mhurhangee/ep-ind-claims huggingface dataset:
Method for procuring operational characteristics (122, 212, 304, 406, 510, 602) of a terminal (116B, 202, 302, 400, 500) at a network server (124, 204, 308, 310, 402, 502, 600, 640) for use by the network server in delivering terminal-compliant messages to the terminal, comprising: specifying at least one content type recognizable by the terminal, wherein each content type relates to a different format of content that can be presented via the terminal; said method being characterized by: specifying operational limits of the terminal by which received messages of the specified content type are to comply, said operational limits including technology-dependent characteristics of the terminal as well as user preferences, referring to message and content characteristics that are related to the technical capabilities of the terminal and user preferences configured on the terminal; associating the content type with the operational limits of the terminal; and providing the content type and associated operational limits to the network server for use by the network server in delivering messages to the terminal as dictated by the operational limits. specifying at least one content type recognizable by the terminal, wherein each content type relates to a different format of content that can be presented via the terminal; said method being characterized by: specifying operational limits of the terminal by which received messages of the specified content type are to comply, said operational limits including technology-dependent characteristics of the terminal as well as user preferences, referring to message and content characteristics that are related to the technical capabilities of the terminal and user preferences configured on the terminal; associating the content type with the operational limits of the terminal; and providing the content type and associated operational limits to the network server for use by the network server in delivering messages to the terminal as dictated by the operational limits. specifying operational limits of the terminal by which received messages of the specified content type are to comply, said operational limits including technology-dependent characteristics of the terminal as well as user preferences, referring to message and content characteristics that are related to the technical capabilities of the terminal and user preferences configured on the terminal; associating the content type with the operational limits of the terminal; and providing the content type and associated operational limits to the network server for use by the network server in delivering messages to the terminal as dictated by the operational limits.
A blow molding composition comprising: A) a chromium catalyzed ethylene copolymer having i) a high load melt index, as measured by ASTM 1238 at 190°C using a 21.6 kg load, of from 2 to 10 grams/10 minutes; ii) a density of from 0.944 to 0.955 g/cc; B) from 100 to 5000 ppm of nucleating agent, comprising a salt of HHPA; and C) from 100 to 1000 ppm of zinc oxide. A) a chromium catalyzed ethylene copolymer having i) a high load melt index, as measured by ASTM 1238 at 190°C using a 21.6 kg load, of from 2 to 10 grams/10 minutes; ii) a density of from 0.944 to 0.955 g/cc; i) a high load melt index, as measured by ASTM 1238 at 190°C using a 21.6 kg load, of from 2 to 10 grams/10 minutes; ii) a density of from 0.944 to 0.955 g/cc; B) from 100 to 5000 ppm of nucleating agent, comprising a salt of HHPA; and C) from 100 to 1000 ppm of zinc oxide.
A monoclonal anti-tau antibody or tau-binding fragment thereof, wherein: (a) the heavy chain variable region comprises the amino acid sequence set forth in SEQ ID NO:48 and the light chain variable region comprises the amino acid sequence set forth in SEQ ID NO:49, or (b) the VH comprises the amino acid sequence set forth in SEQ ID NO:47 and the VL comprises the amino acid sequence set forth in SEQ ID NO:49. (a) the heavy chain variable region comprises the amino acid sequence set forth in SEQ ID NO:48 and the light chain variable region comprises the amino acid sequence set forth in SEQ ID NO:49, or (b) the VH comprises the amino acid sequence set forth in SEQ ID NO:47 and the VL comprises the amino acid sequence set forth in SEQ ID NO:49.
A hairspring for a balance wheel/hairspring resonator, which hairspring comprises n blades, where n ≥ 2, fastened via at least one of their respective homologous ends and wound in spirals with an angular offset capable of neutralizing the lateral forces likely to be exerted on its central arbor when one of the ends of each blade is moved angularly about said central arbor relative to its other end, the hairspring comprising a collet, the blades being coplanar and the intern ends being fastened to the collet.
An electromagnetic radiation detector comprising: ▪ an optic forming a substantially spherical image; ▪ a plane detector circuit comprising an array of photosensitive elements and placed at the output of the optic according to a plane orthogonal to the optical axis thereof; and ▪ an plane matrix optical filter placed between the detector circuit and the optic and extending parallel to the detector circuit, said optical filter including a stack of at least one dielectric or semi-conductor layer (64, 66) arranged between two partially reflective layers (68, 70, 72), said stack defining at least a set of Fabry-Perot cavities of identical thickness set to a predetermined common wavelength, each of the Fabry-Perot cavities being arranged above each photosensitive element, each of said cavities being composed of two materials, one material taking the form of periodic patterns formed in the other material, the average refractive index of the cavities decreasing along rays defined from the point of the filter through which the optical axis passes by adjusting the respective proportions of both materials in order to compensate the effects of the variation in the angle of incidence on the transmission spectrum of said cavities. ▪ an optic forming a substantially spherical image; ▪ a plane detector circuit comprising an array of photosensitive elements and placed at the output of the optic according to a plane orthogonal to the optical axis thereof; and ▪ an plane matrix optical filter placed between the detector circuit and the optic and extending parallel to the detector circuit,
A method performed on a client terminal for secure network communications, the method comprising: sending (S101A; S201) a handshake request message to a server, wherein: the handshake request message contains a first random number encrypted by using a first public key and first service request data encrypted by using the first public key, and the handshake request message is for decrypting by the server in accordance with a first private key corresponding to the first public key to obtain by the server the first random number and the first service request data and to generate by the server first service response data in accordance with the first service request data; receiving (S102A) a handshake response message replied from the server, wherein the handshake response message contains the first service response data encrypted by using the first random number and a second random number encrypted by using the first random number, wherein a session with the server is created by exchanging the handshake request and response messages with the server; decrypting (S103A; S204) the handshake response message by using the first random number to obtain the first service response data and the second random number; and calculating (S104A; S204) a session key used in the session with the server in accordance with the first random number and the second random number. sending (S101A; S201) a handshake request message to a server, wherein: the handshake request message contains a first random number encrypted by using a first public key and first service request data encrypted by using the first public key, and the handshake request message is for decrypting by the server in accordance with a first private key corresponding to the first public key to obtain by the server the first random number and the first service request data and to generate by the server first service response data in accordance with the first service request data; the handshake request message contains a first random number encrypted by using a first public key and first service request data encrypted by using the first public key, and the handshake request message is for decrypting by the server in accordance with a first private key corresponding to the first public key to obtain by the server the first random number and the first service request data and to generate by the server first service response data in accordance with the first service request data; receiving (S102A) a handshake response message replied from the server, wherein the handshake response message contains the first service response data encrypted by using the first random number and a second random number encrypted by using the first random number, wherein a session with the server is created by exchanging the handshake request and response messages with the server; decrypting (S103A; S204) the handshake response message by using the first random number to obtain the first service response data and the second random number; and calculating (S104A; S204) a session key used in the session with the server in accordance with the first random number and the second random number.
A substantially metallic burner having a service temperature of not less than about 1200°C for a cracking furnace operating with walls at temperatures from 700°C to 1350°C comprising: i) a substantially metallic flow passage defined by at least one surface (2, 3, 4, 5) having a downstream outlet and at least one upstream inlet for at least a gaseous oxidant; ii) said substantially metallic flow passage having at least one baffle directing the flow of oxidant and fuel against an internal surface (5, 10) of the burner facing the furnace; and iii) one or more arrays of heat convective surfaces selected from baffles ribs, fins and protuberances to direct the flow of said at least a gaseous oxidant over said one or more arrays on the internal surface (5, 10) of said substantially metallic flow passage. i) a substantially metallic flow passage defined by at least one surface (2, 3, 4, 5) having a downstream outlet and at least one upstream inlet for at least a gaseous oxidant; ii) said substantially metallic flow passage having at least one baffle directing the flow of oxidant and fuel against an internal surface (5, 10) of the burner facing the furnace; and iii) one or more arrays of heat convective surfaces selected from baffles ribs, fins and protuberances to direct the flow of said at least a gaseous oxidant over said one or more arrays on the internal surface (5, 10) of said substantially metallic flow passage.
Method for the remote control of vehicles, in which a video that is recorded by at least one video camera is transmitted in real time from a remote-controlled vehicle, via at least one mobile radio link over a mobile radio network, to a control center, and the received video is displayed in the control center, the control center receiving control commands from an operator, and transmitting these control commands via the same or at least one further mobile radio connection over the mobile wireless network, to the remote-controlled vehicle, the control commands being executed by the remote-controlled vehicle, characterized in that an operation and maintenance center detects and supervises areas of unavailable and/ or reduced mobile radio service supply, and that a navigation system provides route recommendations to the control center to drive around route sections without sufficient mobile radio service supply, using current mobile radio service supply data provided by the operation and maintenance center.
A blister pack (110, 210, 310) for placing at least one product therein, comprising: a backing (112, 212, 312) having a first side and an opposing second side; and a cover (114, 214, 314) attached to the backing (112, 212, 312), the cover (114, 214, 314) and backing (112, 212, 312) in combination forming at least one sealed cavity for containing the product, the sealed cavity including a dome portion (120, 220) and a base portion (122, 222, 322), at least a section of the base portion (122, 222, 322) extending beyond the dome portion (120, 220) in a first direction (D 1), the dome portion (120, 220) extending beyond an outer peripheral portion of the cover (114, 214, 314) in a second direction (D 2), wherein the second direction is perpendicular to the first direction, characterized in that the blister pack (110, 210, 310) comprises at least one active member (116, 216, 316) including at least one of a desiccant and an oxygen scavenger within at least the base portion (122, 222, 322) of the sealed cavity, wherein at least a first portion of the active member (116, 216, 316) being positioned in the base portion (122, 222, 322) of the cavity and at least a second portion of the active member (116, 216, 316) being positioned in or beneath the dome portion (120, 220) of the cavity, wherein the at least one active member (116, 216, 316) is heat staked to the first side of the backing. a backing (112, 212, 312) having a first side and an opposing second side; and a cover (114, 214, 314) attached to the backing (112, 212, 312), the cover (114, 214, 314) and backing (112, 212, 312) in combination forming at least one sealed cavity for containing the product, the sealed cavity including a dome portion (120, 220) and a base portion (122, 222, 322), at least a section of the base portion (122, 222, 322) extending beyond the dome portion (120, 220) in a first direction (D 1), the dome portion (120, 220) extending beyond an outer peripheral portion of the cover (114, 214, 314) in a second direction (D 2), wherein the second direction is perpendicular to the first direction, characterized in that the blister pack (110, 210, 310) comprises at least one active member (116, 216, 316) including at least one of a desiccant and an oxygen scavenger within at least the base portion (122, 222, 322) of the sealed cavity, wherein at least a first portion of the active member (116, 216, 316) being positioned in the base portion (122, 222, 322) of the cavity and at least a second portion of the active member (116, 216, 316) being positioned in or beneath the dome portion (120, 220) of the cavity, wherein the at least one active member (116, 216, 316) is heat staked to the first side of the backing.
An optical line terminal OLT, characterized by comprising an optical transmission processing unit, wherein, the OLT further comprises an OLT control unit, a serial-to-parallel conversion unit, a plurality of parallel downstream data transmission processing units and a combiner unit, wherein: the OLT control unit is configured to divide a downstream data transmission frequency band into a plurality of sub-bands; the serial-to-parallel conversion unit is configured to, according to the division by the OLT control unit, perform a serial-to-parallel conversion on data to be transmitted to obtain data for each of the plurality of sub-bands, and transmit data of each sub-band to a corresponding downstream data transmission processing unit; each of the downstream data transmission processing unit is configured to map and OFDM modulate corresponding sub-band data and output corresponding radio frequency signals to the combiner unit; the combiner unit is configured to combine radio frequency signals of the plurality of parallel downstream data transmission processing units and output the combined signal to the optical transmission processing unit; and the optical transmission processing unit is configured to convert the combined signal into optical signals to transmit. the OLT control unit is configured to divide a downstream data transmission frequency band into a plurality of sub-bands; the serial-to-parallel conversion unit is configured to, according to the division by the OLT control unit, perform a serial-to-parallel conversion on data to be transmitted to obtain data for each of the plurality of sub-bands, and transmit data of each sub-band to a corresponding downstream data transmission processing unit; each of the downstream data transmission processing unit is configured to map and OFDM modulate corresponding sub-band data and output corresponding radio frequency signals to the combiner unit; the combiner unit is configured to combine radio frequency signals of the plurality of parallel downstream data transmission processing units and output the combined signal to the optical transmission processing unit; and the optical transmission processing unit is configured to convert the combined signal into optical signals to transmit.
Lap guiding device for guiding a lap, comprising a side frame and a cover hood and a pressure roller and a lower lap inlet, which comprises a lower cover and a lower lap guide that is at a distance from the lower cover in the region of the lap to be guided, and comprising an upper lap inlet, which comprises an upper cover and an upper lap guide that is at a distance from the upper cover in the region of the lap to be guided, the upper lap guide being connected to the lower lap guide by a flexible element, characterized in that the upper cover is fastened in the lap guiding device independently of the upper lap guide by means of a retaining device, the retaining device being provided for fastening the upper cover in the side frame or to the cover hood or to the pressure roller.
A method for transfer of thermal energy comprising: providing a vessel with a compressible fluid medium confined therein, subjecting the compressible fluid medium to a pressure gradient and establishing in the vessel a zone with a high pressure and a zone with a low pressure, and exposing the compressible fluid medium to sound waves, said pressure gradient is achieved by acceleration, deceleration or rotation of the compressible fluid medium, characterised in that the compressible fluid medium is exposed to high capacity sound waves achieved by coinciding the frequency of the sound waves, in the compressible fluid medium with a natural frequency of the vessel which increases the amplitude of the density fluctuations in the compressible fluid medium, resulting in establishing of pressure gradient waves which propagate through the compressible fluid medium along a pressure gradient vector, whereby propagation of the pressure gradient waves transfers energy from the zone of low pressure to the zone of high pressure, and supplying a fluid to be cooled to the zone of low pressure, and/or supplying a fluid to be heated to the zone of high pressure. providing a vessel with a compressible fluid medium confined therein, subjecting the compressible fluid medium to a pressure gradient and establishing in the vessel a zone with a high pressure and a zone with a low pressure, and exposing the compressible fluid medium to sound waves, said pressure gradient is achieved by acceleration, deceleration or rotation of the compressible fluid medium, characterised in that the compressible fluid medium is exposed to high capacity sound waves achieved by coinciding the frequency of the sound waves, in the compressible fluid medium with a natural frequency of the vessel which increases the amplitude of the density fluctuations in the compressible fluid medium, resulting in establishing of pressure gradient waves which propagate through the compressible fluid medium along a pressure gradient vector, whereby propagation of the pressure gradient waves transfers energy from the zone of low pressure to the zone of high pressure, and supplying a fluid to be cooled to the zone of low pressure, and/or supplying a fluid to be heated to the zone of high pressure.
A method, comprising: receiving, at a user equipment UE in a time division duplex TDD wireless communication system, a cell-specific TDD uplink UL/downlink DL configuration for a plurality of radio frames and subframes within a radio frame; notifying a base station in the TDD wireless communication system that the UE has adaptive TDD capabilities; detecting, at the user equipment, a dynamic reconfiguration signal for an assigned TDD UL/DL configuration; restricting activation of the signaled TDD UL/DL configuration at the UE to occur only at future radio frame boundaries; and monitoring one or more designated subframes for the dynamic reconfiguration signal, the designated subframes corresponding to DL subframes that are common to all available UL/DL configurations for the TDD wireless communication system. receiving, at a user equipment UE in a time division duplex TDD wireless communication system, a cell-specific TDD uplink UL/downlink DL configuration for a plurality of radio frames and subframes within a radio frame; notifying a base station in the TDD wireless communication system that the UE has adaptive TDD capabilities; detecting, at the user equipment, a dynamic reconfiguration signal for an assigned TDD UL/DL configuration; restricting activation of the signaled TDD UL/DL configuration at the UE to occur only at future radio frame boundaries; and monitoring one or more designated subframes for the dynamic reconfiguration signal, the designated subframes corresponding to DL subframes that are common to all available UL/DL configurations for the TDD wireless communication system.