mhurhangee/ep-ind-claims huggingface dataset:
Composition for dyeing keratin fibers, comprising, in a suitable medium: • at least a first oxidation base chosen from 2,3-diamino-6,7-dihydro-1H-5H-pyrazolo[1,2-a]pyrazol-1-one and addition salts thereof; and • at least a second oxidation base chosen from 4,5-diamino-1-(β-hydroxyethyl)pyrazole and addition salts thereof. • at least a first oxidation base chosen from 2,3-diamino-6,7-dihydro-1H-5H-pyrazolo[1,2-a]pyrazol-1-one and addition salts thereof; and • at least a second oxidation base chosen from 4,5-diamino-1-(β-hydroxyethyl)pyrazole and addition salts thereof.
A fuel cell battery comprising stacked cells, comprising a superposition of plates, called bipolar plates (BP, BP'), between which assemblies comprising both an electrolytic membrane and an electrode on each side of the membrane are placed, the plates being provided, on their periphery, with apertures serving to deliver reactive gases, and with apertures serving to evacuate reaction products, the apertures of adjacent plates being aligned in order to form supply or evacuation manifolds that pass right through the stack of cells, and the apertures of the manifolds being encircled by individual ring joints (J A, J B) that are separated from one another and separate from the bipolar plates, certain joints (J A, J' B) forming sealing joints between the aperture and a cell, and other joints forming injectors (J' A, J B) for a fluid to be delivered to a cell or to be evacuated from a cell, characterized in that the ring joints are formed from at least one nonplanar metal sheet and a complementary part (T B), the metal sheet having a U-shaped cross section in a plane perpendicular to the plane of the apertures, the arms of the U being flared and having ends folded parallel to the bottom (F A), the bottom bearing against the bipolar plate around the aperture or against an electrolytic membrane, the thickness of the joint corresponding to the distance between the bipolar plate and the membrane, the joints forming injectors being provided with local passages (P B) in the thickness of the joint in order to allow the fluid to pass, and the joints forming sealing joints being without such passages in order to maintain the seal, the complementary part possibly being made of metal or polymer, and the passages being formed in the complementary part.
A rotor blade handling apparatus, comprising: a mount frame; a stinger boom carried by said mount frame; and a lift block assembly including: a lift block carried by said stinger boom; and at least one lock pin carried by said lift block, wherein a rotor blade is attachable to said lift block by causing engagement of said at least one lock pin with said rotor blade; and wherein said rotor blade can be positioned by movement of said lift block. a mount frame; a stinger boom carried by said mount frame; and a lift block assembly including: a lift block carried by said stinger boom; and at least one lock pin carried by said lift block, wherein a rotor blade is attachable to said lift block by causing engagement of said at least one lock pin with said rotor blade; and wherein said rotor blade can be positioned by movement of said lift block. a lift block carried by said stinger boom; and at least one lock pin carried by said lift block, wherein a rotor blade is attachable to said lift block by causing engagement of said at least one lock pin with said rotor blade; and wherein said rotor blade can be positioned by movement of said lift block.
A reference signal indication method, wherein the method comprises: transmitting, by a network device, first indication information to a terminal device, wherein the first indication information indicates a time domain density for transmitting a phase tracking reference signal, PTRS, by the terminal device; receiving, by the network device, the PTRS transmitted by the terminal device based on the time domain density indicated by the first indication information, wherein the time domain density is a density in a discrete Fourier transform spread orthogonal frequency division multiplexing, DFT-s-OFDM, waveform; wherein the time domain density is a time domain density on a sampling point level for transmitting the PTRS by the terminal device, the time domain density on the sampling point level is a quantity of PTRS sampling points in a unit DFT-s-OFDM symbol, and characterized in that the PTRS sampling points are distributed in one or more blocks in the unit DFT-s-OFDM symbol, and each block comprises a plurality of PTRS consecutive sampling points. transmitting, by a network device, first indication information to a terminal device, wherein the first indication information indicates a time domain density for transmitting a phase tracking reference signal, PTRS, by the terminal device; receiving, by the network device, the PTRS transmitted by the terminal device based on the time domain density indicated by the first indication information, wherein the time domain density is a density in a discrete Fourier transform spread orthogonal frequency division multiplexing, DFT-s-OFDM, waveform; wherein the time domain density is a time domain density on a sampling point level for transmitting the PTRS by the terminal device, the time domain density on the sampling point level is a quantity of PTRS sampling points in a unit DFT-s-OFDM symbol, and characterized in that the PTRS sampling points are distributed in one or more blocks in the unit DFT-s-OFDM symbol, and each block comprises a plurality of PTRS consecutive sampling points.
A floating-type platform system for a solar energy generating device with a platform comprising: a platform frame made of rigid material; and a plurality of floats each being an annular hollow member with buoyance and each including a center having a coupling hole through which a respective coupling post extends, with plural floats mounted on the respective coupling post and arranged in a row in a vertical direction to provide the platform with vertical buoyance to float on water, with the vertical rows of floats having a spacing therebetween to permit flow of water; characterized in that the platform frame includes an outer frame portion extending horizontally, with the outer frame portion including a center having connecting rods, and with the outer frame portion including a plurality of elongated coupling posts extending vertically downwards therefrom; wherein the platform frame includes an adjusting portion capable of adjusting buoyance of the platform; the adjusting portion being disposed to a location of the connecting rods aligned with the center of the outer frame portion, wherein the adjusting portion includes a hollow member extending downwards from the connecting rods and including a chamber in a center thereof and a filling port, and wherein the filling port of the adjusting portion is configured to fill a fluid into the chamber. a platform frame made of rigid material; and a plurality of floats each being an annular hollow member with buoyance and each including a center having a coupling hole through which a respective coupling post extends, with plural floats mounted on the respective coupling post and arranged in a row in a vertical direction to provide the platform with vertical buoyance to float on water, with the vertical rows of floats having a spacing therebetween to permit flow of water; characterized in that the platform frame includes an outer frame portion extending horizontally, with the outer frame portion including a center having connecting rods, and with the outer frame portion including a plurality of elongated coupling posts extending vertically downwards therefrom; wherein the platform frame includes an adjusting portion capable of adjusting buoyance of the platform; the adjusting portion being disposed to a location of the connecting rods aligned with the center of the outer frame portion, wherein the adjusting portion includes a hollow member extending downwards from the connecting rods and including a chamber in a center thereof and a filling port, and wherein the filling port of the adjusting portion is configured to fill a fluid into the chamber.
A charged particle beam apparatus that includes a magnetic lens (12, 14) having an electromagnetic coil composed of a pair of coils (30a, 30b), the charged particle beam apparatus comprising: a setting unit that sets a maximum current value that defines a maximum magnetomotive force of the magnetic lens based on an operation of a user; and a current control unit that controls a current to be supplied to each of the pair of coils within a current range corresponding to a set maximum current value so that thermal power consumed by the electromagnetic coil is maintained constant at thermal power corresponding to the set maximum current value. a setting unit that sets a maximum current value that defines a maximum magnetomotive force of the magnetic lens based on an operation of a user; and a current control unit that controls a current to be supplied to each of the pair of coils within a current range corresponding to a set maximum current value so that thermal power consumed by the electromagnetic coil is maintained constant at thermal power corresponding to the set maximum current value.
A space creating shower liner for a tub in combination with a shower rod having in use a distance to a floor, comprising a window, which is made of a flexible plastic, that is transparent or translucent, and that has a weight W to create the pivot effect for the liner comprising: a hoop fin rotatably and removably engaging the shower rod; a plurality of stiffening folds (210, 212. 214, 216, 218) providing partial stiffness to the window; a window height less than a distance from the shower rod in use to the floor; and a liner removably engaged to the window, comprising a liner height less than the distance from the shower rod in use to the floor, wherein the hoop fin causes the window and the liner to rotate about the shower rod, and wherein, once the liner is attached to the window, the combination of the window height and the liner height is greater than or equal to the distance from the shower rod in use to the floor to prevent water from exiting the tub. a hoop fin rotatably and removably engaging the shower rod; a plurality of stiffening folds (210, 212. 214, 216, 218) providing partial stiffness to the window; a window height less than a distance from the shower rod in use to the floor; and a liner removably engaged to the window, comprising a liner height less than the distance from the shower rod in use to the floor, wherein the hoop fin causes the window and the liner to rotate about the shower rod, and wherein, once the liner is attached to the window, the combination of the window height and the liner height is greater than or equal to the distance from the shower rod in use to the floor to prevent water from exiting the tub.
A filtering device, comprising: a housing, comprising an inner cavity; a resonant conductor, disposed inside the inner cavity, wherein the resonant conductor is disposed inside the cavity by plugging in, and the resonant conductor is vertically or horizontally disposed inside the inner cavity; a pressing element, having one end disposed on the housing and another end suspended, and facing a position of an open-circuit end of the resonant conductor, wherein a distance between the pressing element and the resonant conductor is changeable by pressing or drawing the pressing element, to thereby adjust a resonant frequency; and a cavity terminal integrally formed with the housing, wherein the cavity terminal is configured to electrically connect a short circuit end of the resonant conductor to the housing, and configured to support the resonant conductor, when the resonant conductor is disposed inside the inner cavity. a housing, comprising an inner cavity; a resonant conductor, disposed inside the inner cavity, wherein the resonant conductor is disposed inside the cavity by plugging in, and the resonant conductor is vertically or horizontally disposed inside the inner cavity; a pressing element, having one end disposed on the housing and another end suspended, and facing a position of an open-circuit end of the resonant conductor, wherein a distance between the pressing element and the resonant conductor is changeable by pressing or drawing the pressing element, to thereby adjust a resonant frequency; and a cavity terminal integrally formed with the housing, wherein the cavity terminal is configured to electrically connect a short circuit end of the resonant conductor to the housing, and configured to support the resonant conductor, when the resonant conductor is disposed inside the inner cavity.
Method to control and clean a boiler provided at least with a watertight container and a discharge aperture, said method comprising: - setting a programmed frequency of cleaning cycles for a first predefined quantity of liters of water; - starting from said predefined quantity, the detection, by a control and command unit, of a heating time to take the water contained in the watertight container from ambient temperature to the desired temperature, and the comparison of said heating time with a preset reference heating time (T R); characterized by further comprising: - if said heating time corresponds to the reference heating time (T R) plus or minus a desired tolerance threshold, the frequency of the cleaning cycles is not modified with respect to the frequency corresponding to the first predefined quantity of liters of water; - if said heating time exceeds the desired tolerance threshold with respect to reference heating time (T R), the frequency of the cleaning cycles is increased with respect to the frequency corresponding to the first predefined quantity of liters of water. - setting a programmed frequency of cleaning cycles for a first predefined quantity of liters of water; - starting from said predefined quantity, the detection, by a control and command unit, of a heating time to take the water contained in the watertight container from ambient temperature to the desired temperature, and the comparison of said heating time with a preset reference heating time (T R); - if said heating time corresponds to the reference heating time (T R) plus or minus a desired tolerance threshold, the frequency of the cleaning cycles is not modified with respect to the frequency corresponding to the first predefined quantity of liters of water; - if said heating time exceeds the desired tolerance threshold with respect to reference heating time (T R), the frequency of the cleaning cycles is increased with respect to the frequency corresponding to the first predefined quantity of liters of water.
Loading and unloading apparatus of loose material comprising: - a two shell grab bucket, equipped with a first and a second shell rotatably hinged to each other so as to be reciprocally moved between a completely open angular position and a completely closed angular position; and - a system (7, 8, 21) for detecting the state of closure of the two shell grab bucket; characterised in that the detecting system (7, 8, 21) comprises: - a magnetic field sensor, adapted to detect the presence of a magnetic field and to provide in output a signal bearing information on said magnetic field; - a first container attached to the first shell to be integral therewith in movement and comprising a first housing seat which houses the magnetic field sensor; - a magnetic field generator; - a second container attached to the second shell to be integral therewith in movement and comprising a second housing seat in which the magnetic field generator is housed; - a detection circuit operatively connected to the magnetic field sensor to receive said signal and discriminate whether said shells (3, 4) are in the completely closed angular position or not; wherein the first and the second container are adapted and configured to rotate in relation to one another, each being integral in rotation with the respective shell. - a two shell grab bucket, equipped with a first and a second shell rotatably hinged to each other so as to be reciprocally moved between a completely open angular position and a completely closed angular position; and - a system (7, 8, 21) for detecting the state of closure of the two shell grab bucket; - a magnetic field sensor, adapted to detect the presence of a magnetic field and to provide in output a signal bearing information on said magnetic field; - a first container attached to the first shell to be integral therewith in movement and comprising a first housing seat which houses the magnetic field sensor; - a magnetic field generator; - a second container attached to the second shell to be integral therewith in movement and comprising a second housing seat in which the magnetic field generator is housed; - a detection circuit operatively connected to the magnetic field sensor to receive said signal and discriminate whether said shells (3, 4) are in the completely closed angular position or not;
An energy conversion apparatus for a freezer, comprising: - at least one housing having a first region therein for receiving liquid carbon dioxide (CO 2) at a first pressure and at a first energy state for providing potential energy; - at least one movable member (10; 38; 58; 200) rotatably mounted to the housing (101; 210) and having a second region in fluid communication with the first region, the second region constructed to receive the liquid carbon dioxide (CO 2) for changing to a second pressure less than the first pressure, and a second energy state less than the first energy state for providing kinetic energy from which mechanical work is provided to rotate the movable member (10; 38; 58; 200); and - at least one discharge member (20; 40; 59; 240) connected to the movable member (10; 38; 58; 200) and having a third region in fluid communication with the second region, the third region continuing the mechanical work when exhausting the liquid carbon dioxide (CO 2) at a third pressure less than the second pressure, and at a third energy state less than the second energy state such that the liquid carbon dioxide (CO 2) is changed to a carbon dioxide (CO 2) snow, characterized in that the movable member comprises at least one turbine. - at least one housing having a first region therein for receiving liquid carbon dioxide (CO 2) at a first pressure and at a first energy state for providing potential energy; - at least one movable member (10; 38; 58; 200) rotatably mounted to the housing (101; 210) and having a second region in fluid communication with the first region, the second region constructed to receive the liquid carbon dioxide (CO 2) for changing to a second pressure less than the first pressure, and a second energy state less than the first energy state for providing kinetic energy from which mechanical work is provided to rotate the movable member (10; 38; 58; 200); and - at least one discharge member (20; 40; 59; 240) connected to the movable member (10; 38; 58; 200) and having a third region in fluid communication with the second region, the third region continuing the mechanical work when exhausting the liquid carbon dioxide (CO 2) at a third pressure less than the second pressure, and at a third energy state less than the second energy state such that the liquid carbon dioxide (CO 2) is changed to a carbon dioxide (CO 2) snow, characterized in that the movable member comprises at least one turbine.
A method performed by a source application server handler, ASH, for transitioning a user equipment, UE, to a new application server in response to a mobility event, the method comprising: receiving a user equipment ID, UE-ID, for a user equipment, LTE from an application client handler, ACH, of the UE; receiving an application client ID, AC-ID, associated with an application client and an application server ID, AS-ID, for a source application server from an application client handler, ACH, of the LTE; receiving a mobility event notification including the UE ID of the LTE and a target data network access identifier, DNAI, to indicate a target edge data network to which a transition of a data connection for the application client is to be performed; encoding an outgoing transition request for transmission to a source application server to indicate the transition of the data connection from the source application server, wherein the outgoing transition request includes the AC-ID; and encoding an outgoing transition request for transmission to a target application server handler, ASH, of the target edge data network to indicate the transition of the data connection to the target edge data network, wherein the outgoing transition request for transmission to the target ASH includes at least one application server ID, AS-ID, for the source application server and the UE-ID. receiving a user equipment ID, UE-ID, for a user equipment, LTE from an application client handler, ACH, of the UE; receiving an application client ID, AC-ID, associated with an application client and an application server ID, AS-ID, for a source application server from an application client handler, ACH, of the LTE; receiving a mobility event notification including the UE ID of the LTE and a target data network access identifier, DNAI, to indicate a target edge data network to which a transition of a data connection for the application client is to be performed; encoding an outgoing transition request for transmission to a source application server to indicate the transition of the data connection from the source application server, wherein the outgoing transition request includes the AC-ID; and encoding an outgoing transition request for transmission to a target application server handler, ASH, of the target edge data network to indicate the transition of the data connection to the target edge data network, wherein the outgoing transition request for transmission to the target ASH includes at least one application server ID, AS-ID, for the source application server and the UE-ID.
A method of fabricating an acoustic transducer comprising: fabricating a substrate; depositing a bottom electrode on the substrate; depositing a piezoelectrically active layer on the bottom electrode to form an active layer with an effective lateral coupling coefficient k 31,eff of less than 0.24; depositing a top electrode on the active layer; wherein at least one electrode is patterned to form at least two active elements; and, wherein a ratio of a thickness coupling coefficient k t to an effective lateral coupling coefficient k 31,eff of the active layer is 1.3 or greater. fabricating a substrate; depositing a bottom electrode on the substrate; depositing a piezoelectrically active layer on the bottom electrode to form an active layer with an effective lateral coupling coefficient k 31,eff of less than 0.24; depositing a top electrode on the active layer; wherein at least one electrode is patterned to form at least two active elements; and, wherein a ratio of a thickness coupling coefficient k t to an effective lateral coupling coefficient k 31,eff of the active layer is 1.3 or greater.