mhurhangee/ep-ind-claims huggingface dataset:
A shoulder-pad system comprising: a set of shoulder pads (510, 512) comprising an anterior plate portion, a posterior plate portion, a first shoulder assembly, and a second shoulder assembly, wherein the anterior plate portion includes one or more first garment anchors; and wherein the first and second shoulder assemblies (220, 222) include a first and second arched frames (226, 228), respectively, and a first and second epaulette plate (204, 206), respectively; an upper-body garment that fits over, and at least partially covers, the set of shoulder pads (510, 512), the upper-body garment comprising: an anterior panel at least partially covering the anterior plate portion; a posterior panel at least partially covering the posterior plate portion and connected to the anterior panel by a first shoulder portion and a second shoulder portion, wherein the anterior panel, the posterior panel, and the first and second shoulder portions (510, 512) each includes a respective garment collar portion forming a garment perimeter edge around a garment neck-receiving opening; the first shoulder portion of the upper-body garment wrapping over the first arched frame of the first shoulder assembly and layered over the convex, crown-side surface of the first arched frame; the second shoulder portion of the upper-body garment wrapping over the second arched frame of the second shoulder assembly and layered over the convex, crown-side surface of the second arched frame; and one or more second garment anchors attached to the upper-body garment and configured to releasably attach to the one or more first garment anchors; and a first discrete shoulder sleeve that is removably attachable to the first epaulette plate and a second discrete shoulder sleeve that is removably attachable to the second epaulette plate, the first and second discrete shoulder sleeves each including an epaulette attachment mechanism that releasably attaches to a respective epaulette; a shoulder pocket coupled with the epaulette attachment mechanism and including one or more textile panels (630, 640) coupled to one another to form a cavity, the one or more textile panels (630, 640) at least partially encasing the epaulette when the epaulette is positioned in the cavity, and a cuff coupled to the shoulder pocket and including a band of textile forming a tubular body, wherein the first and second discrete shoulder sleeves are detached from the upper body garment.
A compound of formula: wherein: R 1, R 1' and R 1", independently of each other, are hydrogen, alkoxy, halogen or -CF 3; and R 2 is C 1-7 alkyl or phenyl, or a pharmaceutically acceptable salt thereof. R 1, R 1' and R 1", independently of each other, are hydrogen, alkoxy, halogen or -CF 3; and R 2 is C 1-7 alkyl or phenyl,
High-voltage AC-DC converter converting alternating current into high-voltage direct current to be provided to a load, said converter comprising at least one transformer, wherein the transformer comprises at least one primary winding (18, 22-25) on the AC-side and at least two secondary windings on the DC-side, said transformer transforming the resulting alternating current, and comprising at least two high-voltage rectifiers (11, 29) connected to each of the secondary windings, wherein the output voltage of the high-voltage rectifiers (11, 29) is connected in series, wherein the secondary windings are provided around closed magnetic cores, through the opening of which magnetic cores the primary winding (18, 22-25) is located, characterized in that the converter further comprising at least one rectifier rectifying alternating input current, comprising at least one transistor bridge converting the resulting direct current into alternating current; and that the primary winding (18, 22-25) is provided as two loops each comprising at least two turns, wherein there is at least 8 secondary windings, and wherein four groups of each at least two secondary windings and the associated closed magnetic cores are arranged in coaxial stacks of four substantially parallel oriented legs of the transformer; and wherein the two loops of the primary winding (18, 22-25) are connected such that an opposite and self-cancelling orientation of stray fields in the four legged structure results.
A method performed by a radio base station for handling a power disturbance caused by a radio unit, RU, (22a, 22b, 22c, 22d, 22e, 22f, 22g, 22i) of the radio base station, the method comprising: - obtaining scheduling information of data traffic associated with the RU (22a, 22b, 22c, 22d, 22e, 22f, 22g, 22i); - comparing the power disturbance with one or more first thresholds, wherein the power disturbance is caused by the RU (22a, 22b, 22c, 22d, 22e, 22f, 22g, 22i) adapted to handle the data traffic according to the scheduling information; and - adjusting a switching frequency of a direct current to direct current, DC/DC converter based on the comparison, wherein the DC/DC converter is comprised in the RU (22a, 22b, 22c, 22d, 22e, 22f, 22g, 22i) to power the RU (22a, 22b, 22c, 22d, 22e, 22f, 22g, 22i). - obtaining scheduling information of data traffic associated with the RU (22a, 22b, 22c, 22d, 22e, 22f, 22g, 22i); - comparing the power disturbance with one or more first thresholds, wherein the power disturbance is caused by the RU (22a, 22b, 22c, 22d, 22e, 22f, 22g, 22i) adapted to handle the data traffic according to the scheduling information; and - adjusting a switching frequency of a direct current to direct current, DC/DC converter based on the comparison, wherein the DC/DC converter is comprised in the RU (22a, 22b, 22c, 22d, 22e, 22f, 22g, 22i) to power the RU (22a, 22b, 22c, 22d, 22e, 22f, 22g, 22i).
Packaging device, in particular filling device, with - at least one means of transport (2', 2", 2′′′), - at least one magnetic transport carriage arranged on the transport means (2', 2", 2′′′), wherein - the transport carriage is arranged for transporting at least one package and is moved at least along a productive area of the transport means (2', 2", 2′′′), wherein - the transport carriage is magnetically coupled to a carrier which is mechanically separate from the transport carriage, and a wall is arranged between the carrier and the transport carriage characterized in that - before an insertion of the transport carriage into the productive area the carrier is directly connected to the transport carriage without an intermediate wall and that after an insertion the carrier is separated from the transport carriage by the wall and - before an ejection of the transport carriage from the productive area the carrier is separated from the transport carriage by the wall and that after an ejection the carrier is directly connected to the transport carriage without an intermediate wall. - at least one means of transport (2', 2", 2′′′), - at least one magnetic transport carriage arranged on the transport means (2', 2", 2′′′), wherein - the transport carriage is arranged for transporting at least one package and is moved at least along a productive area of the transport means (2', 2", 2′′′), wherein - the transport carriage is magnetically coupled to a carrier which is mechanically separate from the transport carriage, and a wall is arranged between the carrier and the transport carriage - before an insertion of the transport carriage into the productive area the carrier is directly connected to the transport carriage without an intermediate wall and that after an insertion the carrier is separated from the transport carriage by the wall and - before an ejection of the transport carriage from the productive area the carrier is separated from the transport carriage by the wall and that after an ejection the carrier is directly connected to the transport carriage without an intermediate wall.
A copolymer produced by polymerizing three kinds or more monomers, containing a conjugated diene unit, a non-conjugated olefin unit and an aromatic vinyl unit, wherein: the main chain is formed of an acyclic structure alone, the content of the aromatic vinyl unit is 5 mol% or less of the whole copolymer, the polystyrene-equivalent weight-average molecular weight (Mw) of the copolymer is 100,000 to 9,000,000, and the content of the vinyl bond in the whole conjugated diene unit is 15% or less. the main chain is formed of an acyclic structure alone, the content of the aromatic vinyl unit is 5 mol% or less of the whole copolymer, the polystyrene-equivalent weight-average molecular weight (Mw) of the copolymer is 100,000 to 9,000,000, and the content of the vinyl bond in the whole conjugated diene unit is 15% or less.
A cutting tool, comprising: a base body having a central rotation axis; and a cutting edge being at least from a center portion to a peripheral portion of the base body as viewed from a tip side thereof; and the cutting tool further comprising: a coating layer being on a surface of the base body and contains diamond and graphite, wherein an SP3 peak intensity ratio at the center portion is less than an SP3 peak intensity ratio at the peripheral portion when a Raman spectroscopy analysis is performed on a surface of the diamond layer in order to obtain a peak intensity ratio of an intensity of an SP3 peak near 1333 cm -1 to the sum total of the intensities of the SP3 peak near 1333 cm -1, a nanodiamond peak near 1145 cm -1 and an SP2 peak near 1400 to 1600 cm -1, wherein the peak intensities are measured as the highest value of each peak. a base body having a central rotation axis; and a cutting edge being at least from a center portion to a peripheral portion of the base body as viewed from a tip side thereof; and the cutting tool further comprising: a coating layer being on a surface of the base body and contains diamond and graphite, wherein an SP3 peak intensity ratio at the center portion is less than an SP3 peak intensity ratio at the peripheral portion when a Raman spectroscopy analysis is performed on a surface of the diamond layer in order to obtain a peak intensity ratio of an intensity of an SP3 peak near 1333 cm -1 to the sum total of the intensities of the SP3 peak near 1333 cm -1, a nanodiamond peak near 1145 cm -1 and an SP2 peak near 1400 to 1600 cm -1, wherein the peak intensities are measured as the highest value of each peak. a coating layer being on a surface of the base body and contains diamond and graphite, wherein an SP3 peak intensity ratio at the center portion is less than an SP3 peak intensity ratio at the peripheral portion when a Raman spectroscopy analysis is performed on a surface of the diamond layer in order to obtain a peak intensity ratio of an intensity of an SP3 peak near 1333 cm -1 to the sum total of the intensities of the SP3 peak near 1333 cm -1, a nanodiamond peak near 1145 cm -1 and an SP2 peak near 1400 to 1600 cm -1, wherein the peak intensities are measured as the highest value of each peak.
A multimode dual-active terminal (fig. 4), comprising: an antenna group, a first radio-frequency transceiver module which supports reception and transmission of a radio-frequency signal of a first communication mode, a second radio-frequency transceiver module which supports reception and transmission of a radio-frequency signal of a second communication mode, a first radio-frequency switch, a second radio-frequency switch, a third radio-frequency switch, and a fourth radio-frequency switch, wherein a high-band transceiving path of a first channel of the first radio-frequency transceiver module is connected with the antenna group via the first radio-frequency switch, and a low-band transceiving path of the first channel of the first radio-frequency transceiver module is connected with the antenna group via the second radio-frequency switch; wherein a high-band transceiving path of the second radio-frequency transceiver is connected with the antenna group via the third radio-frequency switch, and a low-band transceiving path of the second radio-frequency transceiver module is connected with the antenna group via the fourth radio-frequency switch.
A bias circuit, comprising: a first transistor forming an input node; a second transistor forming an output node; and a plurality of switches disposed between the first transistor and the second transistor, wherein the plurality of switches is configured to charge the first transistor to a supply voltage and the second transistor to a ground during a first mode of operation, and couple the first transistor to the second transistor to approximate a final bias voltage during a second mode of operation, wherein the first transistor is driven by a first gate and the second transistor is driven by a second gate, characterized in that the plurality of switches are configured to selectively decouple the first gate from the second gate in the first mode of operation to disable current between the first transistor and the second transistor while independently selectively coupling and charging the first transistor to the supply voltage and the second transistor to the ground, and selectively couple the first gate to the second gate in the second mode of operation. a first transistor forming an input node; a second transistor forming an output node; and a plurality of switches disposed between the first transistor and the second transistor, wherein the plurality of switches is configured to charge the first transistor to a supply voltage and the second transistor to a ground during a first mode of operation, and couple the first transistor to the second transistor to approximate a final bias voltage during a second mode of operation, wherein the first transistor is driven by a first gate and the second transistor is driven by a second gate, characterized in that the plurality of switches are configured to selectively decouple the first gate from the second gate in the first mode of operation to disable current between the first transistor and the second transistor while independently selectively coupling and charging the first transistor to the supply voltage and the second transistor to the ground, and selectively couple the first gate to the second gate in the second mode of operation. wherein the plurality of switches is configured to charge the first transistor to a supply voltage and the second transistor to a ground during a first mode of operation, and couple the first transistor to the second transistor to approximate a final bias voltage during a second mode of operation, wherein the first transistor is driven by a first gate and the second transistor is driven by a second gate, characterized in that the plurality of switches are configured to selectively decouple the first gate from the second gate in the first mode of operation to disable current between the first transistor and the second transistor while independently selectively coupling and charging the first transistor to the supply voltage and the second transistor to the ground, and selectively couple the first gate to the second gate in the second mode of operation.
Use of a device for decontaminating the interior of a biosafety cabinet comprising a work area, a circulation HEPA filter, an exhaust HEPA filter, and a duct leading from the work area to the circulation HEPA filter and the exhaust HEPA filter, the decontamination device comprising: an ultrasonic atomizer to be installed at a bottom of the work area inside the work area for atomizing a peracetic acid disinfectant by ultrasonic vibration and releasing droplets; a diffusion fan to be installed in the periphery of the nozzle of the ultrasonic atomizer inside the work area for diffusing and gasifying the droplets which is atomized; a circulation fan to be installed inside the work area for circulating the gasified droplets from the work area into the duct, to the circulation HEPA filer, and back to the work area; a temperature-humidity sensor to be installed inside the work area; and a controller electrically connected with the ultrasonic atomizer, the diffusion fan and the temperature-humidity sensor, wherein the controller is configured to start the running of the ultrasonic atomizer, to start the air-blowing by the diffusion fan, and to use the air-blowing by the independently operating circulation fan to perform the decontamination process. an ultrasonic atomizer to be installed at a bottom of the work area inside the work area for atomizing a peracetic acid disinfectant by ultrasonic vibration and releasing droplets; a diffusion fan to be installed in the periphery of the nozzle of the ultrasonic atomizer inside the work area for diffusing and gasifying the droplets which is atomized; a circulation fan to be installed inside the work area for circulating the gasified droplets from the work area into the duct, to the circulation HEPA filer, and back to the work area; a temperature-humidity sensor to be installed inside the work area; and a controller electrically connected with the ultrasonic atomizer, the diffusion fan and the temperature-humidity sensor, wherein the controller is configured to start the running of the ultrasonic atomizer, to start the air-blowing by the diffusion fan, and to use the air-blowing by the independently operating circulation fan to perform the decontamination process.
A method performed in a user equipment for performing a radio measurement in a communications network, which user equipment is In Device Coexistent, IDC, capable and being served by a network node (12,13) in the communications network, the method characterised in comprising: - reporting (601, 1201) a capability of the user equipment to the network node (12, 13), the capability configured to indicate that the user equipment is capable of adapting one or more radio procedures and/or meeting one or more rules and requirements when it is configured with one or more IDC scenarios; - receiving (603,1202), from the network node (12,13), an IDC configuration comprising IDC autonomous denial parameters for at least one IDC scheme; - performing (605,1204) a radio measurement which meets one or more requirements related to the radio measurement, provided the IDC configuration meets a certain condition; and wherein the radio measurement is performed over a measurement period and the one or more requirements include meeting a pre-defined measurement accuracy over the measurement period. - reporting (601, 1201) a capability of the user equipment to the network node (12, 13), the capability configured to indicate that the user equipment is capable of adapting one or more radio procedures and/or meeting one or more rules and requirements when it is configured with one or more IDC scenarios; - receiving (603,1202), from the network node (12,13), an IDC configuration comprising IDC autonomous denial parameters for at least one IDC scheme; - performing (605,1204) a radio measurement which meets one or more requirements related to the radio measurement, provided the IDC configuration meets a certain condition; and
A plasmonic laser comprising: - a metal nanostructure supporting a plurality of plasmonic modes; and - a gain medium having an optical gain at the oscillation frequency of at least one said plasmonic mode, coupled in near optical field with said nanostructures; characterized in that said gain medium is structured so as to have a shape that marries the spatial intensity distribution of one said plasmonic modes, at the frequency of which said gain medium has an optical gain. - a metal nanostructure supporting a plurality of plasmonic modes; and - a gain medium having an optical gain at the oscillation frequency of at least one said plasmonic mode, coupled in near optical field with said nanostructures;
A method for controlling a driving blade (6, 7) with respect to the a direction of wind or water, in particular in a wind engine or in a water engine, respectively, the engine having an axis perpendicular to the direction of wind or water, characterized in that in consecutive cycles of rotation of a frame of the engine, the driving blade (6, 7) connected via a distribution mechanism with a vane (30, 38) is set, according to a direction of the movement of the driving blade (6, 7) with respect to the direction of wind or water, in a working cycle in which an axis (4, 5) of rotation of the driving blade (6, 7) is locked still with an axis of rotation of the frame of the engine, or in an idle cycle in which the axis (4, 5) of rotation of the driving blade (6, 7) and an axis of rotation of the vane (30, 38) are locked still, wherein a full rotation of the driving blade (6, 7) around the axis (4, 5) of rotation of the driving blade (6, 7) takes two rotations of the frame of the engine, wherein an alternate locking of the axis (4, 5) of rotation of the driving blade (6, 7) with the axis of rotation of the frame or with the axis of rotation of the vane (30, 38) is effected by means of a coupling element (22, 34, 36) that is rotatably fixed to the frame, wherein the operation of the coupling element (22, 34, 36) is governed by engagement of the coupling element (22, 34, 36) with a cam (27, 37) that is fixed to the frame.
Electronic circuit for the automatic gain control of an input amplifier, the electronic circuit including an automatic gain control loop with a non-linear amplifier-comparator, for comparing a first reference signal (V R) to a second signal (V P) relating to the amplitude level of an output signal of the input amplifier, the non-linear amplifier-comparator allowing the dynamic, analogue, dual slope adaptation of the input amplifier gain, characterized in that the non-linear amplifier-comparator includes a first branch with a first input transistor having a first type of conductivity, arranged in series between a first polarisation transistor of the first type of conductivity and a first diode-connected transistor having a second type of conductivity of a current mirror, between a negative terminal (V SS) and a positive terminal (V DD) of a supply voltage source, a gate or a base of the first input transistor being capable of receiving the first signal (V R) or the second signal (V P), in that the non-linear amplifier-comparator includes a second branch with a second input transistor of the first type of conductivity, arranged in series between a second polarisation transistor of the first type of conductivity and a second transistor of the second type of conductivity of the current mirror, between the negative terminal (V SS) and the positive terminal (V DD) of the supply voltage source, a gate or a base of the second polarisation transistor being connected to a gate or a base of the first polarisation transistor to be powered by a polarisation voltage (V B), a gate or a base of the second transistor of the current mirror being connected to a gate or a base of the first diode-connected transistor of the current mirror, and a gate or a base of the second input transistor being capable of receiving the second reference signal (V P) or the first signal (V R) inversely to the first input transistor, and in that the non-linear amplifier-comparator includes at least one non-linear transconductance element (R NL) connecting the source or the emitter of the first input transistor to the source or the emitter of the second input transistor and capable of allowing the amplifier-comparator to output via the drain or the collector of the second input transistor, a dual slope gain adjustment signal (I OUT), if the deviation between the first input signal (V R) and the second input signal (V P) is greater or smaller than a defined threshold.