising: a partition portion formed of a fiber optic plate that is disposed on a surface on the hollow portion side of the window portion; and a movement mechanism that brings the detecting body and the partition portion to be in proximity to or distant from each other by moving at least one of the detecting body or the partition portion in accordance with a change in pressure acting on the hollow portion through the communication pipe. a communication pipe that communicates with a fluid retention layer formed between reinforcing layers (4,6) layered on an outer circumference side of a fluid flow path of the marine hose and extends to a hose surface; a casing having a hollow portion that communicates with the communication pipe and that is disposed on the hose surface; a detecting body housed in the hollow portion; and a window portion isolating the hollow portion from outside the casing; the fluid leakage detector of the marine hose being characterized by further comprising: a partition portion formed of a fiber optic plate that is disposed on a surface on the hollow portion side of the window portion; and a movement mechanism that brings the detecting body and the partition portion to be in proximity to or distant from each other by moving at least one of the detecting body or the partition portion in accordance with a change in pressure acting on the hollow portion through the communication pipe. a partition portion formed of a fiber optic plate that is disposed on a surface on the hollow portion side of the window portion; and a movement mechanism that brings the detecting body and the partition portion to be in proximity to or distant from each other by moving at least one of the detecting body or the partition portion in accordance with a change in pressure acting on the hollow portion through the communication pipe.
An information processing system comprising: processing circuitry configured to receive input data from a shock sensor which outputs data based on a shock on the shock sensor, and identify a target segment of time-series data that is output from a motion sensor that senses a motion of an object, wherein the target segment includes a pre-shock portion that occurs before a shock event and a post-shock portion that occurs after the shock event, the shock event is recognized based on the data from the shock sensor, wherein the shock sensor and the motion sensor are acceleration sensors, and the system includes the shock sensor and the motion sensor, the shock sensor having a greater dynamic range in acceleration than the motion sensor and the motion sensor having a greater resolution than the shock sensor. receive input data from a shock sensor which outputs data based on a shock on the shock sensor, and identify a target segment of time-series data that is output from a motion sensor that senses a motion of an object, wherein the target segment includes a pre-shock portion that occurs before a shock event and a post-shock portion that occurs after the shock event, the shock event is recognized based on the data from the shock sensor, wherein the shock sensor and the motion sensor are acceleration sensors, and the system includes the shock sensor and the motion sensor, the shock sensor having a greater dynamic range in acceleration than the motion sensor and the motion sensor having a greater resolution than the shock sensor.
A metal member in which at least a surface is made of an aluminum-based metal, comprising a corrosion protection film containing a poorly water-soluble lithium compound on the surface or a solid material of poorly water-soluble lithium compound in a form of particles or a plate on the surface attached or fixed onto the surface by using adhesive means, and wherein the poorly water-soluble lithium compound is at least one compound selected from the group consisting of LiH(AlO 2) 2 ·5H 2 O, LiAl 2 7 ·xH 2 O, LiAlO 2, Li 3 PO 4, and Li 2 CO 3, and wherein the corrosion protection film is a coating film in which the content of the poorly water-soluble lithium compound per unit area is 1 to 200 g/m 2.
A method of performing an uplink transmission procedure by a wireless terminal, the method comprising: transmitting a random access preamble to a base station (20, 21, 22, 23); receiving a random access response from the base station; and performing an uplink transmission using an uplink grant from the base station, wherein if the uplink transmission is for a RACH MSG3, a first maximum number of Hybrid Automatic Repeat reQuest, HARQ, transmissions parameter is used for the uplink transmission, wherein if the uplink transmission is for data other than the RACH MSG3, a second maximum number of HARQ transmissions parameter is used for the uplink transmission, and wherein the first maximum number of HARQ transmission parameter is received via system information and the second maximum number of HARQ transmission parameter is received via dedicated signaling. transmitting a random access preamble to a base station (20, 21, 22, 23); receiving a random access response from the base station; and performing an uplink transmission using an uplink grant from the base station, wherein if the uplink transmission is for a RACH MSG3, a first maximum number of Hybrid Automatic Repeat reQuest, HARQ, transmissions parameter is used for the uplink transmission, wherein if the uplink transmission is for data other than the RACH MSG3, a second maximum number of HARQ transmissions parameter is used for the uplink transmission, and wherein the first maximum number of HARQ transmission parameter is received via system information and the second maximum number of HARQ transmission parameter is received via dedicated signaling.
A merchandise security system (100, 200, 300, 400) for protecting items of merchandise from theft, the merchandise security system comprising: an electronic key; and a merchandise security device comprising: a lock mechanism (150, 250, 350, 350A, 450); and a shape memory material (154, 254, 354, 354A, 454) operably engaged with the lock mechanism (150, 250, 350, 350A, 450) and configured to receive electrical power from the electronic key for locking and unlocking the lock mechanism (150, 250, 350, 350A, 450), wherein the shape memory material (154, 254, 354, 354A, 454) is configured to change in shape in response to receiving electrical power to thereby lock or unlock the lock mechanism (150, 250, 350, 350A, 450), wherein no physical force is exerted by the electronic key on the lock mechanism (150, 250, 350, 350A, 450) in order to lock or unlock the lock mechanism (150, 250, 350, 350A, 450) characterized in that, the merchandise security device does not include a rectifier, a battery, and a logic control circuit to facilitate locking or unlocking thereof. an electronic key; and a merchandise security device comprising: a lock mechanism (150, 250, 350, 350A, 450); and a shape memory material (154, 254, 354, 354A, 454) operably engaged with the lock mechanism (150, 250, 350, 350A, 450) and configured to receive electrical power from the electronic key for locking and unlocking the lock mechanism (150, 250, 350, 350A, 450), wherein the shape memory material (154, 254, 354, 354A, 454) is configured to change in shape in response to receiving electrical power to thereby lock or unlock the lock mechanism (150, 250, 350, 350A, 450), wherein no physical force is exerted by the electronic key on the lock mechanism (150, 250, 350, 350A, 450) in order to lock or unlock the lock mechanism (150, 250, 350, 350A, 450) characterized in that, the merchandise security device does not include a rectifier, a battery, and a logic control circuit to facilitate locking or unlocking thereof. a lock mechanism (150, 250, 350, 350A, 450); and a shape memory material (154, 254, 354, 354A, 454) operably engaged with the lock mechanism (150, 250, 350, 350A, 450) and configured to receive electrical power from the electronic key for locking and unlocking the lock mechanism (150, 250, 350, 350A, 450), wherein the shape memory material (154, 254, 354, 354A, 454) is configured to change in shape in response to receiving electrical power to thereby lock or unlock the lock mechanism (150, 250, 350, 350A, 450), wherein no physical force is exerted by the electronic key on the lock mechanism (150, 250, 350, 350A, 450) in order to lock or unlock the lock mechanism (150, 250, 350, 350A, 450) characterized in that, the merchandise security device does not include a rectifier, a battery, and a logic control circuit to facilitate locking or unlocking thereof.
A failure recovery method, comprising: sending (4B08), by a session management function, SMF, a SMF registration request to a unified data management, UDM, wherein the SMF registration request carries Internet protocol multimedia core network subsystem, IMS, attribute information; after the SMF registration is successfully executed, receiving, by the SMF, from the UDM, a proxy call session control function, P-CSCF, failure recovery indication; and initiating, by the SMF, after receiving the P-CSCF failure recovery indication, a P-CSCF failure recovery process that comprises sending, by the SMF, a PDU connection change request via an access management function, AMF, to a user equipment, UE, wherein the PDU connection change request carries an updated P-CSCF address list. sending (4B08), by a session management function, SMF, a SMF registration request to a unified data management, UDM, wherein the SMF registration request carries Internet protocol multimedia core network subsystem, IMS, attribute information; after the SMF registration is successfully executed, receiving, by the SMF, from the UDM, a proxy call session control function, P-CSCF, failure recovery indication; and initiating, by the SMF, after receiving the P-CSCF failure recovery indication, a P-CSCF failure recovery process that comprises sending, by the SMF, a PDU connection change request via an access management function, AMF, to a user equipment, UE, wherein the PDU connection change request carries an updated P-CSCF address list.
An Ethernet ring node comprising: - a plurality of ports (140, 150), the ports including at least two ring ports among the plurality of ports and at least one non-ring port, each ring port being configured to connect the Ethernet ring node to an adjacent Ethernet ring node, - a multicast list including information on which port (140, 150) which kind of multicast traffic belonging to a multicast group should be sent, - a control unit configured to control a traffic distribution of multicast traffic to the different ports (140, 150) of the Ethernet ring node based on the information provided in the multicast list, - a detector configured to detect a topology change of the Ethernet ring in which the Ethernet ring node is provided, wherein, when the detector detects a topology change the control unit transmits all multicast traffic to the at least two ring ports for a predefined period of time and transmits multicast traffic to the at least one non-ring port in accordance with the information provided in the multicast list, wherein, when the detector has detected the topology change, the control unit is configured to clear the information in the multicast list given for the at least two ring ports of said Ethernet ring node and is configured to leave the information given for the at least one non-ring port of the Ethernet ring node unchanged. - a plurality of ports (140, 150), the ports including at least two ring ports among the plurality of ports and at least one non-ring port, each ring port being configured to connect the Ethernet ring node to an adjacent Ethernet ring node, - a multicast list including information on which port (140, 150) which kind of multicast traffic belonging to a multicast group should be sent, - a control unit configured to control a traffic distribution of multicast traffic to the different ports (140, 150) of the Ethernet ring node based on the information provided in the multicast list, - a detector configured to detect a topology change of the Ethernet ring in which the Ethernet ring node is provided, wherein, when the detector detects a topology change the control unit transmits all multicast traffic to the at least two ring ports for a predefined period of time and transmits multicast traffic to the at least one non-ring port in accordance with the information provided in the multicast list, wherein, when the detector has detected the topology change, the control unit is configured to clear the information in the multicast list given for the at least two ring ports of said Ethernet ring node and is configured to leave the information given for the at least one non-ring port of the Ethernet ring node unchanged.
An integrated sensor assembly comprising: - an interconnecting member; and - at least one sensor member that is electrically interconnected with the interconnecting member at one end of the interconnecting member; wherein each of the at least one sensor member and the interconnecting member comprises a polymer and a core element that is substantially non-metallic, and wherein each of the at least once sensor member and the interconnecting member comprises a composite formed by compositing the core element with the polymer, the composite comprising a first length obtained by shaping a section of the composite by reducing one or more dimensions thereof, and a second length, wherein the sensor member is formed by applying polymeric overcoat formed as a band having a length of 3 mm to 4 mm from a tip of the first length and a length of 5 mm to 6 mm from the second length. - an interconnecting member; and - at least one sensor member that is electrically interconnected with the interconnecting member at one end of the interconnecting member; wherein a polymer and a core element that is substantially non-metallic, and
A formulation comprising an aqueous carrier having a pH of 5.5 to 8.0 and a polypeptide comprising one or more single variable domains at a concentration of 120 mg/mL or more, said formulation being formulated for administration to a human subject and said formulation further comprising a buffer at a concentration of 10mM to 100mM selected from histidine pH 6.0-6.5, wherein said formulation has an inorganic salt concentration of 150 mM or lower and wherein the polypeptide comprises at least one single variable domain directed against human serum albumin.
Solar cell module, comprising solar cells connected by thin conductor strips, having an electrical terminating and junction box showing an electrically conductive structure with printed conductors for the electrical contacting of the conductor strips of the solar cell module with external connecting lines, characterised in that flexible electrical conductors are each connected in a bonded, electrically conductive manner to the printed conductors of the electrically conductive structure on the one hand and to the conductor strips of the solar cell module on the other hand.