mhurhangee/ep-ind-claims huggingface dataset:
Abase station antenna, comprising: an insulating antenna end cover, at least two radio frequency coaxial connectors, a plurality of electrically conductive ground pieces, an electrically conductive ground component, an antenna inner support and an antenna reflection panel, wherein the radio frequency coaxial connectors are disposed on the insulating antenna end cover, the electrically conductive ground pieces are disposed on a side of the insulating antenna end cover mounting the antenna inner support, and the electrically conductive ground pieces are respectively connected to one or some of the at least two radio frequency coaxial connectors and the electrically conductive ground component, and the number of the electrically conductive ground pieces is less than or equal to the number of the radio frequency coaxial connectors disposed on the insulating antenna end cover, wherein the electrically conductive ground component is the antenna inner support wherein the electrically conductive ground pieces are connected to the antenna inner support, and are connected to the antenna reflection panel by using the antenna inner support, or wherein the electrically conductive ground component is the antenna reflection panel wherein the electrically conductive ground pieces are connected to the antenna inner support by using the antenna reflection panel. an insulating antenna end cover, at least two radio frequency coaxial connectors, a plurality of electrically conductive ground pieces, an electrically conductive ground component, an antenna inner support and an antenna reflection panel, wherein the radio frequency coaxial connectors are disposed on the insulating antenna end cover, the electrically conductive ground pieces are disposed on a side of the insulating antenna end cover mounting the antenna inner support, and the electrically conductive ground pieces are respectively connected to one or some of the at least two radio frequency coaxial connectors and the electrically conductive ground component, and the number of the electrically conductive ground pieces is less than or equal to the number of the radio frequency coaxial connectors disposed on the insulating antenna end cover, wherein the electrically conductive ground component is the antenna inner support wherein the electrically conductive ground pieces are connected to the antenna inner support, and are connected to the antenna reflection panel by using the antenna inner support, or wherein the electrically conductive ground component is the antenna reflection panel wherein the electrically conductive ground pieces are connected to the antenna inner support by using the antenna reflection panel.
Heating press with a loader for loading the heating press with a green tyre and with an unloader for unloading the vulcanized tyre, wherein the loader and the unloader each have a pivoting system with a pivoting arm (1, 1') arranged in a horizontally pivotable manner on a height-adjustable holding device (5, 5'), said pivoting arm having a tyre gripping device (2, 2') with a number of tyre grippers (3, 3') which are movable and adjustable by means of hydraulic cylinders, characterized in that the pivoting movement of a pivoting arm (1, 1') takes place either automatically via software by means of a servo motor with gears arranged on the holding device, wherein the holding device along with the servo motor and gears and also along with the pivoting arm is movable and adjustable in the vertical direction, or by means of a hydraulic cylinder engaging with the pivoting arm ', wherein the pivot angle is controlled by means of a path measuring system which determines the pivot angle and transmits signals to a control unit, so that the starting and stopping position is thereby determined. characterized in that the pivoting movement of a pivoting arm (1, 1') takes place either automatically via software by means of a servo motor with gears arranged on the holding device, wherein the holding device along with the servo motor and gears and also along with the pivoting arm is movable and adjustable in the vertical direction, or by means of a hydraulic cylinder engaging with the pivoting arm ', wherein the pivot angle is controlled by means of a path measuring system which determines the pivot angle and transmits signals to a control unit, so that the starting and stopping position is thereby determined.
An absorbent solution for removing acid compounds contained in a gaseous effluent, comprising: - water; - at least one of the following two nitrogen compounds belonging to the family of tertiary diamines: ∘ 1-dimethylamino-3-(2-dimethylaminoethoxy)-2-propanol of formula as follows: ∘ 1,1'-oxybis[3-(dimethylamino)-2-propanol] of formula as follows: - water; - at least one of the following two nitrogen compounds belonging to the family of tertiary diamines: ∘ 1-dimethylamino-3-(2-dimethylaminoethoxy)-2-propanol of formula as follows: ∘ 1,1'-oxybis[3-(dimethylamino)-2-propanol] of formula as follows: ∘ 1-dimethylamino-3-(2-dimethylaminoethoxy)-2-propanol of formula as follows: ∘ 1,1'-oxybis[3-(dimethylamino)-2-propanol] of formula as follows:
Rubber composition based at least on a polymer matrix comprising a diene elastomer Ed and a functional diene polymer, on a reinforcing filler and a on a crosslinking system, which functional diene polymer is a diene polymer bearing at least one functional group, the functional group being the phosphonic acid function, the phosphonic hemiacid function, the phosphonic acid diester function or a salt of the phosphonic acid or phosphonic hemiacid function, characterized in that the functional diene polymer represents at most 30% by weight of the polymer matrix and the diene elastomer Ed represents more than 50% by weight of the polymer matrix.
Powder for processing in a selective laser sintering method, SLS method, comprising a blend of at least amorphous polyether imide, PEI, and semicrystalline polyphenylene sulfide, PPS, wherein the blend exhibits not only the glass transition temperature but also at least one crystallization melting point, so that additive manufacturing by SLS is achievable with the blend, wherein the blend comprises the amorphous PEI and the PPS in a ratio of 0.5 parts amorphous PEI: 1.5 parts PPS to 1.5 parts amorphous PEI: 0.5 parts PPS.
A filler particle comprising a composite zinc oxide expressed by the following chemical formula: Zn x M y O in the formula, M is at least one selected from the group consisting of Mg, Co, Li, K, Na and Cu, x+ny/2=1 when the valence of M is n, and n and y satisfy the following relational expression: 0.0001 < ny / 2 < 0.3, excluding a filler particle comprising a zinc oxide which has a density of 4.0 g/cm 3 or more and a median size of 17 to 10000 μm.
Tree grate for covering the root area of trees, having a plurality of flat tree grate segments which are preferably provided with perforations and which can be placed, in particular with a receiving frame, on a foundation, wherein at least one bridge element is arranged between two tree grate segments, wherein the bridge element is connected by screw elements to both tree grate segments in order to connect the tree grate segments, characterised in that the tree grate segments is cast iron, and in that guide formations are formed on the underside of the tree grate segments, through which guide formations the bridge elements can be guided into an assembly position.
Apparatus for detecting udder disease in dairy animals, the apparatus comprising an accelerometer for attachment to a dairy animal and a processor operable to determine a measure of activity of a dairy animal to which the accelerometer is attached, wherein the measure of activity of the dairy animal is determined from a motion index which is the sum of measured net acceleration values, minus an offset for gravity, summed over a period of time; the apparatus further comprising a health condition detection module, operable to determine an acceptable measure of activity or an acceptable range of the measure of activity, of the dairy animal over one or more first periods, and operable to determine that a dairy animal has or may have an udder disease from a change in the measure of activity of the dairy animal from the acceptable measure, or acceptable range of the measure, during one or more second periods.
A method performed by a first network node for handling content in an Information-Centric Network, ICN, the first network node operating in a wireless communications network, the method comprising: obtaining an indication about one or more network nodes where a request for a content by a wireless device operating in the wireless communications network is predicted to be received in one or more future time periods, the one or more network nodes operating in the wireless communications network supporting ICN, wherein the obtaining the indication about the one or more network nodes is based on one or more groups of wireless devices (161, 162) operating in the wireless communications network, the one or more groups of wireless devices (161, 162) comprising the wireless device, the one or more groups of wireless devices (161, 162) being based on first information about the wireless devices, initiating instructing at least a subset of the one or more network nodes to obtain the content prior to the one or more future time periods. obtaining an indication about one or more network nodes where a request for a content by a wireless device operating in the wireless communications network is predicted to be received in one or more future time periods, the one or more network nodes operating in the wireless communications network supporting ICN, wherein the obtaining the indication about the one or more network nodes is based on one or more groups of wireless devices (161, 162) operating in the wireless communications network, the one or more groups of wireless devices (161, 162) comprising the wireless device, the one or more groups of wireless devices (161, 162) being based on first information about the wireless devices, initiating instructing at least a subset of the one or more network nodes to obtain the content prior to the one or more future time periods.
A network connection control method for a terminal device, characterized by comprising: accessing (S101, S201, S301) a first Access Point, AP, through a first Wireless-Fidelity, Wi-Fi, network interface of the terminal device and accessing a second AP through a second Wi-Fi network interface of the terminal device simultaneously; disconnecting (S102, S202, S302) the connection with the second AP in response to detecting a first Internet Protocol, IP, address of the first AP and a second IP address of the second AP are the same; determining a third AP based on a first Media Access Control, MAC, address of the first AP and a second MAC address of the second AP; and accessing (S104, S206, S306) the third AP through the second Wi-Fi network interface. accessing (S101, S201, S301) a first Access Point, AP, through a first Wireless-Fidelity, Wi-Fi, network interface of the terminal device and accessing a second AP through a second Wi-Fi network interface of the terminal device simultaneously; disconnecting (S102, S202, S302) the connection with the second AP in response to detecting a first Internet Protocol, IP, address of the first AP and a second IP address of the second AP are the same; determining a third AP based on a first Media Access Control, MAC, address of the first AP and a second MAC address of the second AP; and accessing (S104, S206, S306) the third AP through the second Wi-Fi network interface.
A gas burner comprising: a frame having an upper plate; a burner head seated on the upper plate and having a mixed gas flowing part and a mixed gas chamber in which a mixed gas is received; a burner cap seated on the burner head; and a burner body at which a nozzle configured to inject a gas to the burner head is installed, wherein the nozzle is disposed at an outside of the frame characterized in that the mixed gas flowing part is provided at a lower surface of the burner head, and extends radially from a center portion of the burner head, the nozzle is spaced horizontally from the mixed gas flowing part, such that the gas injected from the nozzle horizontally flows to the mixed gas flowing part, the burner cap comprises a plurality of mixed gas discharging holes for generating a flame, the burner head includes a guide part which guides the mixed gas flowing through the mixed gas flowing part upward, and the guide part protrudes upward from a bottom wall forming the mixed gas chamber. a frame having an upper plate; a burner head seated on the upper plate and having a mixed gas flowing part and a mixed gas chamber in which a mixed gas is received; a burner cap seated on the burner head; and a burner body at which a nozzle configured to inject a gas to the burner head is installed, wherein the nozzle is disposed at an outside of the frame characterized in that the mixed gas flowing part is provided at a lower surface of the burner head, and extends radially from a center portion of the burner head, the nozzle is spaced horizontally from the mixed gas flowing part, such that the gas injected from the nozzle horizontally flows to the mixed gas flowing part, the burner cap comprises a plurality of mixed gas discharging holes for generating a flame, the burner head includes a guide part which guides the mixed gas flowing through the mixed gas flowing part upward, and the guide part protrudes upward from a bottom wall forming the mixed gas chamber.
Machine arrangement, comprising a machine part to be monitored and comprising at least one carrier (1; 91) arranged on the machine part to be monitored, wherein a glass fiber (2; 92) is connected with the carrier (1; 91), wherein the connection between the glass fiber and the carrier (1; 91) is established by a metallic material (3'; 3") which metallic material is connected by material bonding with the carrier (1; 91) as well as with the glass fiber, characterized in that the carrier comprises a groove in which the glass fiber is arranged, wherein a filling consisting of a brazing alloy is arranged between the glass fiber and the carrier, wherein the glass fiber is embedded into the carrier by brazing, wherein the carrier is attached to the machine part to be monitored by means of pulse arc welding.
An application system for coating components with a coating means, which comprises following assemblies: - an application device, which applies the coating means, wherein the application device is a print head (1, 3) which ejects the coating means from a plurality of coating means nozzles (2, 4, 19), wherein a nozzle valve (5, 20) is attached to each individual coating means nozzle, which valve opens for a valve opening time when a drop of coating means is to leave the respective coating means nozzle, - a coating means supply line (6, 22), to which the coating means nozzles of the print head are jointly connected, - a coating means return line in which a return valve is installed, and - a valve control for controlling the valve opening times and valve closing times of each individual nozzle valve and the return valve, wherein the application system further comprises a pump, by means of which the coating means to be applied is supplied to the coating means nozzles via the coating means supply line, the valve control is configured so that the pump operates at a constant flow rate of the coating means during coating, characterized in that the valve control is configured such that the recirculation valve is open when all nozzle valves are closed and the recirculation valve is completely closed when all nozzle valves are open, so that the pressure at each coating means nozzle is exactly the same when the nozzle valve is opened as when this nozzle valve was previously opened. - an application device, which applies the coating means, wherein the application device is a print head (1, 3) which ejects the coating means from a plurality of coating means nozzles (2, 4, 19), wherein a nozzle valve (5, 20) is attached to each individual coating means nozzle, which valve opens for a valve opening time when a drop of coating means is to leave the respective coating means nozzle, - a coating means supply line (6, 22), to which the coating means nozzles of the print head are jointly connected, - a coating means return line in which a return valve is installed, and - a valve control for controlling the valve opening times and valve closing times of each individual nozzle valve and the return valve, wherein the application system further comprises a pump, by means of which the coating means to be applied is supplied to the coating means nozzles via the coating means supply line, the valve control is configured so that the pump operates at a constant flow rate of the coating means during coating, characterized in that the valve control is configured such that the recirculation valve is open when all nozzle valves are closed and the recirculation valve is completely closed when all nozzle valves are open, so that the pressure at each coating means nozzle is exactly the same when the nozzle valve is opened as when this nozzle valve was previously opened.
A laser micro/nano fabrication system for processing a metal ion solution, comprising: a laser light source (1, 2) providing a first laser beam having a first wavelength and a second laser beam having a second wavelength being different from the first wavelength, wherein the first laser beam has a pulse width in the range of nanosecond to femtosecond and the second laser beam is a continuous wave laser beam; and an optical focusing assembly (18, 19, 20) for focusing the first laser beam and the second laser beam to the same focal point; a computer controlled micromovement stage; the first wavelength being adapted to induce two-photon absorption effects in the metal ion solution to reduce the metal ions to metal nanoparticles; and the second wavelength being adapted to induce an optical tweezer effect and surface plasmon absorption on the metal nanoparticles to aggregate the metal nanoparticles towards the center of the focal point and melt the metal nanoparticles by heating effect of surface plasmons to form a micro/nano structure. a laser light source (1, 2) providing a first laser beam having a first wavelength and a second laser beam having a second wavelength being different from the first wavelength, wherein the first laser beam has a pulse width in the range of nanosecond to femtosecond and the second laser beam is a continuous wave laser beam; and an optical focusing assembly (18, 19, 20) for focusing the first laser beam and the second laser beam to the same focal point; a computer controlled micromovement stage; the first wavelength being adapted to induce two-photon absorption effects in the metal ion solution to reduce the metal ions to metal nanoparticles; and the second wavelength being adapted to induce an optical tweezer effect and surface plasmon absorption on the metal nanoparticles to aggregate the metal nanoparticles towards the center of the focal point and melt the metal nanoparticles by heating effect of surface plasmons to form a micro/nano structure.
Unmanned ground-based transport vehicle, UGV (100; 1000), comprising: a housing (1; 1001), having a base plate (1c; 1001c) and at least one housing side wall (1a; 1001a) that is substantially perpendicular to the base plate (1c; 1001c); at least one wheel drive, which is arranged in the housing (1; 1001); at least one wheel (13; 130), which is coupled to the at least one wheel drive and arranged in a recess (1d; 1001d) in the base plate (1c; 1001c); a plurality of sensors (2a; 2b; 3) for sensing the environment of the UGV (100: 1000); a controller for autonomous location and navigation of the UGV (100; 1000) on the basis of sensing parameters of the plurality of sensors (2a; 2b; 3), the controller having a wireless communication module, via which the controller of one UGV (100; 1000) is configured to exchange data with a controller of another UGV so as to be adapted to move a load in a cooperative manner; and at least one load-receiving element that is coupled to the housing side wall (1a; 1001a) and extends outwards from the housing side wall (1a; 1001a), the at least one load-receiving element comprising a load support surface for supporting an item with respect to a vertical direction which extends transverse to the base plate (1c; 1001c), the unmanned ground-based transport vehicle being characterised in that the at least one wheel drive is configured to deflect the at least one wheel (13, 130) so that the housing (1, 1001) can be lifted together with the load-receiving element in order to lift an item supported by the load-receiving element. a housing (1; 1001), having a base plate (1c; 1001c) and at least one housing side wall (1a; 1001a) that is substantially perpendicular to the base plate (1c; 1001c); at least one wheel drive, which is arranged in the housing (1; 1001); at least one wheel (13; 130), which is coupled to the at least one wheel drive and arranged in a recess (1d; 1001d) in the base plate (1c; 1001c); a plurality of sensors (2a; 2b; 3) for sensing the environment of the UGV (100: 1000); a controller for autonomous location and navigation of the UGV (100; 1000) on the basis of sensing parameters of the plurality of sensors (2a; 2b; 3), the controller having a wireless communication module, via which the controller of one UGV (100; 1000) is configured to exchange data with a controller of another UGV so as to be adapted to move a load in a cooperative manner; and at least one load-receiving element that is coupled to the housing side wall (1a; 1001a) and extends outwards from the housing side wall (1a; 1001a), the at least one load-receiving element comprising a load support surface for supporting an item with respect to a vertical direction which extends transverse to the base plate (1c; 1001c), the unmanned ground-based transport vehicle being characterised in that the at least one wheel drive is configured to deflect the at least one wheel (13, 130) so that the housing (1, 1001) can be lifted together with the load-receiving element in order to lift an item supported by the load-receiving element.