mhurhangee/ep-ind-claims huggingface dataset:
A cosmetic container comprising: a base member (11, 14); a housing including a support sleeve placed on an upper surface of the base member (11, 14), a center sleeve placed on the upper surface of the base member (11, 14) at an inner center of the support sleeve, a partition plate connecting an upper end of the support sleeve and an upper end of the center sleeve, a main storage space formed between the support sleeve and the center sleeve, and a temporary storage space formed inside the center sleeve; a frame coupled to an upper end of the housing and having a hole of a predetermined size formed therein; a stem coupled to the frame so as to be movable in a vertical direction while being accommodated in the hole and having a discharge port for discharging a cosmetic solution formed in a center thereof; a piston assembly mounted on a bottom surface of the stem and accommodated in the temporary storage space; and a disc valve mounted on a lower end of the center sleeve for selectively communicating the main storage space and the temporary storage space, characterized in that the disc valve is disposed radially outside a region in which the piston assembly is moved up and down. a base member (11, 14); a housing including a support sleeve placed on an upper surface of the base member (11, 14), a center sleeve placed on the upper surface of the base member (11, 14) at an inner center of the support sleeve, a partition plate connecting an upper end of the support sleeve and an upper end of the center sleeve, a main storage space formed between the support sleeve and the center sleeve, and a temporary storage space formed inside the center sleeve; a frame coupled to an upper end of the housing and having a hole of a predetermined size formed therein; a stem coupled to the frame so as to be movable in a vertical direction while being accommodated in the hole and having a discharge port for discharging a cosmetic solution formed in a center thereof; a piston assembly mounted on a bottom surface of the stem and accommodated in the temporary storage space; and a disc valve mounted on a lower end of the center sleeve for selectively communicating the main storage space and the temporary storage space, characterized in that the disc valve is disposed radially outside a region in which the piston assembly is moved up and down.
An acyl dipeptide derivative represented by the formula: wherein R 1 -CO- is a decanoyl group, and R 2, R 3 and R 4 are all hydrogen atoms, or a salt thereof.
A method of fabricating an organic film, comprising: a) providing a heated non-reactive carrier gas transporting an organic vapor; b) ejecting the heated non-reactive carrier gas transporting an organic vapor through a nozzle block, with a bulk flow velocity at least as great as the thermal velocity of the molecules, onto a cooled substrate, to form a patterned organic film, wherein the distance between substrate and nozzle block is within the molecular free path of the carrier gas. a) providing a heated non-reactive carrier gas transporting an organic vapor; b) ejecting the heated non-reactive carrier gas transporting an organic vapor through a nozzle block, with a bulk flow velocity at least as great as the thermal velocity of the molecules, onto a cooled substrate, to form a patterned organic film, wherein the distance between substrate and nozzle block is within the molecular free path of the carrier gas.
A polymeric ophthalmic or otorhhinolaryngological device material, having a refractive index of 1.57 or greater measured at 589 nm and at room temperature (23±3°C) in fully hydrated state, a Young's modulus of about 60 MPa or less, a glass transition temperature of about 35°C or less, an elongation of at least 100%, wherein the polymeric ophthalmic or otorhhinolaryngological device material is a copolymerization product of a polymerizable composition comprising a) from 40% to 95% by weight of at least one poly(phenyl ether)-containing monomer of formula, and b) from 1% to 6% by weight of a poly(ethylene glycol)-containing polymerizable component comprising at least one polymerizable group which is acryloyl (OC(=O)CH=CH 2), methacryloyl (OC(=O)CCH 3 =CH 2), acrylamido (NHC(=O)CH=CH 2), methacrylamido (NHC(=O)CCH 3 =CH 2), or thiol group, wherein: R 1 is H or CH 3; R a, R b, R c, R d, R e, R f, R g, R h, and R i independent of one another are H, C 1 -C 12 alkyl, or C 1 -C 12 alkoxy; B 1 is a direct bond, (CH 2) m1, or (OCH 2 CH 2) m2, in which m1 is 2-6 and m2 is 1-10; Q 1 is a direct bond, O, NH, or C(=O)NH(CH 2) m3 O in which m3 is an integer of 2-6; n1 is an integer from 1 to 9; n2 is an integer from 0 to 6; and Y 1 is a direct bond, O, S, OC(=O)NH, NHC(=O)NH, or NR' in which R' is H, C 1 -C 10 alkyl, C 6 H 5, or CH 2 C 6 H 5. R 1 is H or CH 3; R a, R b, R c, R d, R e, R f, R g, R h, and R i independent of one another are H, C 1 -C 12 alkyl, or C 1 -C 12 alkoxy; B 1 is a direct bond, (CH 2) m1, or (OCH 2 CH 2) m2, in which m1 is 2-6 and m2 is 1-10; Q 1 is a direct bond, O, NH, or C(=O)NH(CH 2) m3 O in which m3 is an integer of 2-6; n1 is an integer from 1 to 9; n2 is an integer from 0 to 6; and Y 1 is a direct bond, O, S, OC(=O)NH, NHC(=O)NH, or NR' in which R' is H, C 1 -C 10 alkyl, C 6 H 5, or CH 2 C 6 H 5.
A method for controlling remote radio head contribution by a plurality of remote radio heads (1a-i) in at least one combiner (5, 5a-c), the method being performed in a remote radio head controller and comprising the steps of: obtaining a number of available baseband processor devices (18, 18a-b) for uplink processing, each available baseband processor device being connected to at least one of the at least one combiner (5, 5a-c); connecting uplink signals from a set of one or more remote radio heads in each one of the at least one combiner (5, 5a-c); determining a respective radio channel measurement for uplink radio communication from a first wireless device via the at least one combiner; repeating the steps of connecting and determining until radio channel measurements for uplink communication from the wireless device have been determined for all of the plurality of remote radio heads (1a-i); selecting a first subset of at least one remote radio head from the plurality of remote radio heads (1a-i) for receiving radio communication from the first wireless device; and reducing an uplink contribution from at least one remote radio head, of the plurality of remote radio heads, which is not part of the first subset, characterized in that the step of selecting a first subset of at least one remote radio head comprises including all of the plurality of remote radio heads in the first subset for a period when uplink random access reception is enabled. obtaining a number of available baseband processor devices (18, 18a-b) for uplink processing, each available baseband processor device being connected to at least one of the at least one combiner (5, 5a-c); connecting uplink signals from a set of one or more remote radio heads in each one of the at least one combiner (5, 5a-c); determining a respective radio channel measurement for uplink radio communication from a first wireless device via the at least one combiner; repeating the steps of connecting and determining until radio channel measurements for uplink communication from the wireless device have been determined for all of the plurality of remote radio heads (1a-i); selecting a first subset of at least one remote radio head from the plurality of remote radio heads (1a-i) for receiving radio communication from the first wireless device; and reducing an uplink contribution from at least one remote radio head, of the plurality of remote radio heads, which is not part of the first subset,
A cutting system, comprising: a cutting device having: a hollow cutting element having a cutting edge, the hollow cutting element being elongated; a drive unit for rotating said cutting element about a longitudinal axis of said cutting element; and a gas flow direction unit for applying a suction force through the hollow cutting element; a control unit configured to control the gas flow direction unit and the drive unit such that a suction force is applied through the hollow cutting element characterized in that the control unit is further configured to apply said suction force to attract a leaf of a plant towards the hollow cutting element; and that the hollow cutting element is rotated to cut through the leaf while maintaining said suction force. a cutting device having: a hollow cutting element having a cutting edge, the hollow cutting element being elongated; a drive unit for rotating said cutting element about a longitudinal axis of said cutting element; and a gas flow direction unit for applying a suction force through the hollow cutting element; a hollow cutting element having a cutting edge, the hollow cutting element being elongated; a drive unit for rotating said cutting element about a longitudinal axis of said cutting element; and a gas flow direction unit for applying a suction force through the hollow cutting element; a control unit configured to control the gas flow direction unit and the drive unit such that a suction force is applied through the hollow cutting element characterized in that the control unit is further configured to apply said suction force to attract a leaf of a plant towards the hollow cutting element; and that the hollow cutting element is rotated to cut through the leaf while maintaining said suction force.
Process for preparing a lubricated thermoplastic polymer in which at least one lubricant is introduced into the polymer in the melt state during the polymerization process of the polymer, characterized in that the lubricant is a mixture of paraffin, fatty acid and fatty acid metal salt and in that the thermoplastic polymer is a polyamide.
An apparatus for angular acceleration detection, comprising: a substrate; a proof mass having an outer edge bounding a first area, an inner edge disposed within the first area and bounding a second area smaller than the first area, and a center disposed within the second area; the proof mass further comprising a plurality of beams fixed to the inner edge of the proof mass and extending toward the center of the proof mass; and a first electrode connected to the substrate and adjacent a first beam of the plurality of beams, and configured to generate a first detection signal in response to a movement of the beam about a first axis; wherein the proof mass is coupled to the substrate through at least one anchor disposed closer to the center of the proof mass than the plurality of beams; characterised in that the apparatus further comprises a second electrode disposed on the substrate and configured to generate a second detection signal in response to a second movement of the proof mass about a second axis, perpendicular to the first axis. a substrate; a proof mass having an outer edge bounding a first area, an inner edge disposed within the first area and bounding a second area smaller than the first area, and a center disposed within the second area; the proof mass further comprising a plurality of beams fixed to the inner edge of the proof mass and extending toward the center of the proof mass; and a first electrode connected to the substrate and adjacent a first beam of the plurality of beams, and configured to generate a first detection signal in response to a movement of the beam about a first axis; wherein the proof mass is coupled to the substrate through at least one anchor disposed closer to the center of the proof mass than the plurality of beams; characterised in that the apparatus further comprises a second electrode disposed on the substrate and configured to generate a second detection signal in response to a second movement of the proof mass about a second axis, perpendicular to the first axis.
A multistage gear type hydraulic pump, comprising: a first fluid section; a second fluid section; a shaft connected to drive the first fluid section and the second fluid section; characterised by at least one needle bearing (30, 38) located to support the shaft; and a lead-bronze bearing located to support the shaft; wherein the needle bearing (30, 38) continuously supports the shaft and the lead-bronze bearing only intermittently supports the shaft. a first fluid section; a second fluid section; a shaft connected to drive the first fluid section and the second fluid section;
A data processing system with a trusted execution environment, comprising: • a host processor having a secure mode for operating in the trusted execution environment and a non-secure mode; • a system bus connected to the host processor; • resources (14, 30) connected to the system bus, accessible through addresses within a secure address space used by the trusted execution environment and a public address space; and • a secure module connected to the system bus, configured to respond to tokens posted by the host processor in secure mode, wherein each token identifies a secure asset, and source and destination addresses within the secure and public address spaces, the secure module including: - an internal memory storing secure assets identifiable by the tokens; - a memory access circuit connected to read data from the source addresses and write processed data to the destination addresses; and - a cryptography engine (18, 20) configured to process the read data using the identified secure assets; characterized in that: • the secure module is configured to also respond to tokens posted by the host processor in non-secure mode; • the internal memory of the secure module stores a rule (Px) together with each secure asset (Ax), defining permissions as to the address spaces where the memory access circuit may read and write the data; and • the secure module ignores tokens that do not satisfy the permissions defined for the corresponding assets. • a host processor having a secure mode for operating in the trusted execution environment and a non-secure mode; • a system bus connected to the host processor; • resources (14, 30) connected to the system bus, accessible through addresses within a secure address space used by the trusted execution environment and a public address space; and • a secure module connected to the system bus, configured to respond to tokens posted by the host processor in secure mode, wherein each token identifies a secure asset, and source and destination addresses within the secure and public address spaces, the secure module including: - an internal memory storing secure assets identifiable by the tokens; - a memory access circuit connected to read data from the source addresses and write processed data to the destination addresses; and - a cryptography engine (18, 20) configured to process the read data using the identified secure assets; - an internal memory storing secure assets identifiable by the tokens; - a memory access circuit connected to read data from the source addresses and write processed data to the destination addresses; and - a cryptography engine (18, 20) configured to process the read data using the identified secure assets; • the secure module is configured to also respond to tokens posted by the host processor in non-secure mode; • the internal memory of the secure module stores a rule (Px) together with each secure asset (Ax), defining permissions as to the address spaces where the memory access circuit may read and write the data; and • the secure module ignores tokens that do not satisfy the permissions defined for the corresponding assets.
An oral tablet suitable for active pharmaceutical ingredients comprising a population of particles, the population of particles comprising directly compressible and non-directly compressible (non-DC) sugar alcohol particles, the non-DC sugar alcohol particles having not been granulated prior to tableting and providing the tablet with a plurality of discrete non-DC areas evenly distributed in the tablet or at least one module of the tablet, and the non-DC areas resulting in induced saliva generation upon mastication of the tablet, wherein the non-DC sugar alcohol particles are selected from the group consisting of non-DC particles of erythritol, maltitol, xylitol, isomalt, lactitol, and combinations thereof.
A terrestrial node of a system, the system comprising a gateway, a non-terrestrial node, a terrestrial node and at least a user equipment, wherein terrestrial node comprises a HARQ controller, wherein the gateway is configured to forward a data packet, said data packet to be transmitted to the user equipment, to the non-terrestrial node, wherein the non-terrestrial node is configured to forward the received data packet to the user equipment using a signal, wherein the user equipment is configured to analyze the received data packet with regard to a transmission error and/or to analyze the signal from the non-terrestrial node with regard to a signal quality and to generate a negative acknowledgment command or an acknowledgement command dependent on the transmission error or to generate another signal indicating the reception signal quality dependent on the reception signal quality, wherein the user equipment is configured to transmit the acknowledgement command and the non-acknowledgement command or the other signal to the terrestrial node which communicates with the non-terrestrial node, the terrestrial node comprising: a non-terrestrial signal receiver configured to receive the data packet or a redundancy version of the data packet from the non-terrestrial node; a memory configured to buffer the data packet or the redundancy version of the data packet; a terrestrial signal receiver configured to receive the acknowledgement command or the non-acknowledgement command from the user equipment; and a terrestrial signal transmitter configured to retransmit the data packet or a redundancy version of the data packet to the user equipment as response to the non-acknowledgment command; wherein the terrestrial node is configured to listen to said signal from the non-terrestrial node in order to receive the data packet sent to the user equipment. a non-terrestrial signal receiver configured to receive the data packet or a redundancy version of the data packet from the non-terrestrial node; a memory configured to buffer the data packet or the redundancy version of the data packet; a terrestrial signal receiver configured to receive the acknowledgement command or the non-acknowledgement command from the user equipment; and a terrestrial signal transmitter configured to retransmit the data packet or a redundancy version of the data packet to the user equipment as response to the non-acknowledgment command; wherein the terrestrial node is configured to listen to said signal from the non-terrestrial node in order to receive the data packet sent to the user equipment.
A service fault locating method, comprising: receiving a service fault locating request message, wherein the service fault locating request message carries a Network Protocol, IP, address IPs of a source layer-3 device of a service packet, an IP address IP D of a destination layer-3 device of the service packet, and a characteristic parameter of the service packet; determining, according to the characteristic parameter of the service packet, the IPs, and the IP D, that a service fault is between a first layer-3 device and a second layer-3 device, wherein the second layer-3 device is a next hop layer-3 device of the first layer-3 device, wherein the service fault is a link fault, a port fault, or a device fault; obtaining (S 103) a first network topology between the first layer-3 device and the second layer-3 device; determining a first forwarding path of the service packet between the first layer-3 device and the second layer-3 device according to the first network topology and the characteristic parameter of the service packet; configuring a forwarding entry for a forwarding device in the first forwarding path, and triggering the first layer-3 device to generate an extended layer-2 OAM packet, so that the forwarding device forwards the extended layer-2 OAM packet according to the first forwarding path; and obtaining a first path parameter that is of the first forwarding path and sent by the forwarding device, and determining a specific location of the service fault according to the first path parameter. receiving a service fault locating request message, wherein the service fault locating request message carries a Network Protocol, IP, address IPs of a source layer-3 device of a service packet, an IP address IP D of a destination layer-3 device of the service packet, and a characteristic parameter of the service packet; determining, according to the characteristic parameter of the service packet, the IPs, and the IP D, that a service fault is between a first layer-3 device and a second layer-3 device, wherein the second layer-3 device is a next hop layer-3 device of the first layer-3 device, wherein the service fault is a link fault, a port fault, or a device fault; obtaining (S 103) a first network topology between the first layer-3 device and the second layer-3 device; determining a first forwarding path of the service packet between the first layer-3 device and the second layer-3 device according to the first network topology and the characteristic parameter of the service packet; configuring a forwarding entry for a forwarding device in the first forwarding path, and triggering the first layer-3 device to generate an extended layer-2 OAM packet, so that the forwarding device forwards the extended layer-2 OAM packet according to the first forwarding path; and obtaining a first path parameter that is of the first forwarding path and sent by the forwarding device, and determining a specific location of the service fault according to the first path parameter.
A screw centrifuge having a rotor with a drum with a horizontal axis of rotation, which has the following: a. the drum with a horizontal axis of rotation b. a screw which can rotate relative to the rotatable drum at a difference rotation speed and is arranged in the drum; c. bearing devices (10, 11) at the two axial ends of the drum for bearing the drum 2; d. spring elements (17, 18) for sprung support of the drum on a machine frame or foundation, e. wherein in each case at least two of the spring elements (17, 18) which support the drum are arranged at the two axial ends of the drum, characterized in that f. the spring elements (17, 18) have helical springs, the longitudinal axes of which are aligned vertically or essentially vertically, that is to say they are aligned at an angle of 0 to 15° to the vertical, g. the spring elements (17, 18) act as compression elements for sprung support of the drum on a machine frame or foundation in a non-radial direction, and h. the ratio between the length of the rotor or of the drum to the diameter of the rotor or of the drum is greater than 2. a. the drum with a horizontal axis of rotation b. a screw which can rotate relative to the rotatable drum at a difference rotation speed and is arranged in the drum; c. bearing devices (10, 11) at the two axial ends of the drum for bearing the drum 2; d. spring elements (17, 18) for sprung support of the drum on a machine frame or foundation, e. wherein in each case at least two of the spring elements (17, 18) which support the drum are arranged at the two axial ends of the drum, f. the spring elements (17, 18) have helical springs, the longitudinal axes of which are aligned vertically or essentially vertically, that is to say they are aligned at an angle of 0 to 15° to the vertical, g. the spring elements (17, 18) act as compression elements for sprung support of the drum on a machine frame or foundation in a non-radial direction, and h. the ratio between the length of the rotor or of the drum to the diameter of the rotor or of the drum is greater than 2.