mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a terminal in a wireless communication system, the method comprising: receiving multimedia broadcast multicast service single frequency network, MBSFN, sub-frames configuration information in a broadcast message; receiving transmission mode information, wherein the transmission mode information is used for determining whether a physical downlink shared channel, PDSCH, over a MBSFN sub-frame is supported; identifying whether the PDSCH over the MBSFN sub-frame is supported based on the transmission mode information; in case that the PDSCH over the MBSFN sub-frame is supported, detecting a physical downlink control channel, PDCCH, for receiving the PDSCH in the MBSFN sub-frame, and in case that the PDSCH over the MBSFN sub-frame is not supported, not attempting decoding of the PDCCH for receiving the PDSCH in the MBSFN sub-frame. receiving multimedia broadcast multicast service single frequency network, MBSFN, sub-frames configuration information in a broadcast message; receiving transmission mode information, wherein the transmission mode information is used for determining whether a physical downlink shared channel, PDSCH, over a MBSFN sub-frame is supported; identifying whether the PDSCH over the MBSFN sub-frame is supported based on the transmission mode information; in case that the PDSCH over the MBSFN sub-frame is supported, detecting a physical downlink control channel, PDCCH, for receiving the PDSCH in the MBSFN sub-frame, and in case that the PDSCH over the MBSFN sub-frame is not supported, not attempting decoding of the PDCCH for receiving the PDSCH in the MBSFN sub-frame.
A conditioning roller for a printing system, comprising: - a roller body comprising an inner volume and an outer surface; - a conditioning media attached to the outer surface of the roller body; - a heating element; and - a fluid dispensing mechanism; wherein upon receipt of an instruction from a controller, the conditioning roller is to activate the heating element to heat the conditioning media or to activate the fluid dispensing mechanism to wet the conditioning media, the conditioning roller characterized in that the heating element and the fluid dispensing mechanism are provided to act on the conditioning media from the inner volume of the roller body. - a roller body comprising an inner volume and an outer surface; - a conditioning media attached to the outer surface of the roller body; - a heating element; and - a fluid dispensing mechanism; wherein upon receipt of an instruction from a controller, the conditioning roller is to activate the heating element to heat the conditioning media or to activate the fluid dispensing mechanism to wet the conditioning media, the conditioning roller characterized in that the heating element and the fluid dispensing mechanism are provided to act on the conditioning media from the inner volume of the roller body.
A remotely controlled automated luminaire including a lamp configured to emit a light beam; the luminaire comprising: an adjustable scrim system, including a scrim, the scrim being a light modulator configured to reduce the light intensity of the light beam passing through said scrim without either completely blocking the light beam, or affecting the spread and distribution of the light beam; wherein the scrim modulates only that portion of the light beam which it occludes, the scrim being moveably mounted to enter and leave the light beam; characterized in that the adjustable scrim system comprises a movement mechanism configured to control positioning of the scrim and configured to control rotation of the scrim so as to change the angle at which it occludes the light beam, wherein the scrim is capable of simultaneous linear positioning and rotation.
A microcircuit card comprising a plastic body, a module comprising a microcircuit, an antenna inlaid in the body connected to the microcircuit by at least one contact means, characterized in that said at least one contact means comprises a conductive wire extending between a first end secured to the antenna and a second free end, at least part of the conductive wire is arranged in a centrifugal spiral wound between a center, connected to the first end, and a point distant from the center, the distant point being connected to the second free end.
A traveling wave electrode, 'TWE' Mach-Zehnder-Modulator 'MZM,' comprising: a first arm optical phase shifter; a second arm optical phase shifter; and a differential TWE MZM driver comprising: a differential driver with a first differential output and a second differential output that collectively form a differential pair, wherein: the first differential output is DC coupled to a cathode of the first arm optical phase shifter; the second differential output is DC coupled to a cathode of the second arm optical phase shifter; characterized in that a first capacitor that AC couples the second differential output to an anode of the first arm optical phase shifter; a second capacitor that AC couples the first differential output to an anode of the second arm optical phase shifter; a first termination coupled to the cathode and the anode of the first arm optical phase shifter; and a second termination coupled to the cathode and the anode of the second arm optical phase shifter. a first arm optical phase shifter; a second arm optical phase shifter; and a differential TWE MZM driver comprising: a differential driver with a first differential output and a second differential output that collectively form a differential pair, wherein: the first differential output is DC coupled to a cathode of the first arm optical phase shifter; the second differential output is DC coupled to a cathode of the second arm optical phase shifter; characterized in that a first capacitor that AC couples the second differential output to an anode of the first arm optical phase shifter; a second capacitor that AC couples the first differential output to an anode of the second arm optical phase shifter; a first termination coupled to the cathode and the anode of the first arm optical phase shifter; and a second termination coupled to the cathode and the anode of the second arm optical phase shifter. a differential driver with a first differential output and a second differential output that collectively form a differential pair, wherein: the first differential output is DC coupled to a cathode of the first arm optical phase shifter; the second differential output is DC coupled to a cathode of the second arm optical phase shifter; characterized in that the first differential output is DC coupled to a cathode of the first arm optical phase shifter; the second differential output is DC coupled to a cathode of the second arm optical phase shifter; characterized in that a first capacitor that AC couples the second differential output to an anode of the first arm optical phase shifter; a second capacitor that AC couples the first differential output to an anode of the second arm optical phase shifter; a first termination coupled to the cathode and the anode of the first arm optical phase shifter; and a second termination coupled to the cathode and the anode of the second arm optical phase shifter.
An occlusion device for an atrial appendage, the device having proximal and distal ends (12, 14) and a central axis and comprising: a cage-like structure cut from a unitary tubular body forming struts (18; 218), the struts (18; 218) having proximal strut ends (20; 220) and distal strut ends (22; 122; 222), wherein at the proximal end of the device the struts (18; 218) extend towards the central axis and are connected to each other by a tube at their proximal strut ends (20; 220), and an insert configured for attaching the device to a tether or shaft; characterised in that at least some of the struts (18; 218) are connected to each other at their distal strut ends (22; 122; 222) within the cage-like structure so that the struts (18; 218) form an atraumatic distal end of the device; wherein the atraumatic distal end of the device comprises inwardly bent struts (18; 218), wherein at least some of the ends of the bent struts (18; 218) point in a direction towards the proximal end of the cage-like structure. a cage-like structure cut from a unitary tubular body forming struts (18; 218), the struts (18; 218) having proximal strut ends (20; 220) and distal strut ends (22; 122; 222), wherein at the proximal end of the device the struts (18; 218) extend towards the central axis and are connected to each other by a tube at their proximal strut ends (20; 220), and an insert configured for attaching the device to a tether or shaft; characterised in that at least some of the struts (18; 218) are connected to each other at their distal strut ends (22; 122; 222) within the cage-like structure so that the struts (18; 218) form an atraumatic distal end of the device; characterised in that at least some of the struts (18; 218) are connected to each other at their distal strut ends (22; 122; 222) within the cage-like structure so that the struts (18; 218) form an atraumatic distal end of the device; wherein the atraumatic distal end of the device comprises inwardly bent struts (18; 218), wherein at least some of the ends of the bent struts (18; 218) point in a direction towards the proximal end of the cage-like structure.
Filter, in particular a hydraulic filter, for separating particles from a medium, in particular from a fluid or a pressure medium, having a filter housing, in which an approximately cylindrical filter element is arranged, an annular space being delimited by an outer circumferential face of the filter element and an inner circumferential face of the filter housing, an inflow channel opening into the annular space and an outflow channel extending from an inner region of the filter element, the inflow channel opening into the annular space approximately in a circumferential direction of the latter, characterized in that, in cross section perpendicularly with respect to the filter longitudinal axis, the inflow channel has an end section which tapers towards the annular space, and the end section of the inflow channel being widened in longitudinal section parallel to the filter longitudinal axis, the widened end section of the inflow channel being configured in such a way that the medium to be filtered is diverted in an axial direction of the filter element in order to form a cyclone-like flow of the medium, the inflow and outflow channel (8, 10) being configured in one piece with the filter housing.
An all-solid-state cell comprising positive and negative electrode portions (18, 20) containing an electrode active material, an electrolyte portion containing a solid electrolyte, and positive and negative collector portions (24, 26), wherein one or both of the positive and negative electrode portions (18, 20) are formed by mixing and firing the electrode active material and a solid electrolyte material in the form of LAGP Li 1+x Al x Ge 2-x (PO 4) 3 (0 ≤ x ≤ 1), characterized in that said solid electrolyte material comprises an amorphous phosphate compound and is of Nasicon type after firing; said firing is conducted at a firing temperature of 600°C or higher; and in that the electrode active material and said solid electrolyte material satisfy the inequality: Ty > Tz wherein Ty is a temperature at which a capacity of the electrode active material is lowered by a reaction between the electrode active material and the solid electrolyte material, and Tz is a temperature at which the solid electrolyte material is shrunk by firing.
A pneumatic tire comprising a tread part, wherein the tread part has two or more circumferential grooves extending continuously in a circumferential direction of the tire, a pair of shoulder land parts partitioned by the circumferential grooves and a center land part located between the pair of shoulder land parts, and width direction grooves, and may arbitrarily have sipes; wherein, when a tire cross-sectional width is Wt (mm) and a tire outer diameter is Dt (mm), Wt and Dt satisfy Equation below; wherein, when an area of the entirety of land parts is Sr and a total area of the center land part is Sce, Sr and See satisfy Equation below; wherein the tread part has at least one rubber layer composed of a rubber composition comprising a rubber component; and wherein tan δ at 5°C (5°C tan δ), tan δ at 20°C (20°C tan δ), and tan δ at 50°C (50°C tan δ) of the rubber composition measured as specified in the description under conditions of frequency 10 Hz and elongation strain 2.5% satisfy Equation and Equation below: 1963.4 mm ≦ π / 4 × Dt ∧ 2 / Wt ≦ 2827.4 mm; 0.35 ≦ Sce / Sr ≦ 0.80; 0.01 ≦ 20 ∘ C tan δ + 50 ∘ C tan δ / 2 ≦ 0.17; 0.30 ≦ 5 ∘ C tan δ + 20 ∘ C tan δ / 2 ≦ 0.60, and wherein 5°C tan δ of the rubber composition is 0.65 or more, and 20°C tan δ of the rubber composition is 0.15 or less. wherein the tread part has two or more circumferential grooves extending continuously in a circumferential direction of the tire, a pair of shoulder land parts partitioned by the circumferential grooves and a center land part located between the pair of shoulder land parts, and width direction grooves, and may arbitrarily have sipes; wherein, when a tire cross-sectional width is Wt (mm) and a tire outer diameter is Dt (mm), Wt and Dt satisfy Equation below; wherein, when an area of the entirety of land parts is Sr and a total area of the center land part is Sce, Sr and See satisfy Equation below; wherein the tread part has at least one rubber layer composed of a rubber composition comprising a rubber component; and wherein tan δ at 5°C (5°C tan δ), tan δ at 20°C (20°C tan δ), and tan δ at 50°C (50°C tan δ) of the rubber composition measured as specified in the description under conditions of frequency 10 Hz and elongation strain 2.5% satisfy Equation and Equation below: 1963.4 mm ≦ π / 4 × Dt ∧ 2 / Wt ≦ 2827.4 mm; 0.35 ≦ Sce / Sr ≦ 0.80; 0.01 ≦ 20 ∘ C tan δ + 50 ∘ C tan δ / 2 ≦ 0.17; 0.30 ≦ 5 ∘ C tan δ + 20 ∘ C tan δ / 2 ≦ 0.60, and wherein 5°C tan δ of the rubber composition is 0.65 or more, and 20°C tan δ of the rubber composition is 0.15 or less.
A method performed by a wireless device for managing communication in a wireless communication network, the method comprising: - receiving reference signals from one or more radio network nodes; - estimating to what extent the received reference signals are received spatially diversified based on a radio network node indication indicating from which radio network node a reference signal was sent, and/or a beam indication indicating in what direction the reference signal was sent toward the wireless device; - generating a measurement report by adding selected reference signals into the measurement report, the reference signals are selected by the wireless device which are reported to the radio network node for simultaneous multiple transmissions of data to the wireless device taking into account the estimated extent that the received reference signals are received spatially diversified, wherein generating the measurement report further takes a direction of the reference signal based on beam indication into account when selecting reference signals to add to the measurement report; - transmitting the measurement report to a radio network node in the wireless communication network; and - receiving data over simultaneous multiple transmissions using beams of reference signals added into the measurement report. - receiving reference signals from one or more radio network nodes; - estimating to what extent the received reference signals are received spatially diversified based on a radio network node indication indicating from which radio network node a reference signal was sent, and/or a beam indication indicating in what direction the reference signal was sent toward the wireless device; - generating a measurement report by adding selected reference signals into the measurement report, the reference signals are selected by the wireless device which are reported to the radio network node for simultaneous multiple transmissions of data to the wireless device taking into account the estimated extent that the received reference signals are received spatially diversified, wherein generating the measurement report further takes a direction of the reference signal based on beam indication into account when selecting reference signals to add to the measurement report; - transmitting the measurement report to a radio network node in the wireless communication network; and - receiving data over simultaneous multiple transmissions using beams of reference signals added into the measurement report.
Handheld tool rechargeable battery pack comprising a housing unit (38a, 38d) and comprising an inductive charging coil apparatus (10a-i), in particular handheld tool inductive charging coil apparatus, which comprises at least one coil unit (12a-i), at least one shielding unit (78a-f; 78h-i) and at least one core unit (14a-f; 14h-i), and comprising at least one electronics unit (16a-b; 16e-f; 16i) and cell unit (18a-b, 18e-f) which are to be shielded, wherein the inductive charging coil apparatus (10a-i) is arranged between the cell unit (18a-b, 18e-f) and a housing wall of the housing unit (38a, 38d), and the electronics unit is arranged between the cell unit (18a-b, 18e-f) and the inductive charging coil apparatus (10a-i), characterized in that a projection surface (20a-d; 20h-i) of the core unit, in a projection in the direction of a winding axis (22a-i) of the coil unit (12a-i), at least substantially covers the electronics unit and cell unit (18a-b; 18e-f) which are to be shielded.
A compound selected from seladelpar and the salts thereof for use in treating a cholangiopathy in a subject who is intolerant of, or who has an inadequate response to, at least one of obeticholic acid and a fibrate.
Method for producing a panel of photovoltaic cells, comprising a step (1.8) for baking a stack of a plurality of layers comprising different materials, and a stacking step (1.6) comprising positioning of the following layers: - a translucent front layer, - at least two layers (C2, C5) of dry glass fibre fabric, - at least two layers (C3, C6) of glass fibre fabric pre-impregnated with epoxy resin, - a layer of photovoltaic cells, - a rear layer, characterised in that the translucent front layer and the layer of photovoltaic cells are separated by a layer (C2, C5) of dry glass fibre fabric and a layer (C3, C6) of glass fibre fabric pre-impregnated with epoxy resin and in that the layer of photovoltaic cells and the rear layer are also separated by a layer (C2, C5) of dry glass fibre fabric and a layer (C3, C6) of glass fibre fabric pre-impregnated with epoxy resin. - a translucent front layer, - at least two layers (C2, C5) of dry glass fibre fabric, - at least two layers (C3, C6) of glass fibre fabric pre-impregnated with epoxy resin, - a layer of photovoltaic cells, - a rear layer,
A power converter comprising a first electric power conversion means including an inverter for converting a first DC electric power to an AC electric power, and an AC circuit connected subsequent the first electric power conversion means; wherein the power converter further comprises: a second electric power conversion means which is connected in parallel with a DC circuit of the first electric power conversion means, and which is configured to receive the first DC electric power and to convert the same to a second DC electric power having a voltage level that differs from the voltage level of the first DC electric power; and a first power storage means which is connected with a second DC electric power side of the second electric power conversion means; characterized in that: the power converter further comprises a secondary battery which is configured to absorb ripple component included in a current of the second DC electric power, and which is connected in parallel with the first power storage means, the first power storage means having greater power storage capacity and greater inner impedance than those of the secondary battery; the second electric power conversion means is connected via a series connection of a first wiring and a second wiring each having a desired inductance (Lc, Lb-Lc) to a first electrode of the first power storage means; the secondary battery is connected between the first and second electric wiring (12, 13) and a second electrode of the first power storage means, so that inductance (Lc) between the second electric power conversion means and the secondary battery becomes smaller than inductance (Lb) between the second electric power conversion means and the first power storage means. a second electric power conversion means which is connected in parallel with a DC circuit of the first electric power conversion means, and which is configured to receive the first DC electric power and to convert the same to a second DC electric power having a voltage level that differs from the voltage level of the first DC electric power; and a first power storage means which is connected with a second DC electric power side of the second electric power conversion means; characterized in that: the power converter further comprises a secondary battery which is configured to absorb ripple component included in a current of the second DC electric power, and which is connected in parallel with the first power storage means, the first power storage means having greater power storage capacity and greater inner impedance than those of the secondary battery; the second electric power conversion means is connected via a series connection of a first wiring and a second wiring each having a desired inductance (Lc, Lb-Lc) to a first electrode of the first power storage means; the secondary battery is connected between the first and second electric wiring (12, 13) and a second electrode of the first power storage means, so that inductance (Lc) between the second electric power conversion means and the secondary battery becomes smaller than inductance (Lb) between the second electric power conversion means and the first power storage means.
A modified natural rubber which has a phosphorus content of 200 ppm or less and whose pH is adjusted to 2 to 7, wherein the pH is determined by cutting 5 g of the modified natural rubber into cubes at most 2 mm on each side, immersing the cubes in 50 mL of distilled water and extracting them at 90°C for 15 minutes under microwave irradiation, and then measuring the immersion water with a pH meter.