mhurhangee/ep-ind-claims huggingface dataset:
A computing apparatus, the computing apparatus comprising: a processor; and a memory storing instructions that, when executed by the processor, configure the apparatus to: receive, at a host web page, a first object from a first inline frame of the host web page, the first object identifying a first Application Programming Interface; validate, by the host web page, the first object against a predefined plurality of APIs for the host web page; and in response to validating the first object, forward the first object to a second inline frame of the host web page, the second inline frame configured to parse the first object and translate the parsed first object to a second API corresponding to the second inline frame; wherein the first inline frame comprises a web part item, the web part item comprising a server-side controlled application operating within the first inline frame, and wherein the second inline frame comprises a configuration pane of the host web page, the configuration pane configured to be rendered inside the second inline frame. a processor; and a memory storing instructions that, when executed by the processor, configure the apparatus to: receive, at a host web page, a first object from a first inline frame of the host web page, the first object identifying a first Application Programming Interface; validate, by the host web page, the first object against a predefined plurality of APIs for the host web page; and in response to validating the first object, forward the first object to a second inline frame of the host web page, the second inline frame configured to parse the first object and translate the parsed first object to a second API corresponding to the second inline frame; wherein the first inline frame comprises a web part item, the web part item comprising a server-side controlled application operating within the first inline frame, and wherein the second inline frame comprises a configuration pane of the host web page, the configuration pane configured to be rendered inside the second inline frame. receive, at a host web page, a first object from a first inline frame of the host web page, the first object identifying a first Application Programming Interface; validate, by the host web page, the first object against a predefined plurality of APIs for the host web page; and in response to validating the first object, forward the first object to a second inline frame of the host web page, the second inline frame configured to parse the first object and translate the parsed first object to a second API corresponding to the second inline frame; wherein the first inline frame comprises a web part item, the web part item comprising a server-side controlled application operating within the first inline frame, and wherein the second inline frame comprises a configuration pane of the host web page, the configuration pane configured to be rendered inside the second inline frame.
A method for preparing chlorine dioxide samples for transport, storage, and/or testing, characterised in that the method comprises the steps of: - obtaining at least two samples, Sample 1 and Sample 2, from a chlorine dioxide solution to be tested, - stripping the chlorine dioxide from Sample 1 to obtain treated Sample 1, and - completely converting the chlorine dioxide in Sample 2 to other chlorine species, to obtain treated Sample 2, by: i) sufficiently raising the pH of Sample 2, or ii) chemically reducing the chlorine dioxide in Sample 2, or iii) chemically oxidizing the chlorine dioxide in Sample 2. - obtaining at least two samples, Sample 1 and Sample 2, from a chlorine dioxide solution to be tested, - stripping the chlorine dioxide from Sample 1 to obtain treated Sample 1, and - completely converting the chlorine dioxide in Sample 2 to other chlorine species, to obtain treated Sample 2, by: i) sufficiently raising the pH of Sample 2, or ii) chemically reducing the chlorine dioxide in Sample 2, or iii) chemically oxidizing the chlorine dioxide in Sample 2. i) sufficiently raising the pH of Sample 2, or ii) chemically reducing the chlorine dioxide in Sample 2, or iii) chemically oxidizing the chlorine dioxide in Sample 2.
A method for controlling a hybrid energy storage system for connection to a power system and comprising first and second energy storage elements having first and second operational characteristics respectively, characterised in that it comprises determining respective desired charging/discharging rates for the first and second energy storage elements in dependence upon state of charge predictions from a respective physical model for each of the first and second storage elements, using model predictive control; and adjusting respective charging/discharging rates of the first and second storage elements in accordance with the determined rates. determining respective desired charging/discharging rates for the first and second energy storage elements in dependence upon state of charge predictions from a respective physical model for each of the first and second storage elements, using model predictive control; and adjusting respective charging/discharging rates of the first and second storage elements in accordance with the determined rates.
A reception method receiving a first image and first image signal characteristics information indicating first image signal characteristics of the first image; receiving a second image and second image signal characteristics information indicating second image signal characteristics of the second image; wherein the first image signal characteristics information indicates one of an opto-electrical transfer function, OETF, or an electro-optical transfer function, EOTF, as the first image signal characteristics corresponding to a first dynamic range, and the second image signal characteristics information indicates one of the OETF or EOTF as the second image signal characteristics of corresponding to a second dynamic range wider or narrower than the first dynamic range; and converting the second image signal characteristics to obtain matched image signal characteristics of the first image and the second image by converting a code value corresponding to the second dynamic range of the one of the OETF or EOTF of the second image signal characteristics to a code value corresponding to the first dynamic range of one of the OETF or EOTF; simultaneously displaying the first image and the second image having the matched image signal characteristics; and when, while the first image and the second image having the matched image signal characteristics are being displayed simultaneously, only the second image signal characteristics that are being received switch, stopping conversion that is being performed on the second image signal characteristics before the switch, to obtain matched image signal characteristics of the first image and the second image so that the second image signal characteristics after the switch becomes the same as the second image signal characteristics before the switch; and simultaneously displaying the first image and the second image having the matched image signal characteristics after the conversion of the second image signal characteristics is stopped.
A data interaction method, comprising: sending simultaneously, by a client host to a local relay device via one or more Network Address Translation, NAT, hosts, an address detection request for a User Datagram Protocol UDP channel and an address detection request for a Transmission Control Protocol TCP channel; and when both address detection for the UDP channel and address detection for the TCP channel fail, sending to the local relay device via one or more NAT hosts an address detection request for a Hypertext Transfer Protocol HTTP channel; when address detection for at least one channel succeeds, collecting, by the client host, two types of addresses corresponding to each channel in the at least one channel, wherein the two types of addresses comprise a mapping address allocated by a network address translation NAT host at an outermost NAT layer of each channel and a relay address of the local relay device; and performing, by the client host, address exchange and address matching with a peer client host; and performing, by the client host, channel connectivity detection based on matched addresses, and selecting, by the client host, a channel with a highest priority from channels on which connectivity detection is successful for data interaction with the peer client host, wherein the UDP channel has the highest priority and the TCP channel has a priority higher than that of the HTTP channel. sending simultaneously, by a client host to a local relay device via one or more Network Address Translation, NAT, hosts, an address detection request for a User Datagram Protocol UDP channel and an address detection request for a Transmission Control Protocol TCP channel; and when both address detection for the UDP channel and address detection for the TCP channel fail, sending to the local relay device via one or more NAT hosts an address detection request for a Hypertext Transfer Protocol HTTP channel; when address detection for at least one channel succeeds, collecting, by the client host, two types of addresses corresponding to each channel in the at least one channel, wherein the two types of addresses comprise a mapping address allocated by a network address translation NAT host at an outermost NAT layer of each channel and a relay address of the local relay device; and performing, by the client host, address exchange and address matching with a peer client host; and performing, by the client host, channel connectivity detection based on matched addresses, and selecting, by the client host, a channel with a highest priority from channels on which connectivity detection is successful for data interaction with the peer client host, wherein the UDP channel has the highest priority and the TCP channel has a priority higher than that of the HTTP channel.
A hot melt adhesive comprising: a thermoplastic block copolymer which is a copolymer of a vinyl-based aromatic hydrocarbon with a conjugated diene compound; and a propylene homopolymer having a melting point of 100°C or lower which is obtainable by polymerizing propylene using a metallocene catalyst, wherein the melting point is measured by differential scanning calorimetry, wherein after weighing 10 mg of a sample in an aluminum container, the measurement is carried out at temperature rise rate of 5°C/minute, and the temperature of a top of a fusion peak refers to the melting point. a thermoplastic block copolymer which is a copolymer of a vinyl-based aromatic hydrocarbon with a conjugated diene compound; and a propylene homopolymer having a melting point of 100°C or lower which is obtainable by polymerizing propylene using a metallocene catalyst,
A battery assembly for an electronic cigarette, comprising: a housing; a battery received in the housing; an air actuating electronic switch electrically connected with the battery; an end cover fixed at one end of the housing, the end cover defining a receiving space; and a holder comprising a bottom wall, a side wall, and a plurality of spaced protruding stages, the side wall extending from a first surface of the bottom wall, the protruding stages being formed on an opposite second surface of the bottom wall, the side wall and the bottom wall cooperatively defining an accommodating space, the air actuating electronic switch being received in the accommodating space in such a manner that the protruding stages face the battery; characterized in that the holder is received in the receiving space and further comprises a top wall protruding from the side wall towards a central axis thereof, the top wall defining an opening at a center thereof. a housing; a battery received in the housing; an air actuating electronic switch electrically connected with the battery; an end cover fixed at one end of the housing, the end cover defining a receiving space; and a holder comprising a bottom wall, a side wall, and a plurality of spaced protruding stages, the side wall extending from a first surface of the bottom wall, the protruding stages being formed on an opposite second surface of the bottom wall, the side wall and the bottom wall cooperatively defining an accommodating space, the air actuating electronic switch being received in the accommodating space in such a manner that the protruding stages face the battery; characterized in that the holder is received in the receiving space and further comprises a top wall protruding from the side wall towards a central axis thereof, the top wall defining an opening at a center thereof.
A playback node for an audio mesh network (100, 210) comprising a plurality of playback nodes, the playback node comprising: a wireless transceiver; circuitry coupled to the transceiver, the circuitry configured to cause the transceiver to receive audio packets from parent playback nodes and send audio packets to child playback nodes during assigned time slots; a buffer coupled to the circuitry to buffer audio packets for playback; and a speaker coupled to the circuitry to create sound from the buffered (audio) packets; wherein the circuitry is configured to receive an audio trigger event to synchronize playback of the audio packets by the playback nodes (114, 220, 120, 130, 225, 230, 235), and to play the audio packets from the buffer responsive to the audio trigger event. a wireless transceiver; circuitry coupled to the transceiver, the circuitry configured to cause the transceiver to receive audio packets from parent playback nodes and send audio packets to child playback nodes during assigned time slots; a buffer coupled to the circuitry to buffer audio packets for playback; and a speaker coupled to the circuitry to create sound from the buffered (audio) packets; wherein the circuitry is configured to receive an audio trigger event to synchronize playback of the audio packets by the playback nodes (114, 220, 120, 130, 225, 230, 235), and to play the audio packets from the buffer responsive to the audio trigger event.
Arrangement comprising a sliding door of a track carriage, comprising an electric safety edge switch having a hollow profile and an external circuitry for generating switch signals in response to compression of the hollow profile, wherein the hollow profile is disposed on a face edge of the sliding door, wherein adjacent to a hollow cavity (30; 114), traversing in the longitudinal direction of the elastic hollow profile, at least one first and one second electric conductor (32, 34; 78, 80, 82; 110, 112, 106, 108; 130, 132, 134, 136, 138) are provided, which upon compression of the hollow profile (28; 74; 104) by an obstacle to be detected come into contact with each other at least partially and in a non-compressed condition of the hollow profile are spaced from each other, wherein at least one portion adjacent to the hollow cavity (30; 114) of the at least one first and/or second conductor (32; 80, 82; 106, 108, 110, 112; 130, 132, 134, 136) is disposed offset relative to a central plane of the hollow profile (28; 74; 104; 126), as seen in a sectional view perpendicular to the longitudinal direction, wherein the external circuitry is configured to generate different, directional selective switch signals in response to an angle of force application caused by an obstacle in relation to a central plane of the hollow profile (27; 74; 104; 126), wherein upon force application to the hollow profile in a direction from the interior of the track carriage towards the exterior a first switch signal, causing opening of the door, is generated, and wherein upon force application to the hollow profile in a direction from the exterior to the interior of the track carriage no switch signal is generated, or a second switch signal is generated, differing from said first switch signal.
An orientatable closure for a container, the orientatable closure comprising a body with a screw thread, the screw thread comprising a first portion having a first thickness and a second portion having a second thickness, the first and second portions (70, 75) forming different sections of the screw thread, the screw thread being a substantially continuous screw thread, the first portion providing the start of the screw thread, characterised in that the second portion of the screw thread is thicker than the first portion of the screw thread so that an interface where the first and second portions (70, 75) meet defines a step with a flat abutment face in the screw thread, said step defining a stop such that a co-operating screw thread on a container cannot be rotated beyond the stop so that when the orientatable closure is in the fully screwed on position on a container the orientatable closure is located at a predetermined relative orientation with respect to the container by the stop interacting with the container, and in that one surface of the portions (70, 75) is continuously linear, with the other surface of one portion extending above/below the other surface of the other portion to create the interface.
A liquid cartridge in combination with a printer having an attachment section to which the liquid cartridge is configured to be inserted in an insertion direction crossing a gravitational direction and is configured to be removed in a removal direction opposite to the insertion direction, wherein: the liquid cartridge is configured to be inserted into an attachment section of the printer in the insertion direction against an urging force acting in the removal direction, and the liquid cartridge comprises: a chamber (32,33) storing liquid; a liquid outflow path provided with an outlet facing frontward in the insertion direction in a first, fully attached, posture of the liquid cartridge, the liquid outflow path extending from the chamber (32,33) to the outlet in the insertion direction; a circuit board disposed rearward relative to the outlet in the insertion direction; a first surface configured to contact with an electrical contact of the attachment section, the first surface facing at least upwardly in the first posture; and a second surface configured to contact with the electrical contact of the attachment section; wherein: the second surface faces at least rearwardly in the first posture; the liquid cartridge, when attached to the attachment section, is movable between the first posture and a second posture; and the circuit board includes at least one of the first surface and the second surface; characterized in that: in the second posture, the second surface is spaced apart from the electrical contact of the attachment section in the gravitational direction. a chamber (32,33) storing liquid; a liquid outflow path provided with an outlet facing frontward in the insertion direction in a first, fully attached, posture of the liquid cartridge, the liquid outflow path extending from the chamber (32,33) to the outlet in the insertion direction; a circuit board disposed rearward relative to the outlet in the insertion direction; a first surface configured to contact with an electrical contact of the attachment section, the first surface facing at least upwardly in the first posture; and a second surface configured to contact with the electrical contact of the attachment section; wherein: the second surface faces at least rearwardly in the first posture; the liquid cartridge, when attached to the attachment section, is movable between the first posture and a second posture; and the circuit board includes at least one of the first surface and the second surface; characterized in that: in the second posture, the second surface is spaced apart from the electrical contact of the attachment section in the gravitational direction. the second surface faces at least rearwardly in the first posture; the liquid cartridge, when attached to the attachment section, is movable between the first posture and a second posture; and the circuit board includes at least one of the first surface and the second surface; characterized in that: in the second posture, the second surface is spaced apart from the electrical contact of the attachment section in the gravitational direction.
A method of decomposing a composite material consisting of a fiber-reinforced organic resin matrix in order to recover said fibers and optionally degradation products of said resin matrix, said resin being a resin containing C-N and/or C-O bonds, characterized in that a vapour phase of acetic acid and hydrogen chloride is caused to act on said composite material until the fibers are detached from the thus formed degradation products of said resin matrix and the latter are separated from said fibers.
A lubricant composition comprising: a hydrocarbon base oil; and a friction modifier comprising a polyoxybutylene polymer, the polyoxybutylene polymer having been prepared by polymerizing butylene oxide with a monol initiator, and having a number average molecular weight ranging from 800 g/mol to 1200 g/mol; the polyoxybutylene polymer further characterized as being a propylene glycol n-butyl ether initiated butylene oxide homo-polymer having a kinematic viscosity at 40 °C of 60 mm 2 /s (60 cSt). a hydrocarbon base oil; and a friction modifier comprising a polyoxybutylene polymer, the polyoxybutylene polymer having been prepared by polymerizing butylene oxide with a monol initiator, and having a number average molecular weight ranging from 800 g/mol to 1200 g/mol;
A curable resin composition comprising a resin which has a benzoxazine structure represented by structural formula below and an epoxy resin as essential components, wherein when the total number of moles of the benzoxazine structure in the resin is α, and the number of moles of epoxy groups in the epoxy resin is β, a ratio [(β)/(α)] is 0.1 to 0.5, [in the structural formula, Ar 1 represents a tetravalent aromatic group, Ar 2 represents a divalent aromatic group, L represents a divalent linking group, x represents an average repeating number of 0.25 to 5.0, and O* 1 atom and C* 1 atom represent bonds to adjacent carbon atoms of an aromatic group represented by Ar 1, and O* 2 atom and C* 2 atom represent bonds to adjacent carbon atoms of an aromatic group represented by Ar 2]. Ar 1 represents a tetravalent aromatic group, Ar 2 represents a divalent aromatic group, L represents a divalent linking group, x represents an average repeating number of 0.25 to 5.0, and O* 1 atom and C* 1 atom represent bonds to adjacent carbon atoms of an aromatic group represented by Ar 1, and O* 2 atom and C* 2 atom represent bonds to adjacent carbon atoms of an aromatic group represented by Ar 2].
A method for adjusting the welding parameters of a welding device, wherein the method comprises steps, in which a desired cooling behaviour for the welding joint is defined in advance, information about the desired cooling behaviour of the welding joint is given to the welding device by giving the cooling time t, the amount of heat input Q set, or material information about the material to be welded to the welding device, whereafter based on the preliminary knowledge given in advance, the welding device determines and adjusts the values of the welding parameters to be used in welding, in order to achieve the desired cooling behaviour, and that the welding device determines the actual heat input Q act during welding and sets at least one welding parameter by adjusting the actual heat input Q act to correspond, within the adjustment range, to the amount of heat input Q set defined through the cooling time t or the material information, or to the given amount of heat input Q set, characterized in, that the welding device calculates and monitors a power guide value P set based on the heat input Q set, the measured or given travel speed V of the welding gun, and a thermal efficiency factor k, calculates and monitors the actual power P act, and, by adjusting at least one welding parameter, sets the actual power P act to correspond, within the adjustment range, to the power guide value P set.