mhurhangee/ep-ind-claims huggingface dataset:
A polymer which is an ethylene-based copolymer of ethylene and a C 3-10 -(α-olefin) and satisfies simultaneously the following requirements: (i) the melt flow rate [MFR 2] under a load of 2.16 kg at 190°C is 0.01-10 g/10min, (ii) the melt tension [MT (g)] and the above melt flow rate [MFR 2 (g/10 min)] satisfy the relationship: MT ≥ 3.2 × MFR 2 − 0.55 (iii) the activation energy [Ea] of fluidization is 10-28 kJ/mol, (iv) the swell ratio is ≤ 1.36, and (vii) the MFR 20 and the [η] satisfy the relationship − 1.3 log MFR 20 + 3.50 ≤ η ≤ − 1.3 log MFR 20 + 4.35 (i) the melt flow rate [MFR 2] under a load of 2.16 kg at 190°C is 0.01-10 g/10min, (ii) the melt tension [MT (g)] and the above melt flow rate [MFR 2 (g/10 min)] satisfy the relationship: MT ≥ 3.2 × MFR 2 − 0.55 (iii) the activation energy [Ea] of fluidization is 10-28 kJ/mol, (iv) the swell ratio is ≤ 1.36, and (vii) the MFR 20 and the [η] satisfy the relationship − 1.3 log MFR 20 + 3.50 ≤ η ≤ − 1.3 log MFR 20 + 4.35
An opening operation restriction device for an opening/closing device, comprising a magnet lock that, when locked, maintains a closed state of an opening/closing device, an opening operation by the opening/closing device being allowed in response to the magnet lock being unlocked by means of a magnet key, characterized in that the opening operation restriction device comprises a casing that has a slide recess and has the magnet lock disposed so as to face the slide recess, a magnet key follower member that, while having a magnet key insertion recess into which the magnet key can be inserted, is slidably fitted into the slide recess and not only enables movement to an unlocked position in which the magnet lock is unlocked by pushing in the magnet key but also enables movement to a pushed-in position by pushing in the magnet key further from the unlocked position, and a restriction release member that operates in response to movement of the magnet key follower member from the unlocked position to the pushed-in position and enables an opening operation by the opening/closing device, the magnet key follower member is provided with a first discharge hole via which a lower part of the magnet key insertion recess communicates with an outside, and the casing is provided with a second discharge hole via which a lower part of the slide recess communicates with the outside, the second discharge hole communicating with at least part of the first discharge hole when the magnet key follower member reaches the pushed-in position.
An air filtration system for an air conditioning unit, said filtration system comprising: at least one electrically chargeable filter unit mounted on a support structure and including an array of passages through which an air flowstream may pass freely and through a high voltage electric field for collecting particles on said filter unit from said air flowstream; an electric field charging unit mounted on the support structure upstream from said filter unit with respect to the direction of airflow through said filtration system when in use; a high voltage power supply operably connected to said field charging unit and said filter unit; and a control system for said filtration system, the control system including: a signal input circuit operably connected to a controller associated with said air conditioning unit and further operably connected to said high voltage power supply; and a microprocessor operably connected to said power supply and said signal input circuit for controlling application of a high voltage potential to at least one of said field charging unit and said filter unit, the air filtration system further comprising a source of electric power (242; 244) for supplying power to the air filtration system and the control system. at least one electrically chargeable filter unit mounted on a support structure and including an array of passages through which an air flowstream may pass freely and through a high voltage electric field for collecting particles on said filter unit from said air flowstream; an electric field charging unit mounted on the support structure upstream from said filter unit with respect to the direction of airflow through said filtration system when in use; a high voltage power supply operably connected to said field charging unit and said filter unit; and a control system for said filtration system, the control system including: a signal input circuit operably connected to a controller associated with said air conditioning unit and further operably connected to said high voltage power supply; and a microprocessor operably connected to said power supply and said signal input circuit for controlling application of a high voltage potential to at least one of said field charging unit and said filter unit, the air filtration system further comprising a source of electric power (242; 244) for supplying power to the air filtration system and the control system. a signal input circuit operably connected to a controller associated with said air conditioning unit and further operably connected to said high voltage power supply; and a microprocessor operably connected to said power supply and said signal input circuit for controlling application of a high voltage potential to at least one of said field charging unit and said filter unit, the air filtration system further comprising a source of electric power (242; 244) for supplying power to the air filtration system and the control system.
A method for measuring a liquid level of a fluid contained in a pressure vessel the method comprising: i) providing a thermometric well inside the pressure vessel, wherein the thermometric well extends vertically in the pressure vessel; ii) wherein said thermometric well has an inner surface which is not in contact with the fluid and is separated from the fluid by a side wall of the thermometric well; iii) heating said inner surface of the thermometric well; iv)detecting the temperature of at least one detection point of said inner surface; v) estimating a position of the liquid level based on the difference between at least one reference temperature and the actual temperature detected at step iv); wherein the pressure vessel is a piece of equipment of a plant for the synthesis of urea, or of a plant for the synthesis of melamine. i) providing a thermometric well inside the pressure vessel, wherein the thermometric well extends vertically in the pressure vessel; ii) wherein said thermometric well has an inner surface which is not in contact with the fluid and is separated from the fluid by a side wall of the thermometric well; iii) heating said inner surface of the thermometric well; iv)detecting the temperature of at least one detection point of said inner surface; v) estimating a position of the liquid level based on the difference between at least one reference temperature and the actual temperature detected at step iv); wherein the pressure vessel is a piece of equipment of a plant for the synthesis of urea, or of a plant for the synthesis of melamine.
A Base Transceiver Station, BTS configured for wireless communication with a User Equipment, UE in a wireless communication system, which BTS comprises a Multiple Input Multiple Output, MIMO, antenna array configured for beamforming and MIMO transmission, the BTS further comprising: a processing circuit, configured for supporting separate downlink precoding for control plane and user plane by modifying phase excitation of the MIMO antenna array and causing a transceiver to create an antenna beam by providing different phase for each antenna element of the MIMO antenna array; and a transceiver, configured for transmitting a signal in the antenna beam via the MIMO antenna array, to be received by the UE; wherein the processing circuit is further configured to modify the downlink antenna pattern for the control plane signals and channels that define the cell with downlink precoders based on different antenna beams from omni, semi omni, sector and dual beams with different spatial directions, dependent on environment and deployment of the BTS, and to use individual spatial de-correlated downlink MIMO beams with precoders for UE plane channels; wherein the MIMO antenna array comprises an array with vertical polarized monopole omni directional antenna elements in single or several layers with each layer having four antenna elements forming a quadratic structure. a processing circuit, configured for supporting separate downlink precoding for control plane and user plane by modifying phase excitation of the MIMO antenna array and causing a transceiver to create an antenna beam by providing different phase for each antenna element of the MIMO antenna array; and a transceiver, configured for transmitting a signal in the antenna beam via the MIMO antenna array, to be received by the UE; wherein the processing circuit is further configured to modify the downlink antenna pattern for the control plane signals and channels that define the cell with downlink precoders based on different antenna beams from omni, semi omni, sector and dual beams with different spatial directions, dependent on environment and deployment of the BTS, and to use individual spatial de-correlated downlink MIMO beams with precoders for UE plane channels; wherein the MIMO antenna array comprises an array with vertical polarized monopole omni directional antenna elements in single or several layers with each layer having four antenna elements forming a quadratic structure.
A method for preparing CsAg 5 Te 3 crystal material, the CsAg 5 Te 3 crystal material being obtained by placing a raw material containing cesium element, silver element and tellurium element under a vacuum condition and using high temperature solid phase method, characterized in that in the raw material, the silver element is from silver elementary substance; and the cesium element is from cesium elementary substance; and the tellurium element is from tellurium elementary substance, in the raw material, the silver elementary substance is located between the cesium elementary substance and the tellurium elementary substance, and the condition of the high temperature solid phase method is that the raw material is kept in a temperature range from 750°C to 950°C for no more than 48 hours.
A welding system (100, 1200, 1500, 1600), comprising: a welding power source (110, 1210) comprising a controller having a first receiver, and a first transmitter; a wire feeder (120, 1270, 1570) comprising a communication circuit having a second receiver, second transmitter and a voltage sense circuit; and at least one welding power cable (130, 1220, 1520) coupled to each of said welding power source and said wire feeder which carries a welding power from said welding power source to said wire feeder during a welding operation; characterized in that the welding power source (110, 1210) comprises a current sense circuit; said wire feeder (120, 1270, 1570) communicates with said welding power source (110, 1210) over said at least one welding power cable (130, 1220, 1520) by generating a current draw signal which is detected by said current sense circuit in said welding power source (110, 1210); wherein said welding power supply (110, 1210) communicates with said wire feeder (120, 1270, 1570) over said at least one welding power cable (130, 1220, 1520) by generating a voltage pulse signal which is detected by said voltage sense circuit in said wire feeder (120, 1270, 1570); and wherein said current draw signal comprises a plurality of current draw pulses generated by said wire feeder (120, 1270, 1570) and said voltage pulse signal comprises a plurality of voltage pulses. a welding power source (110, 1210) comprising a controller having a first receiver, and a first transmitter; a wire feeder (120, 1270, 1570) comprising a communication circuit having a second receiver, second transmitter and a voltage sense circuit; and at least one welding power cable (130, 1220, 1520) coupled to each of said welding power source and said wire feeder which carries a welding power from said welding power source to said wire feeder during a welding operation; characterized in that the welding power source (110, 1210) comprises a current sense circuit; said wire feeder (120, 1270, 1570) communicates with said welding power source (110, 1210) over said at least one welding power cable (130, 1220, 1520) by generating a current draw signal which is detected by said current sense circuit in said welding power source (110, 1210); wherein said welding power supply (110, 1210) communicates with said wire feeder (120, 1270, 1570) over said at least one welding power cable (130, 1220, 1520) by generating a voltage pulse signal which is detected by said voltage sense circuit in said wire feeder (120, 1270, 1570); and wherein said current draw signal comprises a plurality of current draw pulses generated by said wire feeder (120, 1270, 1570) and said voltage pulse signal comprises a plurality of voltage pulses.
Pneumatic vehicle tyre having a tread which has a tread profile and is made of a sulfur-crosslinked rubber mixture, wherein the pneumatic vehicle tyre is a summer tyre or all-season tyre having a Criff index of the tread profile of ≤ 2.5 mm, where the Criff index is determined by the formula Criff − Index = ∑ footpr. l i × h i d i with the lamella and block edge lengths l of the tread profile, the average lamella and groove depth h and the edge separation d of the lamellas in mm on projection of the profile in braking direction, and the rubber mixture comprises - at least one diene rubber, - 30 to 250 phr of at least one silica and - 6.9 to 19.8 mmol of at least one blocked and/or unblocked mercaptosilane per 100 g of silica, based on a silica having a CTAB surface area (to ASTM D 3765) of 160 m 2 /g. - at least one diene rubber, - 30 to 250 phr of at least one silica and - 6.9 to 19.8 mmol of at least one blocked and/or unblocked mercaptosilane per 100 g of silica, based on a silica having a CTAB surface area (to ASTM D 3765) of 160 m 2 /g.
Method for manufacturing a substrate for surface-enhanced Raman spectography, with the method comprising the following steps: - (a) creating a non-metal supporting structure on an upper surface of a support, with the supporting structure comprising at least one microstructured pattern, the microstructured pattern comprising a top and sidewalls, with the sidewalls extending according to a direction secant to the direction of the upper surface; - (b) depositing of a multilayer on the supporting structure, with the multilayer comprising at least two metal layers of the same thickness and an intermediate layer arranged between the two metal layers, with each intermediate layer being carried out in a material that can be selectively etched with respect to the metal layers; - (c) etching via chemical mechanical planarisation of a portion of the multilayer deposited on the top of the microstructured pattern in such a way as to expose ends (18, 19) of each layer (13, 14) of the multilayer; - (d) selective etching of the ends of the intermediate layers in such a way as to form cavities between the ends of two successive metal layers. - (a) creating a non-metal supporting structure on an upper surface of a support, with the supporting structure comprising at least one microstructured pattern, the microstructured pattern comprising a top and sidewalls, with the sidewalls extending according to a direction secant to the direction of the upper surface; - (b) depositing of a multilayer on the supporting structure, with the multilayer comprising at least two metal layers of the same thickness and an intermediate layer arranged between the two metal layers, with each intermediate layer being carried out in a material that can be selectively etched with respect to the metal layers; - (c) etching via chemical mechanical planarisation of a portion of the multilayer deposited on the top of the microstructured pattern in such a way as to expose ends (18, 19) of each layer (13, 14) of the multilayer; - (d) selective etching of the ends of the intermediate layers in such a way as to form cavities between the ends of two successive metal layers.
A process for preparing lithium hydroxide, said process comprising: submitting an aqueous composition comprising lithium sulphate to an electrodialysis or electrolysis under conditions suitable for converting at least a portion of said lithium sulphate into lithium hydroxide, wherein said aqueous composition comprising lithium sulphate is maintained at a pH having a value of 9.5 to 12.5 for at least 75% of the time during said electrodialysis or electrolysis, wherein when said aqueous composition comprising lithium sulphate is submitted to said electrodialysis or electrolysis, said process is carried out by introducing said aqueous composition comprising lithium sulphate into a central compartment of an electrolysis cell, an aqueous composition comprising lithium hydroxide into a cathodic compartment of said electrolysis cell, and generating an aqueous composition comprising sulphuric acid in an anodic compartment of said electrolysis cell.
A method of wireless communication, comprising: receiving at a user equipment, UE, a number of allocated interlaces for an uplink transmission over a shared spectrum, wherein each allocated interlace comprises a plurality of non-contiguous resource blocks of the shared spectrum, and wherein the number of allocated interlaces is unsupported by joint interlace precoding hardware of the UE; partitioning the allocated interlaces into at least two subsets of interlaces, wherein a size of each subset of interlaces is supported by the joint interlace precoding hardware of the UE, wherein each subset of interlaces comprises a subset of non-contiguous resource blocks; and performing joint interlace precoding separately on each subset of interlaces which comprises the subset of non-contiguous resource blocks at the UE. receiving at a user equipment, UE, a number of allocated interlaces for an uplink transmission over a shared spectrum, wherein each allocated interlace comprises a plurality of non-contiguous resource blocks of the shared spectrum, and wherein the number of allocated interlaces is unsupported by joint interlace precoding hardware of the UE; partitioning the allocated interlaces into at least two subsets of interlaces, wherein a size of each subset of interlaces is supported by the joint interlace precoding hardware of the UE, wherein each subset of interlaces comprises a subset of non-contiguous resource blocks; and performing joint interlace precoding separately on each subset of interlaces which comprises the subset of non-contiguous resource blocks at the UE.
A biocompatible implant, comprising a support, at least one pharmaceutical agent that either increases cellular HIF-1α protein levels or inhibits the degradation of HIF-1α protein and mammalian tissue attached to, or incorporated within the support; wherein the support is a fibrous mat encapsulated by and disposed within a foam.
A thrombopoietin mimetic comprising the amino acid sequence of SEQ ID NO: 1 for use in a method of mitigating a targeted radiation therapy-induced liver disease or a radiomimetic agent-induced liver disease in a subject in need thereof.
A floorcovering (40, 41-44, 60, 61-64) comprising: a. a plurality of tiles, each tile having an underside and edges, positioned on a flooring surface; and b. modular floor tile connectors (20, 150, 220, 320) to span adjacent edges of at least some adjacent tiles, characterised in that each modular floor tile connector comprises: i. a film; ii. an adhesive on a side of a film, wherein the adhesive is capable of forming a bond with the undersides of the tiles (41-44, 50, 61-64, 200, 214) so that, in use, when the connector (20, 150, 220, 320) spans adjacent edges of adjacent tiles (41-44, 50, 61-64, 200, 214) so that the adhesive contacts the undersides of the adjacent tiles, the sheer strength of the adhesive prevents relative movement between the adjacent tiles: wherein the modular floor tile connectors further each comprises a sensor capable of sensing one or more of pressure, moisture, pH, and temperature. a. a plurality of tiles, each tile having an underside and edges, positioned on a flooring surface; and b. modular floor tile connectors (20, 150, 220, 320) to span adjacent edges of at least some adjacent tiles, i. a film; ii. an adhesive on a side of a film, wherein the adhesive is capable of forming a bond with the undersides of the tiles (41-44, 50, 61-64, 200, 214) so that, in use, when the connector (20, 150, 220, 320) spans adjacent edges of adjacent tiles (41-44, 50, 61-64, 200, 214) so that the adhesive contacts the undersides of the adjacent tiles, the sheer strength of the adhesive prevents relative movement between the adjacent tiles:
A mobile communication device configured to prioritize handoff messaging messages over data connection messaging messages on a signaling link for the mobile communication device, and configured to communicate in multi-RAB calls, wherein the data connection messaging and the handoff messaging use a dedicated control channel, DCCH, the mobile communication device comprising: a transceiver configured to communicate with a base station; a baseband processor connected to the transceiver, the baseband processor configured to set an impending handoff flag when a neighboring cell strength of a neighboring cell exceeds an add cell event threshold for a predetermined initial percentage of a time to trigger time; an application processor configured to delay initiation of a data connection request on the signaling link when the impending handoff flag is set and to allow initiation of a data connection request when the impending handoff flag is cleared. a transceiver configured to communicate with a base station; a baseband processor connected to the transceiver, the baseband processor configured to set an impending handoff flag when a neighboring cell strength of a neighboring cell exceeds an add cell event threshold for a predetermined initial percentage of a time to trigger time; an application processor configured to delay initiation of a data connection request on the signaling link when the impending handoff flag is set and to allow initiation of a data connection request when the impending handoff flag is cleared.
Exhaust gas pipe system, including an exhaust gas pipe of plastic material for conducting exhaust gas from heating plants, preferably produced integrally in an extrusion blowing method, with rigid plain-ended pipe sections arranged in an alternating manner and bendable corrugated pipe sections, wherein an exhaust gas pipe section with at least one corrugated pipe section and two end-side plain-ended pipe sections can be detached from the exhaust gas pipe, wherein securing means configured integrally with the exhaust gas pipe are molded to the exhaust gas pipe and to each of the plain ended pipe sections securing means are assigned, which are configured in such a way that a preferably sleeve-shaped securing element can be secured for establishing a form-fit acting in axial direction through a rotational movement relative to the exhaust gas pipe, and that the securing means include a male thread section for screwing together with a female thread section or bayonet locking means for cooperating with mating sections of the securing element in the type of a bayonet lock, or including an exhaust gas pipe section separated from such an exhaust gas pipe with two end-side, plain-ended pipe sections and with at least one bendable corrugated pipe section, characterized in that the exhaust gas pipe system includes a, preferably sleeve-shaped, securing element which comprises engagement means which are configured in such a way that the said means are connectable and/or connected to the securing means of the exhaust gas pipe or the exhaust gas pipe section through a rotation of the securing element relative to the exhaust gas pipe or the exhaust gas pipe section while forming a form-fit active in axial direction.