mhurhangee/ep-ind-claims huggingface dataset:
Light module of a lighting device of a motor vehicle, the light module comprising at least two light sources (2, 3, 4) for emitting light and at least two primary optics (8; 15, 16; 17, 18)) assigned to the light sources (2, 3, 4) for focusing at least part of the emitted light, wherein the light sources (2, 3, 4) are arranged in a common plane, wherein at least one light source (2, 3, 4) is assigned to one of the primary optics (8; 15, 16; 17, 18), and further comprising a common secondary optics for forming a plurality of adjoining or slightly overlapping light distributions from the light beams generated by at least some of the primary optics (8; 15, 16; 17, 18), wherein at least one of the light sources is adapted for generating light for realizing a main light distribution and at least one other of the light sources (3; 4) is adapted to generate light for realizing an auxiliary light distribution, wherein the main light distribution serves to illuminate a centre of a resulting overall light distribution of the light module and the auxiliary light distribution serves to illuminate at least one lateral region next to the main light distribution, and wherein the primary optics (15, 16; 17, 18) assigned to the at least one light source (3; 4) for generating the light for the auxiliary light distribution is designed in several parts, wherein at least a first of the partial primary optics (15; 18) is arranged next to the primary optics assigned to the at least one light source for generating the light for the main light distribution, characterized in that the at least one first of the partial primary optics (15; 17) is in each case designed as a single deflecting mirror on which an intermediate light distribution, which forms an image of the at least one light source (3; 4), is arranged for generating the light for the auxiliary light distribution is generated, in that the primary optics assigned to the at least one light source for generating the light for the main light distribution is designed in such a way that it does not generate an image of the light source in the intermediate image plane of the light module, but only an illuminated light exit surface of the primary optics, and in that at least one other of the partial primary optics (16; 18) in the form of a concave mirror is associated in each case with one of the at least one light source (3; 4) for generating the light for the auxiliary light distribution, and in that the at least one concave mirror (16; 18) is designed to generate light from the at least one light source (3; 4) for generating the light for the auxiliary light distribution for generating the image of the at least one light source (3; 4); 4) for generating the light for the auxiliary light distribution for generating the image of the at least one light source (3; 4) for generating the light for the auxiliary light distribution to be bundled onto the at least one deflecting mirror (15; 17) which is designed to direct the incident light onto the secondary optics which projects the light source image onto the roadway for generating the auxiliary light distribution.
A packaging unit (1, 301) for hygiene articles, the unit being formed from a sheet of material, said sheet having an inner surface (2, 302) and an outer surface (3, 303), said inner surface (2, 302) comprising an edge zone (4, 304) comprising an inner edge portion and an outer edge portion, said sheet having at least one first folding axis (9, 309), said first folding axis (9, 309) dividing said sheet into a first region (10, 310) and a second region (11, 311), one of said inner edge portion (5, 305) and said outer edge portion (6, 306) of said edge zone of said first region (10, 310) being provided with resealable adhesive, such as a pressure-sensitive hotmelt adhesive, thus forming a first adhesive zone, and the other of said inner edge portion (5, 305) and said outer edge portion (6, 306) of said edge zone of said first region (10, 310) being adhesive-free; and wherein said inner edge portion or said outer edge portion of said edge zone of said second region (11,311) corresponding to said adhesive-carrying edge portion of said first region (10, 310) is adhesive-free, such that when said sheet is folded about said first folding axis (9, 309), said edge portions carrying resealable adhesive in said first region (10, 310) are brought in contact with said adhesive-free edge portions in said second region (11, 311), characterized in that a distance d 1 between said at least one first folding axis (9, 309) and said first adhesive zone is 1-20 mm, preferably 2-18 mm, more preferably 3-15 mm, said packaging unit (1, 301) optionally being reclosable.
A resin composition for resin moldings, comprising: a first resin composition containing a first polyolefin, a polyamide, first carbon fibers having an average fiber length of 0.1 mm to 1 mm and a carboxylic anhydride-modified polyolefin as a compatibilizer; and a second resin composition containing a second polyolefin and second carbon fibers having an average fiber length of 6 mm to 20 mm, wherein of the whole quantity of the resin composition for resin moldings, taking the total contents of the first polyolefin and the second polyolefin as 100 parts by mass, a content of the polyamide accounts for 1 part by mass to 50 parts by mass, the total contents for the first carbon fiber and the second carbon fiber account for 1 part by mass to 50 parts by mass and a content of the compatibilizer accounts for 1 part by mass to 10 parts by mass. a first resin composition containing a first polyolefin, a polyamide, first carbon fibers having an average fiber length of 0.1 mm to 1 mm and a carboxylic anhydride-modified polyolefin as a compatibilizer; and a second resin composition containing a second polyolefin and second carbon fibers having an average fiber length of 6 mm to 20 mm, wherein of the whole quantity of the resin composition for resin moldings, taking the total contents of the first polyolefin and the second polyolefin as 100 parts by mass, a content of the polyamide accounts for 1 part by mass to 50 parts by mass, the total contents for the first carbon fiber and the second carbon fiber account for 1 part by mass to 50 parts by mass and a content of the compatibilizer accounts for 1 part by mass to 10 parts by mass.
An opthalmic lens wherein: the lens is manufactured at least partially from a responsive polymer gel which changes shape and the change in shape alters the shape and focal length of the lens; the responsive polymer gel is embedded in the anterior or posterior of the lens; and the responsive polymer gel responds to the application of a stimulus and the stimulus is produced by means embedded in the opthalmic lens itself. the lens is manufactured at least partially from a responsive polymer gel which changes shape and the change in shape alters the shape and focal length of the lens; the responsive polymer gel is embedded in the anterior or posterior of the lens; and the responsive polymer gel responds to the application of a stimulus and the stimulus is produced by means embedded in the opthalmic lens itself.
A method for cell search by a user equipment, UE, in a wireless communication system supporting Narrowband Internet-of-Things, NB-IoT, the method comprising: receiving a narrowband secondary synchronization signal, NSSS, from a base station; and obtaining a cell identity based on the NSSS, wherein a sequence used for the NSSS is based on a Zadoff-Chu sequence having a length L, wherein the sequence is divided into N segments, and the N segments are mapped over N Orthogonal Frequency Divisional Multiplexing, OFDM, symbols, characterized in that, a root index of the Zadoff-Chu sequence is within a range of k to L-k, and wherein L is a natural number greater than k, and k and N are natural numbers greater than 1. receiving a narrowband secondary synchronization signal, NSSS, from a base station; and obtaining a cell identity based on the NSSS, wherein a sequence used for the NSSS is based on a Zadoff-Chu sequence having a length L, wherein the sequence is divided into N segments, and the N segments are mapped over N Orthogonal Frequency Divisional Multiplexing, OFDM, symbols, characterized in that, a root index of the Zadoff-Chu sequence is within a range of k to L-k, and wherein L is a natural number greater than k, and k and N are natural numbers greater than 1.
A wound therapy device configured to provide negative pressure therapy to a wound, comprising: a housing (20; 120; 220; 420; 520; 520a, 520b; 820) comprising a flexible barrier and configured to cover at least a portion of a wound; a wound interface layer; a liquid-retention chamber (40; 140; 240; 440; 540; 640, 640'; 840) positioned inside the housing; a vacuum source; a vacuum connection (30; 32; 130, 132; 232; 432) for coupling to the vacuum source, the vacuum connection in gaseous communication with the liquid retention chamber; and a liquid barrier (36; 136; 236; 436; 636; 636') which prevents travel of liquid from the liquid retention chamber to the vacuum connection while allowing gas flow, characterized in that the liquid barrier is positioned inside the housing. a housing (20; 120; 220; 420; 520; 520a, 520b; 820) comprising a flexible barrier and configured to cover at least a portion of a wound; a wound interface layer; a liquid-retention chamber (40; 140; 240; 440; 540; 640, 640'; 840) positioned inside the housing; a vacuum source; a vacuum connection (30; 32; 130, 132; 232; 432) for coupling to the vacuum source, the vacuum connection in gaseous communication with the liquid retention chamber; and a liquid barrier (36; 136; 236; 436; 636; 636') which prevents travel of liquid from the liquid retention chamber to the vacuum connection while allowing gas flow, characterized in that the liquid barrier is positioned inside the housing.
A battery system, comprising: - plurality of battery packs; - a plurality of battery electronic control units, each associated with a battery pack of the plurality of battery packs, wherein each battery electronic control unit is configured to acquire analog current measurements of the associated battery pack and to convert the acquired analog current measurements to a digital value such that the plurality of battery electronic control units produce a plurality of digital values; and - a battery system electronic control unit, comprising: - a clock generator configured to generate a sample speed, wherein the battery system electronic control unit is configured to control the sample speed at which the plurality of battery electronic control units sample the acquired analog current measurements; and - a summation unit configured to receive the digital values and to sum the digital values to determine a total battery system current value based on the received digital values. - plurality of battery packs; - a plurality of battery electronic control units, each associated with a battery pack of the plurality of battery packs, wherein each battery electronic control unit is configured to acquire analog current measurements of the associated battery pack and to convert the acquired analog current measurements to a digital value such that the plurality of battery electronic control units produce a plurality of digital values; and - a battery system electronic control unit, comprising: - a clock generator configured to generate a sample speed, wherein the battery system electronic control unit is configured to control the sample speed at which the plurality of battery electronic control units sample the acquired analog current measurements; and - a summation unit configured to receive the digital values and to sum the digital values to determine a total battery system current value based on the received digital values. - a clock generator configured to generate a sample speed, wherein the battery system electronic control unit is configured to control the sample speed at which the plurality of battery electronic control units sample the acquired analog current measurements; and - a summation unit configured to receive the digital values and to sum the digital values to determine a total battery system current value based on the received digital values.
A bale opener for the take-off of fiber tufts from fiber bales, comprising a take-off tower, which is arranged on a horizontal drive or a rotating frame, and comprising a take-off arm, wherein the take-off arm is held on the take-off tower in a guide so as to be vertically adjustable, whereas a single lifting spindle having a longitudinal axis in the movement direction of the take-off arm is provided for the vertical adjustment of the take-off tower, wherein the lifting spindle is fastened on the take-off tower in a stationary manner, characterized in that the fastening of the lifting spindle on the take-off tower is provided only at an upper end of the lifting spindle and, at a lower end, the lifting spindle is not held in the take-off tower and that the take-off arm is connected to the lifting spindle via a recirculating ball nut and the lifting spindle is held in a rotationally locked manner and the recirculating ball nut is provided with a drive.
An apparatus (100, 200) for installation or removal of a turbine blade, the apparatus comprising: an operative head (104, 204) configured to engage an axial sidewall of a turbine blade base; and a mount (110, 210) removably coupled to a portion of a turbomachine assembly by a coupler (112, 123), wherein the operative head is slidably coupled to the mount such that the operative head selectively engages the axial sidewall of the turbine blade base, and wherein the operative head is shaped to impart an axial and a circumferential force against the turbine blade base, a vibrating assembly (102, 202) including a vibratory drive mechanism (103, 203) coupled to the operative head, characterized in that the apparatus further comprises a spring axially coupled to the operative head (104, 204), wherein the spring in an equilibrium position axially separates the operative head from the turbine blade base. an operative head (104, 204) configured to engage an axial sidewall of a turbine blade base; and a mount (110, 210) removably coupled to a portion of a turbomachine assembly by a coupler (112, 123), wherein the operative head is slidably coupled to the mount such that the operative head selectively engages the axial sidewall of the turbine blade base, and wherein the operative head is shaped to impart an axial and a circumferential force against the turbine blade base, a vibrating assembly (102, 202) including a vibratory drive mechanism (103, 203) coupled to the operative head, characterized in that the apparatus further comprises a spring axially coupled to the operative head (104, 204), wherein the spring in an equilibrium position axially separates the operative head from the turbine blade base.
A composition comprising an antimicrobial polypeptide comprising the Blad sequence shown in SEQ ID NO:4 or an active variant thereof, for use in a method of treatment of the human or animal body by therapy or prophylaxis, wherein said active variant has antimicrobial activity and comprises a sequence which has at least 60% amino acid identity to either SEQ ID NO:4 or a fragment of SEQ ID NO:4 which is at least 100 amino acids in length.
Liquid water softener composition comprising: - at least one amino carboxylic complexing agent selected from the group consisting of methyl glycine diacetic acid (MGDA), glutamic acid diacetic acid (GLDA), their salts and combinations thereof; - at least one monomeric polycarboxylate selected from the group consisting of, citrates, gluconates, oxydisuccinates, glycerol mono- di- and trisuccinates, carboxymethyloxysuccinates, carboxymethyloxymalonates, dipicolinates, hydroxyethyliminodiacetates, iminodisuccinates, and combinations thereof; - and at least one organic acid selected from the group consisting of citric, acetic, formic, glycolic and oxalic acid, and combinations thereof; wherein the ratio in weight of the at least one monomeric polycarboxylate to the at least one organic acid is between 5:1 and 1:1; wherein the composition has a pH of less than 7; and wherein the composition is substantially free from surfactant. - at least one amino carboxylic complexing agent selected from the group consisting of methyl glycine diacetic acid (MGDA), glutamic acid diacetic acid (GLDA), their salts and combinations thereof; - at least one monomeric polycarboxylate selected from the group consisting of, citrates, gluconates, oxydisuccinates, glycerol mono- di- and trisuccinates, carboxymethyloxysuccinates, carboxymethyloxymalonates, dipicolinates, hydroxyethyliminodiacetates, iminodisuccinates, and combinations thereof; - and at least one organic acid selected from the group consisting of citric, acetic, formic, glycolic and oxalic acid, and combinations thereof; wherein the ratio in weight of the at least one monomeric polycarboxylate to the at least one organic acid is between 5:1 and 1:1; wherein the composition has a pH of less than 7; and wherein the composition is substantially free from surfactant.
A photonic reservoir computer comprising one or more input nodes (04, 13, 15), multiple reservoir nodes and one or more output nodes (00, 02, 07, 10, 14), wherein the input nodes, reservoir nodes and output nodes are photonic and coupled for signal transmission by means of waveguides (92, 92b, 92c), characterized in that at least one of the waveguides spans or crosses at least one other waveguide and/or at least one of the reservoir nodes in a non-planar manner.
Wall made of insulating blocks stacked in superimposed rows, each insulating block including: • two parallel main faces surrounded and connected to one another by means of four perimetral faces, wherein the distance existing between the main faces is at least 7 cm; • a body of insulating material having a compressive strength of at least 100 kPa; • at least one cladding panel of rigid material selected from ceramic panel, stone panel and artificial stone panel attached to the body of insulating material, said cladding panel covering a main face of the insulating material body and forming at least one main face of the block; • said at least one cladding panel taking up less than 25% of the block volume; • the body of insulating material of the stacked insulating blocks providing load transmission and supporting vertical loads for the erection of a self-supporting wall at least 3 m high made up of said insulating blocks; • the insulating material has a density of between 100 and 200 kg/m 3; • each insulating block is configured to provide a vertical separation between cladding panels of superimposed insulating blocks by having the body of insulating material a height at least several millimeters greater than the height of the cladding panel attached thereto; • the cladding panel is arranged only on one of the main faces of the insulating block, covering only one main face of the body of insulating material; • the cladding panels included in the wall made of said insulating blocks are vertically separated and the vertical load transmission through said cladding panels is prevented. • two parallel main faces surrounded and connected to one another by means of four perimetral faces, wherein the distance existing between the main faces is at least 7 cm; • a body of insulating material having a compressive strength of at least 100 kPa; • at least one cladding panel of rigid material selected from ceramic panel, stone panel and artificial stone panel attached to the body of insulating material, said cladding panel covering a main face of the insulating material body and forming at least one main face of the block; • said at least one cladding panel taking up less than 25% of the block volume; • the body of insulating material of the stacked insulating blocks providing load transmission and supporting vertical loads for the erection of a self-supporting wall at least 3 m high made up of said insulating blocks; • the insulating material has a density of between 100 and 200 kg/m 3; • each insulating block is configured to provide a vertical separation between cladding panels of superimposed insulating blocks by having the body of insulating material a height at least several millimeters greater than the height of the cladding panel attached thereto; • the cladding panel is arranged only on one of the main faces of the insulating block, covering only one main face of the body of insulating material; • the cladding panels included in the wall made of said insulating blocks are vertically separated and the vertical load transmission through said cladding panels is prevented.
A wireless slave (110, 112) node for use in a wireless network system, comprising: a tunable radiofrequency RF receiver configured to be in wireless communication with a master node and to receive at a slave frequency, the master node being configured to transmit at a master frequency; an RF oscillator configured to communicate with the tunable RF receiver, the RF oscillator being configured to communicate an RF oscillator frequency to the RF receiver to determine and tune the slave frequency; a signal processor configured to communicate with said tunable RF receiver; wherein said signal processor is further configured to provide instructions to said tunable RF receiver to search for reception of a signal from said master node by tuning said slave frequency of said tunable RF receiver within a predetermined search band of frequencies, to provide an initial detected master frequency, wherein said signal processor is further configured to instruct said tunable RF receiver to receive a calibration signal at said initial detected master frequency from said master node, said calibration signal containing time information or frequency information, or both, and wherein said signal processor is further configured to provide a frequency error of said RF oscillator frequency relative to said calibration signal by comparing information from said calibration signal to a corresponding signal from said RF oscillator to tune the RF oscillator frequency to the frequency of the master node to enable communication between said slave node (110, 112) and said master node at said tuned RF oscillator frequency. a tunable radiofrequency RF receiver configured to be in wireless communication with a master node and to receive at a slave frequency, the master node being configured to transmit at a master frequency; an RF oscillator configured to communicate with the tunable RF receiver, the RF oscillator being configured to communicate an RF oscillator frequency to the RF receiver to determine and tune the slave frequency; a signal processor configured to communicate with said tunable RF receiver; wherein said signal processor is further configured to provide instructions to said tunable RF receiver to search for reception of a signal from said master node by tuning said slave frequency of said tunable RF receiver within a predetermined search band of frequencies, to provide an initial detected master frequency, wherein said signal processor is further configured to instruct said tunable RF receiver to receive a calibration signal at said initial detected master frequency from said master node, said calibration signal containing time information or frequency information, or both, and