mhurhangee/ep-ind-claims huggingface dataset:
An artwork substrate including a substantially rectangular receiving portion adapted to receive an art medium, and a frame forming element extending from each side of the receiving portion, wherein each frame forming element includes an outer side panel (510, 512, 514, 516) foldably connected to a respective side of the receiving portion, a rear panel (534, 536, 538, 540) foldably connected to the outer side panel, an inner side panel (574, 576, 578, 580) foldably connected to the rear panel and a front panel (590, 592, 594, 596) foldably connected to the inner side panel; wherein the substrate is formed from a single sheet of substrate material, the substrate has a planar configuration and a folded configuration, and when in the folded configuration the outer side panels (510, 512, 514, 516) extend substantially perpendicularly to the receiving portion, the rear panels (534, 536, 538, 540) are arranged parallel to and spaced from the receiving portion, the inner side panels (574, 576, 578, 580) extend from the rear panels towards the receiving portion such that each inner side panel is opposite and substantially parallel to the respective outer side panel, and the front panels (590, 592, 594, 596) are arranged parallel to and adjacent to the receiving panel, whereby each frame forming element forms a rectangular section frame member on one side of the receiving portion; wherein each frame forming element includes one part of a two-part locking mechanism at each end thereof; and wherein when the frame forming elements are in the folded configuration, adjacent ends of the frame forming elements are secured together by the locking mechanism, characterised in that the substrate material is formed from a laminate comprising a layer of a wood pulp material and a layer of a polymeric material; and each end of the frame forming elements includes a locking tab (518, 520, 522, 524, 550, 552, 554, 556), wherein each tab is located within a respective channel defined by the adjacent frame forming element when the substrate is secured in its folded configuration.
A headgear for engaging and supporting protective headwear on a wearer's head, the headgear comprising: a first side member on a first side of the headgear; a second side member on a second side of the headgear; a forehead strap pivotally coupled to and extending between the first and second side members, wherein the forehead strap is configured to engage a wearer's forehead with the headgear worn by a wearer; and a second strap (72, 76) coupled to and extending between the first and second side members, wherein the second strap is rigidly coupled to the first and second side members, characterized by a third strap (76, 80) being coupled to and extending between the first and second side members, wherein the second strap (72, 76) is positioned between the forehead strap and the third strap (76, 80), and a limiting member engageable by the forehead strap to limit pivoting of the forehead strap. a first side member on a first side of the headgear; a second side member on a second side of the headgear; a forehead strap pivotally coupled to and extending between the first and second side members, wherein the forehead strap is configured to engage a wearer's forehead with the headgear worn by a wearer; and a second strap (72, 76) coupled to and extending between the first and second side members, wherein the second strap is rigidly coupled to the first and second side members, characterized by a third strap (76, 80) being coupled to and extending between the first and second side members, wherein the second strap (72, 76) is positioned between the forehead strap and the third strap (76, 80), and a limiting member engageable by the forehead strap to limit pivoting of the forehead strap.
A method performed by a common control network function, CCNF, in a wireless communication system, the method comprising: receiving, from a terminal via a base station, a first message for updating a location of a terminal; identifying whether a CCNF relocation is required based on the first message; selecting a target CCNF based on a list of CCNFs in case that the CCNF relocation is required based on the first message; and transmitting, toward the selected target CCNF, a CCNF relocation request containing information on the context of the terminal and on a network slice to which the CCNF belongs, receiving, from the target CCNF, a response indicating successful CCNF relocation of the terminal and a successful network slice selection; and forwarding, to the target CCNF, the first message based on the received response. receiving, from a terminal via a base station, a first message for updating a location of a terminal; identifying whether a CCNF relocation is required based on the first message; selecting a target CCNF based on a list of CCNFs in case that the CCNF relocation is required based on the first message; and transmitting, toward the selected target CCNF, a CCNF relocation request containing information on the context of the terminal and on a network slice to which the CCNF belongs, receiving, from the target CCNF, a response indicating successful CCNF relocation of the terminal and a successful network slice selection; and forwarding, to the target CCNF, the first message based on the received response.
Apparatus for the contamination-free drainage of fresh water in an aircraft, the apparatus having a fresh water supply line with a fresh water outlet from which water issues during drainage, and disposed downstream thereof an inlet opening of a line, the inlet opening being provided for receiving drainage water and the line being connectable to the waste water system of the aircraft, wherein the fresh water outlet and the inlet opening are disposed in a housing which has an overflow, wherein the fresh water supply line has a valve which must be opened for draining, characterized in that the overflow line attached to the overflow is equipped with a device for detecting water which is so configured that it automatically sends a signal to the valve in the event of water overflowing, whereby the drainage of fresh water is reduced or completely stopped.
A sinker crankshaft-connecting rod mechanism for a warp knitting machine with a single needle bed, which is a connecting rod mechanism composed of a connecting rod frame, a crankshaft, a plurality of connecting rods a-d (3, 4, 7, 8) and pin shafts a, b (6, 10), wherein one end of connecting rod a is connected with the crankshaft, and the other end thereof is connected with pin shaft a and can rotate around the pin shaft a, characterized in that the pin shaft a is further connected with connecting rod b, the connecting rod b is divided into two parts, left and right, which are arranged symmetrically and in parallel on two sides of the pin shaft a and can rotate around the pin shaft a, wherein the other end of the connecting rod b is connected with a pin shaft b and can rotate around the pin shaft b, and the two ends of the pin shaft a and the two ends of the pin shaft b are provided with both ends of connecting rod c and both ends of connecting rod d, respectively, that can rotate around the pin shafts (6, 10).
Method for separating dual-extruded wiper strips (10a-10e, 12a-12e), wherein the wiper strips (10a-10e, 12a-12e) are extruded simultaneously in a same extrusion process and are therefore formed integrally, with a wiper strip separating unit (14a-14e), wherein the wiper strips (10a-10e, 12a-12e) for separating are moved in a transport direction, characterized in that the wiper strip separating unit (14a-14e) is at least partially moved in a direction (16a-16e) which is at least substantially perpendicular to the transport direction, and in that the wiper strips (10a; 10b, 12a; 12b) are cut with at least one first separating blade (20a; 20b, 22b) and/or with at least one cutting wire (24c; 24d).
A grease composition comprising a base oil (a), a diurea compound (b), an amide compound (c), and a thiophosphorous compound or a thiophosphoric acid ester compound (d), wherein the diurea compound (b) includes a compound represented by Formula R 1 -NHCONH-R 2 -NHCONH-R 3 wherein R 1 and R 3 represent an acyclic aliphatic hydrocarbon group having from 8 to 20 carbon atoms, and R 2 represents a diphenylmethane group and further comprising an amine compound (f) represented by Formula R 4 -NH-R 5 -NH 2 wherein R 4 represents a saturated or an unsaturated hydrocarbon group having from 5 to 18 carbon atoms, and R 5 represents a saturated or an unsaturated hydrocarbon group having from 2 to 3 carbon atoms, wherein the amount of amine compound (f) used per 100% by mass of the overall grease composition is 0.1 to 10% by mass. wherein R 1 and R 3 represent an acyclic aliphatic hydrocarbon group having from 8 to 20 carbon atoms, and R 2 represents a diphenylmethane group and further comprising an amine compound (f) represented by Formula R 4 -NH-R 5 -NH 2 wherein R 4 represents a saturated or an unsaturated hydrocarbon group having from 5 to 18 carbon atoms, and R 5 represents a saturated or an unsaturated hydrocarbon group having from 2 to 3 carbon atoms, wherein the amount of amine compound (f) used per 100% by mass of the overall grease composition is 0.1 to 10% by mass.
A system for evaluating available channels in a multi-channel WLAN telecommunication system, the system comprising: a wireless access point, AP, (204a, 204b) configured to provide communication with a mobile station over a plurality of Very High Throughput, VHT, channels, wherein the VHT channels have a bandwidth of 20MHz, 40MHz, 80MHz or 160MHz; a plurality of mobile stations, STAs, (202a, 202b) operating in the plurality of VHT channels; and a network monitoring device (206, 210) configured to communicatively couple to the WLAN telecommunication system, wherein the network monitoring device is configured and operable to: capture a plurality of VHT data frames exchanged between the wireless AP and the plurality of STAs; decode at least a portion of each of the captured plurality of VHT data frames to identify a utilized VHT channel and extract channel allocation information associated with the identified VHT channel; generate a quality score for the identified VHT channel based on the extracted channel allocation information; and suggest, based on the quality score, one or more APs of a plurality of APs with a better service to a particular STA of the plurality of STAs. a wireless access point, AP, (204a, 204b) configured to provide communication with a mobile station over a plurality of Very High Throughput, VHT, channels, wherein the VHT channels have a bandwidth of 20MHz, 40MHz, 80MHz or 160MHz; a plurality of mobile stations, STAs, (202a, 202b) operating in the plurality of VHT channels; and a network monitoring device (206, 210) configured to communicatively couple to the WLAN telecommunication system, wherein the network monitoring device is configured and operable to: capture a plurality of VHT data frames exchanged between the wireless AP and the plurality of STAs; decode at least a portion of each of the captured plurality of VHT data frames to identify a utilized VHT channel and extract channel allocation information associated with the identified VHT channel; generate a quality score for the identified VHT channel based on the extracted channel allocation information; and suggest, based on the quality score, one or more APs of a plurality of APs with a better service to a particular STA of the plurality of STAs. capture a plurality of VHT data frames exchanged between the wireless AP and the plurality of STAs; decode at least a portion of each of the captured plurality of VHT data frames to identify a utilized VHT channel and extract channel allocation information associated with the identified VHT channel; generate a quality score for the identified VHT channel based on the extracted channel allocation information; and suggest, based on the quality score, one or more APs of a plurality of APs with a better service to a particular STA of the plurality of STAs.
A connecting portion including power direct-current coaxial cables each including a main conductor at a center of the cable; a main insulating layer around the main conductor, and a return conductor that is formed by coaxially stranding a plurality of return-conductor wires around the main insulating layer, characterized in that a return-conductor wire bundle (24b,24c) is formed by placing a plurality of aligned return- conductor wires (12b, 12c)next to each other for each of the power direct-current coaxial cables, the return-conductor wire bundles (24b, 24c) are welded in a butt-jointing manner to each other, the number of wires and the diameter of the return-conductor wires of the direct-current coaxial cables to be connected with each other are different, the cross section of the wire is circular and the width of each wire bundle corresponds to the diameter of a wire multiplied for the number of wires, and a difference between widths of the return-conductor wire bundles (24b, 24c) to be connected is smaller than twice a diameter of a return-conductor wire that forms a wider return-conductor wire bundle.
A polyamide resin composition comprising polyamide comprising a diamine unit containing 70 mol% or more of a metaxylylenediamine unit and a dicarboxylic acid unit and an alkali compound, wherein the following equations to are satisfied: 0.03 ≤ P < 0.32 2.2 ≤ M ≤ 26.1 20 ≤ M / P ≤ 150 wherein P represents a mole concentration (μmol/g) of a phosphorus atom contained per g of the polyamide resin composition; and M represents a sum (μmol/g) of values obtained by multiplying the mole concentrations of all alkali metal atoms and alkaline earth metal atoms each contained per g of the polyamide resin composition by valencies thereof, respectively.
An antenna array, comprising: first and second radiating elements (A1, A2) responsive to first and second hybrid radio frequency, RF, signals (PSF11*, PSF21*), respectively; and a power divider circuit comprising a first cascaded pair of power dividers (C11, C12; WP11, WP12) cross-coupled with a second cascaded pair of power dividers (C21, C22; WP21, WP22), said power divider circuit configured to generate the first and second hybrid RF signals as power-reduced combinations of first and second RF input signals (PSF11, PSF21) received at input terminals thereof; characterized in that the first cascaded pair of power dividers is configured to generate the first hybrid RF signal as a combination of a 70-90 percent energy contribution of the first RF input signal with a 0.26-2.7 percent energy contribution of the second RF input signal; and wherein the second cascaded pair of power dividers is configured to generate the second hybrid RF signal as a 70-90 percent energy contribution of the second RF input signal with a 0.26-2.7 percent energy contribution of the first RF input signal. first and second radiating elements (A1, A2) responsive to first and second hybrid radio frequency, RF, signals (PSF11*, PSF21*), respectively; and a power divider circuit comprising a first cascaded pair of power dividers (C11, C12; WP11, WP12) cross-coupled with a second cascaded pair of power dividers (C21, C22; WP21, WP22), said power divider circuit configured to generate the first and second hybrid RF signals as power-reduced combinations of first and second RF input signals (PSF11, PSF21) received at input terminals thereof; the first cascaded pair of power dividers is configured to generate the first hybrid RF signal as a combination of a 70-90 percent energy contribution of the first RF input signal with a 0.26-2.7 percent energy contribution of the second RF input signal; and wherein the second cascaded pair of power dividers is configured to generate the second hybrid RF signal as a 70-90 percent energy contribution of the second RF input signal with a 0.26-2.7 percent energy contribution of the first RF input signal.
A shoe sole arrangement, comprising an outsole with an inner sole surface facing the foot side, which is surrounded by a circumferential sole edge, wherein an internal space is formed in the outsole, in which several elastic damping shells facing upwards towards the foot side are formed as an integral part of the outsole, which are arranged with a shell bottom facing the inner sole surface of the outsole and a shell wall surrounding the shell bottom, wherein at least two oppositely arranged perforations are inserted in the shell wall of one or more damping shells, and wherein the damping shells are connected to the outsole via an additional connector.
Process for the hydrolysis of biomass comprising the steps of a) Contacting the biomass with an enzyme-composition containing at least one enzyme selected from the class of hydrolases in a vessel for 3 to 60 h and at a temperature of from 45 to 65 °C; b) Separating a solid and a liquid phase; c) Enzymatic conversion of the solid phase; d) Combining of at least part of the converted solid phase of step (c) with the liquid phase of step (b); wherein at least one fermentation organism is added to the liquid phase before or during step (d) of the process, wherein the temperature during the addition of the at least one fermentation organism is selected from 25 to 45 °C; and wherein from 10 to 100 wt.-% of the converted solid phase are fed to the liquid phase according to step (d). a) Contacting the biomass with an enzyme-composition containing at least one enzyme selected from the class of hydrolases in a vessel for 3 to 60 h and at a temperature of from 45 to 65 °C; b) Separating a solid and a liquid phase; c) Enzymatic conversion of the solid phase; d) Combining of at least part of the converted solid phase of step (c) with the liquid phase of step (b);
A triac (40, 60) having a vertical structure, comprising, on the upper surface side of a silicon substrate: a main metallization having a first portion resting on a first region of a first conductivity type formed in a layer of the second conductivity type, and having a second portion resting on a portion of said layer; and a gate metallization resting on a second region of the first conductivity type formed in said layer, in the vicinity of the first region; and one or several porous silicon bars (57, 59, 61) formed in said layer, a first end (57A, 59A, 61A) of each bar being in contact with the gate metallization, and a second end (57B, 59B, 61B) of each bar being in contact with the main metallization, each bar having a high resistance at normal temperature and a lower resistance at high temperature and being adapted to make a current flow between the main metallization and the gate metallization. a main metallization having a first portion resting on a first region of a first conductivity type formed in a layer of the second conductivity type, and having a second portion resting on a portion of said layer; and a gate metallization resting on a second region of the first conductivity type formed in said layer, in the vicinity of the first region; and one or several porous silicon bars (57, 59, 61) formed in said layer, a first end (57A, 59A, 61A) of each bar being in contact with the gate metallization, and a second end (57B, 59B, 61B) of each bar being in contact with the main metallization, each bar having a high resistance at normal temperature and a lower resistance at high temperature and being adapted to make a current flow between the main metallization and the gate metallization.
A pharmaceutical combination of a vascular disrupting agent and an immunotherapeutic agent, for use in the treatment of cancer, wherein the vascular disrupting agent is a tubulin polymerisation inhibitor selected from 2-methyl-7-hydroxy-3-(3,4,5-trimethoxybenzoyl)-6-methoxybenzofuran and disodium[6-methoxy-2-methyl-3-(3,4,5-trimethoxybenzoyl)-1-benzofuran-7-yl] phosphate (BNC105P), and wherein the immunotherapeutic agent is an anti-immune checkpoint inhibitor antibody selected from an anti-PD-L1, an anti-PD-1 and an anti-CTLA-4 antibody.
A method for recovery of a hydrocarbon fluid from a porous medium by injection of a fluid into the porous medium, comprising: - determining a median pore diameter of the porous medium; - determining a Rayleigh time on the basis of the density of the fluid and the hydrocarbon fluid, the median pore diameter of the porous medium, and surface tension between the fluid and the hydrocarbon fluid; - providing a pressure stimulation in the fluid, wherein the pressure stimulation is generated by a collision process with a collision contact rise time which is of the range of 1-100 times the Rayleigh time, such as in the range of 10-80 times the Rayleigh time or in the range of 1-10 times the Rayleigh time, such as in the range of 1-3 times the Rayleigh time. - determining a median pore diameter of the porous medium; - determining a Rayleigh time on the basis of the density of the fluid and the hydrocarbon fluid, the median pore diameter of the porous medium, and surface tension between the fluid and the hydrocarbon fluid; - providing a pressure stimulation in the fluid, wherein the pressure stimulation is generated by a collision process with a collision contact rise time which is of the range of 1-100 times the Rayleigh time, such as in the range of 10-80 times the Rayleigh time or in the range of 1-10 times the Rayleigh time, such as in the range of 1-3 times the Rayleigh time.
A method of dispensing a liquid using a dispensing valve apparatus that closes off a fluid by a stainless-steel valve member and a valve member seat making contact with each other, wherein a section of the valve member seat making contact with the valve member is made of a material having a tensile elastic modulus of 2 GPa or greater, the material configuring the section of the valve member seat making contact with the valve member is stainless-steel, characterized in that the liquid is dispensed without a preliminary dispensing operation.
An image processing device comprising: • a decoding unit configured to decode an encoded stream to generate a decoded image; • a filter determination unit configured to determine whether to apply a deblocking filter to pixels neighboring a block boundary within the decoded image generated by the decoding unit, the deblocking filter including a first deblocking filter and a second deblocking filter having a filter strength greater than that of the first deblocking filter; • a filter strength determination unit configured to, when it is determined by the filter determination unit that deblocking filtering is to be applied, determine whether to apply the first deblocking filter or apply the second deblocking filter; and • a filtering unit configured to apply, when the filter strength determination unit determines to apply the second deblocking filter, the second deblocking filter so as to apply a clipping process to a difference value obtained by the second deblocking filter using a second clipping value pv, which is 1 to 8 times of a first clipping value tc, which is used in case that a clipping process is applied to a difference value obtained by the first deblocking filter. • a decoding unit configured to decode an encoded stream to generate a decoded image; • a filter determination unit configured to determine whether to apply a deblocking filter to pixels neighboring a block boundary within the decoded image generated by the decoding unit, the deblocking filter including a first deblocking filter and a second deblocking filter having a filter strength greater than that of the first deblocking filter; • a filter strength determination unit configured to, when it is determined by the filter determination unit that deblocking filtering is to be applied, determine whether to apply the first deblocking filter or apply the second deblocking filter; and • a filtering unit configured to apply, when the filter strength determination unit determines to apply the second deblocking filter, the second deblocking filter so as to apply a clipping process to a difference value obtained by the second deblocking filter using a second clipping value pv, which is 1 to 8 times of a first clipping value tc, which is used in case that a clipping process is applied to a difference value obtained by the first deblocking filter.