mhurhangee/ep-ind-claims huggingface dataset:
An inverter device wherein a control chamber which mainly houses various control circuit devices and the waterproof properties of which are secured, and a heat dissipation chamber, which mainly houses heat dissipation devices for cooling the internal atmosphere of the control chamber and one portion of which is opened to the external, are installed side by side so as to be adjacent to each other, the inverter device being characterized by including: a cylindrical grommet member which is provided in a condition in which one portion of the grommet member is inserted in a hole portion formed in a cover member interposed between the control chamber and the heat dissipation chamber, and which is disposed in a manner such that distribution cables connected between the control chamber and the heat dissipation chamber pass through a hollow portion of the grommet member, wherein the grommet member has: a base portion mounted in the hole portion in a condition in which the base portion passes through the hole portion; and a guide portion of which a base end portion extends from the base portion toward the heat dissipation chamber in a front-rear or horizontal direction with the central axis of the base end portion coinciding with the central axis of the base portion, and a leading end portion continuous with the base end portion curves downward. a cylindrical grommet member which is provided in a condition in which one portion of the grommet member is inserted in a hole portion formed in a cover member interposed between the control chamber and the heat dissipation chamber, and which is disposed in a manner such that distribution cables connected between the control chamber and the heat dissipation chamber pass through a hollow portion of the grommet member, wherein the grommet member has: a base portion mounted in the hole portion in a condition in which the base portion passes through the hole portion; and a guide portion of which a base end portion extends from the base portion toward the heat dissipation chamber in a front-rear or horizontal direction with the central axis of the base end portion coinciding with the central axis of the base portion, and a leading end portion continuous with the base end portion curves downward. a base portion mounted in the hole portion in a condition in which the base portion passes through the hole portion; and a guide portion of which a base end portion extends from the base portion toward the heat dissipation chamber in a front-rear or horizontal direction with the central axis of the base end portion coinciding with the central axis of the base portion, and a leading end portion continuous with the base end portion curves downward.
A conductive polyarylene sulfide resin composition comprising: a mixture of polyarylene sulfide and a binder resin having a decomposition temperature (Td) of 310°C or more, wherein the binder resin is comprised in an amount of 5 wt% or more to less than 50 wt% based on a total weight of the mixture, and wherein the binder resin is polystyrene sulfonate having a weight average molecular weight of 35,000 to 70,000 g/mol. a mixture of polyarylene sulfide and a binder resin having a decomposition temperature (Td) of 310°C or more, wherein the binder resin is comprised in an amount of 5 wt% or more to less than 50 wt% based on a total weight of the mixture, and wherein the binder resin is polystyrene sulfonate having a weight average molecular weight of 35,000 to 70,000 g/mol.
A synchronous communication method, comprising: obtaining, by a first terminal, first configuration information, wherein the first configuration information comprises an offset; determining, by the first terminal according to a global navigation satellite system, GNSS, clock, a transmission timeslot in a device-to-device, D2D, communications system corresponding to a current moment; determining, by the first terminal according to the transmission timeslot in the D2D communications system and the offset, a synchronization information sending moment; and sending, by the first terminal, sidelink synchronization information at the synchronization information sending moment, wherein the sidelink synchronization information is used to synchronize a second terminal with the first terminal, and the sidelink synchronization information carries indication information indicating, to the second terminal, that the first terminal is a synchronization source that uses the GNSS clock. obtaining, by a first terminal, first configuration information, wherein the first configuration information comprises an offset; determining, by the first terminal according to a global navigation satellite system, GNSS, clock, a transmission timeslot in a device-to-device, D2D, communications system corresponding to a current moment; determining, by the first terminal according to the transmission timeslot in the D2D communications system and the offset, a synchronization information sending moment; and sending, by the first terminal, sidelink synchronization information at the synchronization information sending moment, wherein the sidelink synchronization information is used to synchronize a second terminal with the first terminal, and the sidelink synchronization information carries indication information indicating, to the second terminal, that the first terminal is a synchronization source that uses the GNSS clock.
A helmet comprising a helmet shell, an outer liner layer fixed inside the helmet shell; and an inner liner layer positioned against the outer liner layer; the outer liner layer having a dome-like concave curved internal surface; the inner liner layer having a dome-like convex curved external surface; the outer and inner liner layers (12, 14) each including front, back, and two lateral side wall sections (12bcde, 14bcde), the said surfaces of the inner and outer liner layers (12, 14) being substantially spherical where they overlap for allowing rotational sliding movement of the inner liner layer against the outer liner layer; and means being provided for limiting rotation between the inner and outer liner layers (12, 14), characterized in that the lateral side wall sections (14d, 14e) of the outer liner layer are substantially truncated compared with the inner liner layer.
A dyeing agent comprising a modified enzyme obtained by adding positive charge by a chemical modification with an amine to an enzyme selected from the group consisting of an enzyme specified as EC 1.10.3.1, an enzyme specified as EC 1.10.3.2, an enzyme specified as EC 1.3.3.5, an enzyme specified as EC 1.10.3.4, an enzyme specified as EC 1.10.3.3 and an enzyme specified as EC 1.14.18.1.
A method for manufacturing an optical deflector, comprising: forming a wafer-level optical deflector assembly (406 ∼ 413) on a front surface side of a wafer (401 ∼ 404); etching the front surface side of said wafer by using elements of said wafer-level optical deflector assembly as a first etching mask, to form a front-side dicing street in the front surface side of said wafer; provisionally adhering a transparent substrate with an inside cavity to the front surface side of said wafer, in such a way that the inside cavity of said transparent substrate opposes movable elements of said wafer-level optical deflector assembly; forming a second etching mask on a back surface side of said wafer; etching the back surface side of said wafer by using said second etching mask in such a way that a cavity opposing the movable elements of said wafer-level optical deflector assembly and a back-side dicing street are created in the back surface side of said wafer, said back-side dicing street leading to said front-side dicing street; adhering an adhesive sheet with a ring-shaped rim to the back surface side of said wafer, after the back surface side of said wafer is etched; removing said transparent substrate from the front surface side of said wafer, after said adhesive sheet is adhered to the back surface side of said wafer; and expanding said ring-shaped rim to widen said front-side dicing street and said back-side dicing street to pick up optical deflectors one by one from said wafer, after said transparent substrate is removed. forming a wafer-level optical deflector assembly (406 ∼ 413) on a front surface side of a wafer (401 ∼ 404); etching the front surface side of said wafer by using elements of said wafer-level optical deflector assembly as a first etching mask, to form a front-side dicing street in the front surface side of said wafer; provisionally adhering a transparent substrate with an inside cavity to the front surface side of said wafer, in such a way that the inside cavity of said transparent substrate opposes movable elements of said wafer-level optical deflector assembly; forming a second etching mask on a back surface side of said wafer; etching the back surface side of said wafer by using said second etching mask in such a way that a cavity opposing the movable elements of said wafer-level optical deflector assembly and a back-side dicing street are created in the back surface side of said wafer, said back-side dicing street leading to said front-side dicing street; adhering an adhesive sheet with a ring-shaped rim to the back surface side of said wafer, after the back surface side of said wafer is etched; removing said transparent substrate from the front surface side of said wafer, after said adhesive sheet is adhered to the back surface side of said wafer; and expanding said ring-shaped rim to widen said front-side dicing street and said back-side dicing street to pick up optical deflectors one by one from said wafer, after said transparent substrate is removed.
A line card for use in a communications network node having a plurality of line cards, said line card, in use, being in communication with a routing processor shared by the line cards, said line card having: one or more line interfaces for connection to communication lines in a communications network, said interfaces being arranged to receive network packets addressed to nodes in said communications network; one or more interfaces arranged to transmit network packets processed by said line card to another of said line cards; said line card being arranged in operation to: i) receive a link state advertisement from another router via a communications line terminating at the line card; ii) pass said link state advertisement to the shared routing processor for input into a routing process run by the shared routing processor which occasionally generates a set of routes for use by the line card; iii) receive said set of routes from said shared routing processor; and iv) route incoming packets on the basis of the received set of routes; said line card being characterised by: being arranged to further respond to receiving said link state advertisement from another router by calculating one or more interim routes taking said received link state advertisement into account, and routing incoming packets over said interim routes until said set of routes is received from said shared routing processor. one or more line interfaces for connection to communication lines in a communications network, said interfaces being arranged to receive network packets addressed to nodes in said communications network; one or more interfaces arranged to transmit network packets processed by said line card to another of said line cards; said line card being arranged in operation to: i) receive a link state advertisement from another router via a communications line terminating at the line card; ii) pass said link state advertisement to the shared routing processor for input into a routing process run by the shared routing processor which occasionally generates a set of routes for use by the line card; iii) receive said set of routes from said shared routing processor; and iv) route incoming packets on the basis of the received set of routes; i) receive a link state advertisement from another router via a communications line terminating at the line card; ii) pass said link state advertisement to the shared routing processor for input into a routing process run by the shared routing processor which occasionally generates a set of routes for use by the line card; iii) receive said set of routes from said shared routing processor; and iv) route incoming packets on the basis of the received set of routes; said line card being characterised by: being arranged to further respond to receiving said link state advertisement from another router by calculating one or more interim routes taking said received link state advertisement into account, and routing incoming packets over said interim routes until said set of routes is received from said shared routing processor.
A respiratory component assembly, comprising: a powered air purifying respirator (PAPR) component having an interface surface comprising a first projection extending outwardly from the interface surface and a retention projection; and a wearable belt for supporting the PAPR component having a longitudinal axis along a length of the belt and an interface portion comprising a rigid attachment element and a lower peripheral edge; wherein the rigid attachment element is fastened to a portion of the belt and includes one or more openings (54, 55, 56, 57), wherein a first opening of the one or more openings (54, 55, 56, 57) is configured to receive the first projection, which is slidable within the first opening, to releasably secure the PAPR component to the belt, and wherein the retention projection contacts the lower peripheral edge to inhibit slidable movement of the first projection within the first opening when the PAPR is secured to the belt. a powered air purifying respirator (PAPR) component having an interface surface comprising a first projection extending outwardly from the interface surface and a retention projection; and a wearable belt for supporting the PAPR component having a longitudinal axis along a length of the belt and an interface portion comprising a rigid attachment element and a lower peripheral edge;
Method for data acquisition in an industrial facility, particularly a metallurgical plant, particularly preferably in a cold-rolling or hot-rolling mill, a strip treatment plant or a steelworks, wherein data are exchanged in preferably wire-free manner in the industrial facility and wherein the method comprises: providing at least one unmanned vehicle comprising a transmitting and receiving device for transmission, preferably wirelessly, and reception, preferably wirelessly, of data; providing one or more communication partners (10, 20, 30) each comprising a transmitting and receiving device (21, 22, 23) for transmission, preferably wirelessly and reception, preferably wirelessly, of data; wherein the transmitting and receiving devices (21, 22, 23) are arranged to exchange data between the unmanned vehicle and the communication partner (10, 20, 30), for exchange of data between the unmanned vehicle and the communication partner (10, 20, 30) the unmanned vehicle moves to a transfer location in communication proximity of the communication partner (10, 20, 30) in order to subsequently undertake the data exchange, and at least one of the communication partners (10, 20, 30) is a component of an industrial facility, which component is so arranged that it can independently record, preferably process, operating data and can transfer the data to the unmanned vehicle present at the transfer location. providing at least one unmanned vehicle comprising a transmitting and receiving device for transmission, preferably wirelessly, and reception, preferably wirelessly, of data; providing one or more communication partners (10, 20, 30) each comprising a transmitting and receiving device (21, 22, 23) for transmission, preferably wirelessly and reception, preferably wirelessly, of data; wherein the transmitting and receiving devices (21, 22, 23) are arranged to exchange data between the unmanned vehicle and the communication partner (10, 20, 30), for exchange of data between the unmanned vehicle and the communication partner (10, 20, 30) the unmanned vehicle moves to a transfer location in communication proximity of the communication partner (10, 20, 30) in order to subsequently undertake the data exchange, and at least one of the communication partners (10, 20, 30) is a component of an industrial facility, which component is so arranged that it can independently record, preferably process, operating data and can transfer the data to the unmanned vehicle present at the transfer location.
An ink jet print head with an integrated ink handling unit that comprises a heater and a filter for the ink, wherein the ink handling unit has an inlet port for liquid ink and a circulation system connected to the inlet port and adapted to pass the liquid ink through the heater and to the filter, characterized in that the circulation system comprises a single, non-branched duct that passes continuously from the inlet port to the filter, and the duct of the circulation system passes in meander fashion through a heated block of the heater.
A method comprising: determining a capacity bandwidth of a streaming connection; determining a streaming bandwidth of the streaming connection, the streaming bandwidth being used to provide a media having a first quality over the streaming connection, the streaming bandwidth being less than the capacity bandwidth, the media having a plurality of segments, each segment having at least one segment property; determining an available bandwidth of the streaming connection, the available bandwidth based upon the difference between the capacity bandwidth and the streaming bandwidth; identifying a segment from the plurality of segments; determining that the identified segment has a second quality, the second quality being greater than the first quality; determining that the identified segment can be sent in time to be rendered at a third quality, said third quality being greater than said first quality and less than or equal to said second quality; and sending the identified segment over the streaming connection by pre-streaming at least a portion of the identified segment at the third quality using the available bandwidth based on the determining that the identified segment can be sent in time to be rendered at least at the third quality and sending a remainder of the segment over the streaming connection at the third quality during a rendering time of the identified segment such that the entire segment is sent in time to be rendered at the third quality. determining a capacity bandwidth of a streaming connection; determining a streaming bandwidth of the streaming connection, the streaming bandwidth being used to provide a media having a first quality over the streaming connection, the streaming bandwidth being less than the capacity bandwidth, the media having a plurality of segments, each segment having at least one segment property; determining an available bandwidth of the streaming connection, the available bandwidth based upon the difference between the capacity bandwidth and the streaming bandwidth; identifying a segment from the plurality of segments; determining that the identified segment has a second quality, the second quality being greater than the first quality; determining that the identified segment can be sent in time to be rendered at a third quality, said third quality being greater than said first quality and less than or equal to said second quality; and sending the identified segment over the streaming connection by pre-streaming at least a portion of the identified segment at the third quality using the available bandwidth based on the determining that the identified segment can be sent in time to be rendered at least at the third quality and sending a remainder of the segment over the streaming connection at the third quality during a rendering time of the identified segment such that the entire segment is sent in time to be rendered at the third quality.
A method performed by a user equipment, UE (120, 220), the method comprising: • receiving (step 610) downlink reference signals from a transmit receive point, TRP (110; 210), over a set of UE receive beams via an antenna array; • selecting (step 620), from a set of UE transmit beams, a group of UE transmit beams, which correspond to UE receive beams having the highest received signal quality or received signal power level among those UE receive beams forming the set of UE receive beams; and • transmitting (step 630) a dynamic UE capability message to the TRP (110; 210), the dynamic UE capability message indicating: ∘ the number of UE transmit beams forming the group of UE transmit beams. • receiving (step 610) downlink reference signals from a transmit receive point, TRP (110; 210), over a set of UE receive beams via an antenna array; • selecting (step 620), from a set of UE transmit beams, a group of UE transmit beams, which correspond to UE receive beams having the highest received signal quality or received signal power level among those UE receive beams forming the set of UE receive beams; and • transmitting (step 630) a dynamic UE capability message to the TRP (110; 210), the dynamic UE capability message indicating: ∘ the number of UE transmit beams forming the group of UE transmit beams. ∘ the number of UE transmit beams forming the group of UE transmit beams.
A device for a controlled electrostatic discharge in persons characterized in that it consists of two electrically non-conductive elements mutually spaced by at least one spring and arranged in a housing, wherein at least one element is arranged in the housing in a way to come closer parallel to a second element when force is exerted on it from the outside and to return to the initial position by means of said spring after the force from the outside has been neutralized, that the external surface of the element accessible to a person intended to get discharged is provided with an electrically conductive part, preferably a metallic plate and that electric pins are arranged on adjacent surfaces of both elements and arranged on each surface at a mutual distance (a) and the two surfaces are arranged at a mutual distance (b) and simultaneously the rows of pins on one and the second element are offset, so that the pins of one row lie in the middle of the distance (a) and both rows of pins are spaced from each other by a distance (b), wherein the first pin in the row on one element and the last pin in the row on the second element are connected in series to a discharge electric circuit comprising a section on the element, pins and a grounding conductor.