mhurhangee/ep-ind-claims huggingface dataset:
A packet forwarding method, comprising: encapsulating, by a first network device, a to-be-forwarded packet carrying a destination Internet Protocol, IP, address, to generate a first packet, and sending the first packet to a second network device, wherein the first packet carries a destination Media Access Control, MAC, address encapsulation instruction, the destination MAC address encapsulation instruction is used to instruct the second network device to encapsulate a destination MAC address for the first packet, and the destination MAC address is a MAC address of a destination host corresponding to the destination IP address and is stored on the second network device; receiving, by the second network device, the first packet sent by the first network device, wherein the first packet carries the destination IP address; adding, by the second network device, the destination MAC address for the first packet; generating, by the second network device, a second packet containing the destination MAC address according to the destination MAC address encapsulation instruction; and forwarding (S 112), by the second network device, the second packet to the destination host corresponding to the destination MAC address. encapsulating, by a first network device, a to-be-forwarded packet carrying a destination Internet Protocol, IP, address, to generate a first packet, and sending the first packet to a second network device, wherein the first packet carries a destination Media Access Control, MAC, address encapsulation instruction, the destination MAC address encapsulation instruction is used to instruct the second network device to encapsulate a destination MAC address for the first packet, and the destination MAC address is a MAC address of a destination host corresponding to the destination IP address and is stored on the second network device; receiving, by the second network device, the first packet sent by the first network device, wherein the first packet carries the destination IP address; adding, by the second network device, the destination MAC address for the first packet; generating, by the second network device, a second packet containing the destination MAC address according to the destination MAC address encapsulation instruction; and forwarding (S 112), by the second network device, the second packet to the destination host corresponding to the destination MAC address.
Valve wedge for a slide valve comprising a rough cast metal wedge core encapsulated in, i.e. coated with, a soft seal encapsulation, i.e. a soft coating, and having two guide members projecting transversely in opposite directions and being adapted to engage respective one of guide grooves provided inside a housing of the slide valve so as to take up an axial pressure exerted on the valve wedge during operation, each of said guide members comprising a sideways projecting rib of said rough cast wedge core and a prefabricated wear and corrosion-resistant slide shoe arranged thereon, each rib comprising laterally opposite lateral surfaces and an end-face and each shoe comprising two opposite lateral walls with inner surfaces and outer surfaces adapted for interacting with corresponding slide surfaces of the guide grooves and each shoe being fixedly connected with or vulcanized to the respective one of the ribs by means of soft seal encapsulation present between the rough cast wedge core and the shoe, characterised in that outer lateral surfaces of the ribs are finished surfaces and that the opposite inner surfaces of each of the slide shoes is laterally rigidly supported by the corresponding outer lateral surfaces of the respective one of said ribs so that each rib laterally rigidly supports the respective one of said slide shoes.
A lighting system comprising: - a housing (12, 14, 16) for a lighting module, said housing (12, 14, 16) having an external surface with a plurality of channels, and wherein said housing (12, 14, 16) comprises a plurality of seats, - at least one profiled element which can be coupled to said housing (12, 14, 16) and protrudes from said housing (12, 14, 16) when coupled to said housing (12, 14, 16), said profiled element having a first engagement formation insertable into one of said channels of said housing (12, 14, 16) and a second engagement formation insertable into one of said seats of said housing (12, 14, 16) when said first engagement formation is inserted in said channel, and - blocking means movable into a first and into a second operative position, wherein said blocking means are configured for: a) in said first operative position, permitting the passage of said second engagement formation into said seat, and b) in said second operative position, blocking said second engagement formation in said seat. - a housing (12, 14, 16) for a lighting module, said housing (12, 14, 16) having an external surface with a plurality of channels, and wherein said housing (12, 14, 16) comprises a plurality of seats, - at least one profiled element which can be coupled to said housing (12, 14, 16) and protrudes from said housing (12, 14, 16) when coupled to said housing (12, 14, 16), said profiled element having a first engagement formation insertable into one of said channels of said housing (12, 14, 16) and a second engagement formation insertable into one of said seats of said housing (12, 14, 16) when said first engagement formation is inserted in said channel, and - blocking means movable into a first and into a second operative position, wherein said blocking means are configured for: a) in said first operative position, permitting the passage of said second engagement formation into said seat, and b) in said second operative position, blocking said second engagement formation in said seat. a) in said first operative position, permitting the passage of said second engagement formation into said seat, and b) in said second operative position, blocking said second engagement formation in said seat.
Fluid product dispenser comprising: - a fluid product reservoir (R; R') comprising a neck, and - an assembly (E; E') comprising a dispensing member, such as a pump or a valve, the dispenser comprising at least one cam track (22; 22') and at least one lug (41; 311) designed to follow the cam track (22; 22') and a spring (5, 5') for urging the lug (41; 311) out of the cam track (22; 22'), the cam track (22; 22') being integral with one of the fluid product reservoir (R; R') and the assembly (E; E') and the lug being integral with the other of the fluid product reservoir (R; R') and the assembly (E; E'), characterized in that one of the cam track (22; 22') and the lug (41; 311) is formed by a rotary member (4; 2'). - a fluid product reservoir (R; R') comprising a neck, and - an assembly (E; E') comprising a dispensing member, such as a pump or a valve, the dispenser comprising at least one cam track (22; 22') and at least one lug (41; 311) designed to follow the cam track (22; 22') and a spring (5, 5') for urging the lug (41; 311) out of the cam track (22; 22'), the cam track (22; 22') being integral with one of the fluid product reservoir (R; R') and the assembly (E; E') and the lug being integral with the other of the fluid product reservoir (R; R') and the assembly (E; E'),
A mobile device (10; 22) to conduct gesture recognition, comprising: a detection module to use one or more radar measurements to detect a gesture of a body part relative to the mobile device; a recognition module to compare the gesture to one or more known gestures; a notification module to notify, if the gesture corresponds to at least one of the one or more known gestures, an application running on the mobile device of the gesture; and a plurality of ultra-wideband, UWB, radar modules (12; 50), wherein the detection module is to obtain the one or more radar measurements from the plurality of UWB radar modules; characterised in that the plurality of UWB radar modules includes antennas positioned along edges of the mobile device to enable the recognition of gestures at an angle of more than 180° extending beside and even behind the mobile device. a detection module to use one or more radar measurements to detect a gesture of a body part relative to the mobile device; a recognition module to compare the gesture to one or more known gestures; a notification module to notify, if the gesture corresponds to at least one of the one or more known gestures, an application running on the mobile device of the gesture; and a plurality of ultra-wideband, UWB, radar modules (12; 50), wherein the detection module is to obtain the one or more radar measurements from the plurality of UWB radar modules; characterised in that the plurality of UWB radar modules includes antennas positioned along edges of the mobile device to enable the recognition of gestures at an angle of more than 180° extending beside and even behind the mobile device.
A method for estimating performance parameters of a battery, characterized by comprising: generating a first curve segment to be calibrated during a process of adjusting a battery capacity in a first capacity interval with a first capacity value as an endpoint value, wherein the first curve segment to be calibrated represents an actual change of the battery capacity in the first capacity interval with a voltage; determining, in a preset reference curve, a first target curve segment that matches the first curve segment to be calibrated, wherein the preset reference curve represents a reference change of the battery capacity with a voltage within an output voltage range of the battery; determining a state of charge, SOC, interval corresponding to the first target curve segment as a SOC interval of the first curve segment to be calibrated; and estimating the performance parameters of the battery based on the SOC interval of the first curve segment to be calibrated, wherein the performance parameters comprise a current SOC and/or a current battery capacity. generating a first curve segment to be calibrated during a process of adjusting a battery capacity in a first capacity interval with a first capacity value as an endpoint value, wherein the first curve segment to be calibrated represents an actual change of the battery capacity in the first capacity interval with a voltage; determining, in a preset reference curve, a first target curve segment that matches the first curve segment to be calibrated, wherein the preset reference curve represents a reference change of the battery capacity with a voltage within an output voltage range of the battery; determining a state of charge, SOC, interval corresponding to the first target curve segment as a SOC interval of the first curve segment to be calibrated; and estimating the performance parameters of the battery based on the SOC interval of the first curve segment to be calibrated, wherein the performance parameters comprise a current SOC and/or a current battery capacity.
Ophthalmological hand-held device having a base member and a guide pipe which is connected to the base member, wherein a gripping device is displaceably arranged in the guide pipe and the gripping device can be removed from the guide pipe in order to grip an object, characterised in that a distal end of the guide pipe is constructed to be sharp and/or pointed so that it can be inserted into an eye.
Apparatus for reducing distortion in an optical signal, the apparatus comprising: an optical waveguide; an input for receiving a radio frequency signal; means (1, 4) for generating a first coherent light beam modulated to carry the RF signal received at the input, means (1, 2) for generating a second coherent light beam; the optical frequency of the first light beam and second light beam differing to satisfy the Brillouin condition; the apparatus arranged to cause the first coherent light beam to propagate along the optical waveguide in a first direction, and the second coherent light beam to propagate along the optical waveguide in an opposite direction to generate a dynamic Brillouin grating in the optical waveguide through stimulated Brillouin scattering; and characterised in comprising means to modulate the second coherent light beam to carry the RF signal received at the input; and that the first and second light beams have different fundamental to distortion product ratios. an optical waveguide; an input for receiving a radio frequency signal; means (1, 4) for generating a first coherent light beam modulated to carry the RF signal received at the input, means (1, 2) for generating a second coherent light beam; the optical frequency of the first light beam and second light beam differing to satisfy the Brillouin condition; the apparatus arranged to cause the first coherent light beam to propagate along the optical waveguide in a first direction, and the second coherent light beam to propagate along the optical waveguide in an opposite direction to generate a dynamic Brillouin grating in the optical waveguide through stimulated Brillouin scattering; and characterised in comprising means to modulate the second coherent light beam to carry the RF signal received at the input; and that the first and second light beams have different fundamental to distortion product ratios.
A moisture switchable adhesive composition comprising a polymer and a switch initiator, wherein the composition can be switched from a first liquid state to a second adhesive state by exposure to moisture; the composition - having in the first liquid state a complex viscosity |η*| below 0.4 MPa s (mega Pascal second, i.e., MPa·s); and - having in the second adhesive state a higher complex viscosity |η*| than the complex viscosity |η*| of the first liquid state, and having in the second adhesive state a second repeated peel force above 1 N/25mm; wherein the switch initiator comprises a reactive silicone polymer, a catalyst, and a crosslinker, and wherein the reactive polymer together with the catalyst and the crosslinker react to form a crosslinked polymer network upon exposure to moisture, wherein the composition comprises hydrocolloid in an amount of 1-60 % (w/w) of the composition. - having in the first liquid state a complex viscosity |η*| below 0.4 MPa s (mega Pascal second, i.e., MPa·s); and - having in the second adhesive state a higher complex viscosity |η*| than the complex viscosity |η*| of the first liquid state, and having in the second adhesive state a second repeated peel force above 1 N/25mm;
Method for encrypting an encoded scalable enhancement frame (3.2) sent by an emitter (5.1) to a receiver (5.2), said enhancement frame comprising a plurality of complementary streams ordered in term of quality level, each complementary stream corresponding to a combination of more than one scalability type, where a complementary stream of a lower quality level corresponds to a lower quality on each scalability type, said method comprising, at the level of the emitter (5.1), the steps of: - generating one random key (K M,T) corresponding to the key of the complementary stream of the highest quality level (S M,T); - getting the keys (K M-I, T-J) of the complementary streams of the lower quality levels (S M-I,T-J) by successively applying a one-way permutation algorithm (h) to the random key (K M,T); and - sending the key (K m,t) of a complementary stream corresponding to a quality level to the receiver, said key permitting a receiver to generate the keys of the complementary streams of the lower quality levels only; characterized in that in the step of getting the key, the random key (K M,T) is split into a number of part (LK M,T, RK M,T) corresponding to the number of scalability types, wherein K M,T = (LK M,T || RK M,T), and a subsequent key (K M-I, T-J) is generated using the one-way permutation algorithm on each part successively, wherein K M-I, T-J = (h M-I (LK M,T)||h T-J (RK M,T)). - generating one random key (K M,T) corresponding to the key of the complementary stream of the highest quality level (S M,T); - getting the keys (K M-I, T-J) of the complementary streams of the lower quality levels (S M-I,T-J) by successively applying a one-way permutation algorithm (h) to the random key (K M,T); and - sending the key (K m,t) of a complementary stream corresponding to a quality level to the receiver, said key permitting a receiver to generate the keys of the complementary streams of the lower quality levels only;
An implantable medical device comprising a non-bioabsorbable polymeric substrate having a coating, the coating comprising an amphiphilic compound having a polymeric hydrophilic portion and a polymeric hydrophobic portion, the polymeric hydrophobic portion of the amphiphilic compound being covalently bonded to the non-bioabsorbable polymeric substrate, wherein the surface of the non-bioabsorbable substrate has a first reactive member attached thereto and the polymeric hydrophobic portion of the amphiphilic compound has a second reactive member attached thereto, said first reactive member and second reactive member being able to specifically interact together to covalently bond the polymeric hydrophobic portion of the amphiphilic compound to the non-bioabsorbable polymeric substrate, wherein said first and second reactive members are able to interact together according to a reaction selected from the group consisting in Huisgen cycloaddition, Diels-Alder reactions, thiol-alkene reactions and maleimide-thiol reactions, wherein the hydrophilic portion is derived from a chitosan oligomer having a low degree of acetylation, ranging from 0 to 50 %, and the hydrophobic portion is derived from a chitosan oligomer having a higher degree of acetylation, greater than 50%.
A multi-bag filling set comprising: a bladder; a stem (104, 156, 212, 256); and a filter disposed in line with the stem (104, 156, 212, 256), the filter having a filter membrane (142, 170, 402, 422) with a nominal pore size in a range of approximately 0.1 μm to approximately 0.5 μm; wherein the bladder comprises a plurality of bladders fluidly connected to one another by sealable tubing; wherein the sealable tubing comprises a first part, and a plurality of second parts extending from the first part to the plurality of bladders, the first part extending to a juncture, and each second part including a first end and a second end, the first end extending from the juncture and one bladder connected at the second end; wherein the first part of the sealable tubing is fluidly connected to the filter or to the stem (104, 156, 212, 256) surrounding the filter; characterized in that the second part of the sealable tubing is arranged to be sealed and cut. a bladder; a stem (104, 156, 212, 256); and a filter disposed in line with the stem (104, 156, 212, 256), the filter having a filter membrane (142, 170, 402, 422) with a nominal pore size in a range of approximately 0.1 μm to approximately 0.5 μm; wherein the bladder comprises a plurality of bladders fluidly connected to one another by sealable tubing; wherein the sealable tubing comprises a first part, and a plurality of second parts extending from the first part to the plurality of bladders, the first part extending to a juncture, and each second part including a first end and a second end, the first end extending from the juncture and one bladder connected at the second end; wherein the first part of the sealable tubing is fluidly connected to the filter or to the stem (104, 156, 212, 256) surrounding the filter; characterized in that the second part of the sealable tubing is arranged to be sealed and cut.
A method, comprising: receiving an anatomical mapping, comprising multiple measurements acquired at multiple respective locations within an organ of a patient; computing an estimated surface of the organ based on the measurements; defining a three-dimensional shell of the organ, which extends inwards from the estimated surface of the organ and has a predefined thickness; and estimating a quality of the anatomical mapping, based on the measurements whose locations fall within the 3D shell, wherein estimating the quality of the anatomical mapping comprises selecting within the volume of the shell one or more slices and wherein (i) the shell comprises multiple volume pixels (voxels), and wherein estimating the quality is based on, for each slice of the one or more slices, a portion of the voxels, within the slice, in which the measurements fall, or (ii) the shell comprises a surface comprising multiple pixels, and wherein estimating the quality is based on, for each slice of the one or more slices, a portion of the pixels, within the slice, in which the measurements fall. receiving an anatomical mapping, comprising multiple measurements acquired at multiple respective locations within an organ of a patient; computing an estimated surface of the organ based on the measurements; defining a three-dimensional shell of the organ, which extends inwards from the estimated surface of the organ and has a predefined thickness; and estimating a quality of the anatomical mapping, based on the measurements whose locations fall within the 3D shell, wherein estimating the quality of the anatomical mapping comprises selecting within the volume of the shell one or more slices and wherein (i) the shell comprises multiple volume pixels (voxels), and wherein estimating the quality is based on, for each slice of the one or more slices, a portion of the voxels, within the slice, in which the measurements fall, or (ii) the shell comprises a surface comprising multiple pixels, and wherein estimating the quality is based on, for each slice of the one or more slices, a portion of the pixels, within the slice, in which the measurements fall.
A method comprising: transmitting from a memory controller comprising a training logic unit a command-address (C/A) signal to a memory module; determining by the training logic unit of the memory controller an error in the memory module via an error signal from an error pin of the memory module, the error associated with the C/A signal transmitted to the memory module; and adjusting the C/A signal, in response to determining the error in the memory module, by delaying a phase of the C/A signal with respect to a clock signal, wherein adjusting is performed by the memory controller. transmitting from a memory controller comprising a training logic unit a command-address (C/A) signal to a memory module; determining by the training logic unit of the memory controller an error in the memory module via an error signal from an error pin of the memory module, the error associated with the C/A signal transmitted to the memory module; and adjusting the C/A signal, in response to determining the error in the memory module, by delaying a phase of the C/A signal with respect to a clock signal, wherein adjusting is performed by the memory controller.