mhurhangee/ep-ind-claims huggingface dataset:
Arrangement for ventilating a room, wherein the arrangement comprises a room and workbenches (6a, 6b) and the room has an aisle region which is delimited to both sides by the workbenches (6a, 6b), having a supply-air duct arranged above the aisle region and intended for supplying fresh air into the room and, arranged above said supply-air duct, an exhaust-air duct for removing exhaust air from the room, wherein the supply-air duct comprises two lateral air-supply portions (8a, 8b) or slotted outlets and a substantially air-tight central separating portion, and the exhaust-air duct has two slot-like suction openings (14a, 14b) which extend substantially parallel to the supply-air duct and which are arranged in the region of the ceiling of the room, in such a way that there is formed, on both sides of the aisle region, a roll of air (18a, 18b) via which supply air heated in the region of the workbenches (6a, 6b) passes in the vertical direction into the region of the ceiling of the room, characterized in that at least one of the workbenches has a slot-like opening in the region of its rear side, through which opening warm air can flow off upwardly out of the region below the benchtop, and in that, to assist the flow movement of the upflowing air below the benchtop, at least one of the longitudinal edges of the slot-shaped opening has an arcuately rounded cross-sectional shape.
Lollipop consisting of an edible portion, and an inedible portion, the edible portion comprising a deposited toffee, a second deposited edible material in addition to said toffee, forming a filling, a coating or a second region adjacent to said toffee and the inedible portion consisting of a stick, characterized by a fat content from 15% to 25% by weight of the toffee and by: - a first hard, smooth texture that allows the consumer to lick the lollipop during the first part of consumption; - a second soft texture that develops during consumption after said texture, and allows the consumer to bite and detach portions of the lollipop during the following steps of consumption. - a first hard, smooth texture that allows the consumer to lick the lollipop during the first part of consumption; - a second soft texture that develops during consumption after said texture, and allows the consumer to bite and detach portions of the lollipop during the following steps of consumption.
Method for the determination of a phase distribution of a region of interest, which is determined in order to generate an MR image of the region of interest by means of an MR system, wherein a known magnetic field distribution in the region of interest is taken into account, comprising the following steps: - provision of a first measured phase distribution which is based at least on the known magnetic field distribution in the region of interest (21, S41); - provision of at least one second phase value of the region of interest (21, S42); - determination of a phase-difference distribution between the first measured phase distribution and the at least one second phase value to generate a combination-phase distribution, wherein the phase values of the combination-phase distribution are restricted to the presentation interval [-n;+n]; - calculation of a correction-phase distribution from the known magnetic field distribution in the region of interest, wherein the phase values of the correction-phase distribution are not restricted to the presentation interval [-π;+π]; - generation of a corrected combination-phase distribution using the correction-phase distribution and the combination-phase distribution, wherein the phase values of the corrected combination-phase distribution are restricted to the presentation interval [-π;+π]; and - generation of an absolute combination-phase distribution from the corrected combination-phase distribution using a phase-unwrapping technique, wherein the phase values of the absolute combination-phase distribution are not restricted to the presentation interval [-π;+π]; characterised in that the known magnetic field distribution in the region of interest is known a priori in absolute values and is substantially not induced by an object of interest. - provision of a first measured phase distribution which is based at least on the known magnetic field distribution in the region of interest (21, S41); - provision of at least one second phase value of the region of interest (21, S42); - determination of a phase-difference distribution between the first measured phase distribution and the at least one second phase value to generate a combination-phase distribution, wherein the phase values of the combination-phase distribution are restricted to the presentation interval [-n;+n]; - calculation of a correction-phase distribution from the known magnetic field distribution in the region of interest, wherein the phase values of the correction-phase distribution are not restricted to the presentation interval [-π;+π]; - generation of a corrected combination-phase distribution using the correction-phase distribution and the combination-phase distribution, wherein the phase values of the corrected combination-phase distribution are restricted to the presentation interval [-π;+π]; and - generation of an absolute combination-phase distribution from the corrected combination-phase distribution using a phase-unwrapping technique, wherein the phase values of the absolute combination-phase distribution are not restricted to the presentation interval [-π;+π];
A slide jig for connecting face materials, which is used to connect two belt-like face materials arranged side by side in a width direction together by fitting face material fitting claws to face material connecting member fitting claws, respectively, the fitting face material fitting claws being respectively formed in grooves that are respectively formed at end portions of the two face materials in the width direction, the face material connecting member fitting claws being oppositely formed in two protrusions which are formed so as to have a gap therebetween in a face material connecting member arranged across the end portions of the two face materials in the width direction, wherein the slide jig comprises: a support portion that is inserted into a groove of a face material; and a pressing portion that presses a surface of the face material connecting member, which are integrated with a joint portion, and the support portion is provided so as to be positioned in a front of the jig in a slide direction, and the pressing portion is provided so as to be positioned in a rear of the jig in the slide direction, the slide jig being characterized by further comprising a protrusion guide portion that is provided between the support portion and the pressing portion so as to be inserted between the protrusions which are formed in the face material connecting member.
A cartridge for powdered coffee or the like, suitable to be used in apparatus for making beverages such as coffee or the like, comprising: an inner receptacle defining a housing cavity for the powdered coffee, an outer receptacle defining a housing cavity of the inner receptacle, wherein said inner receptacle is closed and made of a water- and oxygen-permeable material, and wherein said outer receptacle is water- and oxygen-impermeable and is a containment and reinforcement element for said inner receptacle, and wherein said inner receptacle comprises a first sheet shaped such as to provide a bottom, side walls and an edge, characterized in that the inner receptacle comprises a second sheet forming a substantially planar closure applied to the edge of the inner receptacle, and wherein the first sheet and the second sheet are made of the same material. an inner receptacle defining a housing cavity for the powdered coffee, an outer receptacle defining a housing cavity of the inner receptacle, wherein said inner receptacle is closed and made of a water- and oxygen-permeable material, and wherein said outer receptacle is water- and oxygen-impermeable and is a containment and reinforcement element for said inner receptacle, and wherein said inner receptacle comprises a first sheet shaped such as to provide a bottom, side walls and an edge, characterized in that the inner receptacle comprises a second sheet forming a substantially planar closure applied to the edge of the inner receptacle, and wherein the first sheet and the second sheet are made of the same material.
A method for determining a rotor angle (φrotor) of a rotating shaft by means of a resolver, the resolver comprising: - a first stator winding, - a second stator winding, whose winding axis is at right angle with respect to the winding axis of the first stator winding, and - a rotor winding, which is connected to the rotating shaft in a rotatably fixed manner, including the steps: a) applying a first exciter alternating current voltage having a frequency and a first phase to the first stator winding and applying a second exciter AC voltage having the frequency and a second phase to the second stator winding, the first phase and the second phase differing by 90°, and b) measuring at least one first phase measured value of a phase of a rotor AC voltage induced in the rotor winding by the first and the second exciter AC voltages, characterized by the steps: c) varying the first phase and/or the second phase such that the first phase and the second phase differ by 270°, d) subsequent measuring of at least one second phase measured value of the rotor AC voltage, and e) determining the rotor angle in response to the at least one first phase measured value and the at least one second phase measured value. - a first stator winding, - a second stator winding, whose winding axis is at right angle with respect to the winding axis of the first stator winding, and - a rotor winding, which is connected to the rotating shaft in a rotatably fixed manner, a) applying a first exciter alternating current voltage having a frequency and a first phase to the first stator winding and applying a second exciter AC voltage having the frequency and a second phase to the second stator winding, the first phase and the second phase differing by 90°, and b) measuring at least one first phase measured value of a phase of a rotor AC voltage induced in the rotor winding by the first and the second exciter AC voltages, c) varying the first phase and/or the second phase such that the first phase and the second phase differ by 270°, d) subsequent measuring of at least one second phase measured value of the rotor AC voltage, and e) determining the rotor angle in response to the at least one first phase measured value and the at least one second phase measured value.
A piston and cylinder damper having a cylinder with a piston assembly mounted for reciprocal movement therein, and dividing the cylinder into separate chambers (12a, 12b) with a restricted flow path (30, 31) for passage therebetween of oil contained within the cylinder, and a piston rod mounted for reciprocal movement with respect to the cylinder and acting via a first chamber of said separate chambers on the piston assembly in at least a first direction, with a seal assembly sealing between the piston rod and the cylinder, or a part attached thereto, in order to retain the oil in said first chamber, the damper further including one or more relief channels in a bore of the cylinder arranged to bleed off of air bubbles from within the oil in said first chamber, characterised in that said one or more relief channels are arranged to be closed off in normal use by the seal assembly.
A method of manufacturing a space-grade solar array, comprising: providing a solar wafer having a plurality of solar cells (120, 210, 805); covering the solar cell wafer with a protective coverglass of resin or polymer material by spraying or laminating; cutting both the solar cell wafer and the coverglass into a plurality of covered solar cells that are each no larger than 0.002 m 2 (20 cm 2), wherein each covered solar cell has a positive electrical contact and a negative electrical contact, with both the positive electrical contact and the negative electrical contact being located on a common, back side of the covered solar cell; and positioning the plurality of covered solar cells onto a printed circuit board (205, 405, 810) with the back side of each covered solar cell in contact with a front side of the printed circuit board such that the positive electrical contact and the negative electrical contact of each covered solar cell electrically couple to a corresponding electrical contact of the printed circuit board (205, 405, 810), and wherein the printed circuit board (205, 405, 810) has electrical traces that include solar cell-to-solar cell interconnect wiring located on the front side of the printed circuit board (205, 405, 810) and bypass and blocking diodes located on a back side of the printed circuit board (205, 405, 810). providing a solar wafer having a plurality of solar cells (120, 210, 805); covering the solar cell wafer with a protective coverglass of resin or polymer material by spraying or laminating; cutting both the solar cell wafer and the coverglass into a plurality of covered solar cells that are each no larger than 0.002 m 2 (20 cm 2), wherein each covered solar cell has a positive electrical contact and a negative electrical contact, with both the positive electrical contact and the negative electrical contact being located on a common, back side of the covered solar cell; and positioning the plurality of covered solar cells onto a printed circuit board (205, 405, 810) with the back side of each covered solar cell in contact with a front side of the printed circuit board such that the positive electrical contact and the negative electrical contact of each covered solar cell electrically couple to a corresponding electrical contact of the printed circuit board (205, 405, 810), and wherein the printed circuit board (205, 405, 810) has electrical traces that include solar cell-to-solar cell interconnect wiring located on the front side of the printed circuit board (205, 405, 810) and bypass and blocking diodes located on a back side of the printed circuit board (205, 405, 810).
A system for transmitting a quadrature amplitude modulation 'QAM' waveform to a receiver, the system comprising: first, second, and third mixers (110, 120, 130) that combine synchronized first, second, and third phase-shift keying 'PSK' signals (118, 128, 138) with a common local oscillator signal to form respective first, second, and third amplifiable signals (119, 129, 139); a first amplifier that receives the first amplifiable signal and powers a first radiator in response to the received first amplifiable signal; second and third amplifiers (142, 143) that receive the second amplifiable signal and power respective second and third radiators (152, 153) in response to the received second amplifiable signal; and fourth, fifth, sixth, and seventh amplifiers that receive the third amplifiable signal and power respective fourth, fifth, sixth, and seventh radiators in response to the received third amplifiable signal; wherein each of the first, second, third, fourth, fifth, sixth, and seventh radiators radiates in one of a plurality of discrete, specified states; and wherein the radiated states from the first, second, third, fourth, fifth, sixth, and seventh radiators combine through far-field electromagnetic propagation and effectively sum at the receiver to mimic transmission from a single amplifier. first, second, and third mixers (110, 120, 130) that combine synchronized first, second, and third phase-shift keying 'PSK' signals (118, 128, 138) with a common local oscillator signal to form respective first, second, and third amplifiable signals (119, 129, 139); a first amplifier that receives the first amplifiable signal and powers a first radiator in response to the received first amplifiable signal; second and third amplifiers (142, 143) that receive the second amplifiable signal and power respective second and third radiators (152, 153) in response to the received second amplifiable signal; and fourth, fifth, sixth, and seventh amplifiers that receive the third amplifiable signal and power respective fourth, fifth, sixth, and seventh radiators in response to the received third amplifiable signal; wherein each of the first, second, third, fourth, fifth, sixth, and seventh radiators radiates in one of a plurality of discrete, specified states; and wherein the radiated states from the first, second, third, fourth, fifth, sixth, and seventh radiators combine through far-field electromagnetic propagation and effectively sum at the receiver to mimic transmission from a single amplifier.
A method performed in a baseband processing unit, BPU, for segmenting data to be transferred into data packets and transferring data packets to a radio processing unit via a communication link, the method comprising: selecting a certain amount of data among the data to be transferred; obtaining a packet loss pattern of the communication link based on the current load and user scenario; segmenting the data to be transferred into data packets based on the packet loss pattern of the communication link such that the selected data are distributed to data packets to be transferred in a packet region where packet loss rate is lower than a packet loss threshold; and transferring the data packets to the radio processing unit; obtaining power level per beam for beamforming weights data; and sorting the beamforming weights data based on beam power level, wherein selecting a certain amount of data among the data to be transferred comprises selecting a certain amount of beamforming weights data based on beam power level. selecting a certain amount of data among the data to be transferred; obtaining a packet loss pattern of the communication link based on the current load and user scenario; segmenting the data to be transferred into data packets based on the packet loss pattern of the communication link such that the selected data are distributed to data packets to be transferred in a packet region where packet loss rate is lower than a packet loss threshold; and transferring the data packets to the radio processing unit; obtaining power level per beam for beamforming weights data; and sorting the beamforming weights data based on beam power level, wherein selecting a certain amount of data among the data to be transferred comprises selecting a certain amount of beamforming weights data based on beam power level.
Product for liquid absorption comprising a super-absorbing material of an ionic biobased polymer, wherein the biobased polymer is produced by a microorganism selected from bacteria, comprising 20-99.8 wt.% low density polymer material, with a density <0.5 gr/cm 3, wherein the super-absorbing biobased polymer material is a non-woven material, and/or wherein the super-absorbing biobased polymer material comprises fibres, and/or wherein the wherein the super-absorbing biobased polymer material comprises a powder with particle sizes > 0.1 mm, 0-80 wt.% fillers, 0-10 wt.% cross-linking agent, 0-30 wt.% water-soluble polymer, 0-2 wt.% buffer, 0-2 wt.% plasticizer, 0-5 wt.% lipids, and the remainder being water, wherein all percentages are relative to a total weight of the super-absorbing material. 0-80 wt.% fillers, 0-10 wt.% cross-linking agent, 0-30 wt.% water-soluble polymer, 0-2 wt.% buffer, 0-2 wt.% plasticizer, 0-5 wt.% lipids, and
Reinforcing element for reinforcing a material, wherein the reinforcing element comprises a core having a longitudinal axis and a core diameter (D K) with a. a cutting section (As) arranged at an insertion end of the core, which has i. a cutting section length (Ls) orientated along the longitudinal axis, ii. a cutting section diameter (D S) orientated perpendicular to the longitudinal axis, wherein: D S > D K, so that the cutting section (As) forms a cutting head and the reinforcing element has an undercut, iii. a cutting thread with a cutting thread diameter (D G), wherein the cutting thread has a thread length (L G) orientated along the longitudinal axis, b. a fastening section (A B) having a fastening thread, wherein a shoulder is formed between the cutting section (As) and the fastening section (A B), c. a conical transition section (A K) adjoining the cutting section (As) along the longitudinal axis with a cone angle (k), wherein: 0° < k < 90°, wherein in the conical transition section (A K) the cutting head is conically tapered towards the fastening section (A B), so that the diameter of the cutting section (As) in the region of the shoulder is smaller than the cutting section diameter (Ds), d. a torque transmission element. a. a cutting section (As) arranged at an insertion end of the core, which has i. a cutting section length (Ls) orientated along the longitudinal axis, ii. a cutting section diameter (D S) orientated perpendicular to the longitudinal axis, wherein: D S > D K, so that the cutting section (As) forms a cutting head and the reinforcing element has an undercut, iii. a cutting thread with a cutting thread diameter (D G), wherein the cutting thread has a thread length (L G) orientated along the longitudinal axis, i. a cutting section length (Ls) orientated along the longitudinal axis, ii. a cutting section diameter (D S) orientated perpendicular to the longitudinal axis, wherein: D S > D K, so that the cutting section (As) forms a cutting head and the reinforcing element has an undercut, iii. a cutting thread with a cutting thread diameter (D G), wherein the cutting thread has a thread length (L G) orientated along the longitudinal axis, b. a fastening section (A B) having a fastening thread, wherein a shoulder is formed between the cutting section (As) and the fastening section (A B), c. a conical transition section (A K) adjoining the cutting section (As) along the longitudinal axis with a cone angle (k), wherein: 0° < k < 90°, wherein in the conical transition section (A K) the cutting head is conically tapered towards the fastening section (A B), so that the diameter of the cutting section (As) in the region of the shoulder is smaller than the cutting section diameter (Ds), d. a torque transmission element.
An isolated antibody that binds human hepcidin-25 with a K D of 800 pM or less as determined by surface plasmon resonance at 25 °C and comprises six CDRs selected from the group consisting of: i) LCDR1, LCDR2, LCDR3, HCDR1, HCDR2, and HCDR3 having the amino acid sequences as shown in SEQ ID NOs: 43, 57, 61, 63, 84 and 46, respectively; and ii) LCDR1, LCDR2, LCDR3, HCDR1, HCDR2, and HCDR3 having the amino acid sequences as shown in SEQ ID NOs: 43, 53, 61, 63, 85, and 46, respectively, wherein the antibody has a heavy chain constant region selected from the group consisting of the heavy chain constant region of human IgG 1, IgG 2, IgG 4 and a light chain constant region that is a human kappa chain i) LCDR1, LCDR2, LCDR3, HCDR1, HCDR2, and HCDR3 having the amino acid sequences as shown in SEQ ID NOs: 43, 57, 61, 63, 84 and 46, respectively; and ii) LCDR1, LCDR2, LCDR3, HCDR1, HCDR2, and HCDR3 having the amino acid sequences as shown in SEQ ID NOs: 43, 53, 61, 63, 85, and 46, respectively, wherein the antibody has a heavy chain constant region selected from the group consisting of the heavy chain constant region of human IgG 1, IgG 2, IgG 4 and a light chain constant region that is a human kappa chain
Reinforcing material consisting of a unidirectional reinforcing web formed of one or more carbon reinforcing yarns, associated on each of its faces with a layer of polymeric fibers (4, 5) which is a nonwoven material, the polymeric part of the reinforcing material representing from 0.5% to 10% of its total weight, and preferably from 2 to 6% of its total weight, characterized in that said unidirectional reinforcing web comprises one or a series of individually twisted reinforcing yarns having a twist of 3 to 15 turns/m, preferably of 6 to 12 turns/m.