mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communications, comprising: modulating multicast broadcast single frequency network, MBSFN, symbols on a base modulation layer for transmission during a first transmission period, the first transmission period comprising a first region and a second region non-overlapping in time with the first region; modulating unicast symbols on an enhancement modulation layer that is hierarchically modulated on the base modulation layer for transmission during the first transmission period; transmitting a first reference signal for use in decoding the modulated unicast symbols, wherein the first reference signal is transmitted in the first region of the first transmission period; transmitting a second reference signal for use in decoding the modulated MBSFN symbols, wherein the second reference signal is transmitted in the second region of the first transmission period characterized by, rate matching the modulated unicast symbols on the enhancement modulation layer around the second reference signal; and transmitting the modulated MBSFN symbols on the base modulation layer and the modulated unicast symbols on the hierarchically modulated enhancement modulation layer during the second region of the first transmission period based at least in part on the rate matching. modulating multicast broadcast single frequency network, MBSFN, symbols on a base modulation layer for transmission during a first transmission period, the first transmission period comprising a first region and a second region non-overlapping in time with the first region; modulating unicast symbols on an enhancement modulation layer that is hierarchically modulated on the base modulation layer for transmission during the first transmission period; transmitting a first reference signal for use in decoding the modulated unicast symbols, wherein the first reference signal is transmitted in the first region of the first transmission period; transmitting a second reference signal for use in decoding the modulated MBSFN symbols, wherein the second reference signal is transmitted in the second region of the first transmission period characterized by, rate matching the modulated unicast symbols on the enhancement modulation layer around the second reference signal; and transmitting the modulated MBSFN symbols on the base modulation layer and the modulated unicast symbols on the hierarchically modulated enhancement modulation layer during the second region of the first transmission period based at least in part on the rate matching.
A hinge construction for hingably connecting a first member to a second member, wherein the first member and the second member are rotatable relative to each other about an axis of rotation having an axial direction, the hinge construction comprising: a first bearing structure comprising a first support structure having a cylinder surface segment shaped first bearing surface at a radial distance from the axis of rotation, and a second support structure having a cylinder surface segment shaped second bearing surface at a radial distance from the axis of rotation, and configured to slidingly engage the first bearing surface, wherein the first support structure is fixed to the first member and the second support structure is fixed to the second member; a second bearing structure comprising a third support structure having a third bearing surface, and a fourth support structure having a fourth bearing surface, wherein the third bearing surface and the fourth bearing surface are configured to slidingly engage each other to absorb a force having a force component in the axial direction, wherein the third support structure is fixed to the first member and the fourth support structure is fixed to the second member; and a third bearing structure comprising a fifth support structure having a fifth bearing surface, and a sixth support structure having a sixth bearing surface, wherein the fifth bearing surface and the sixth bearing surface are configured to slidingly engage each other to absorb a force having a force component in the axial direction, wherein the fifth support structure is fixed to the second member and the sixth support structure is fixed to the first member. a first bearing structure comprising a first support structure having a cylinder surface segment shaped first bearing surface at a radial distance from the axis of rotation, and a second support structure having a cylinder surface segment shaped second bearing surface at a radial distance from the axis of rotation, and configured to slidingly engage the first bearing surface, wherein the first support structure is fixed to the first member and the second support structure is fixed to the second member; a second bearing structure comprising a third support structure having a third bearing surface, and a fourth support structure having a fourth bearing surface, wherein the third bearing surface and the fourth bearing surface are configured to slidingly engage each other to absorb a force having a force component in the axial direction, wherein the third support structure is fixed to the first member and the fourth support structure is fixed to the second member; and a third bearing structure comprising a fifth support structure having a fifth bearing surface, and a sixth support structure having a sixth bearing surface, wherein the fifth bearing surface and the sixth bearing surface are configured to slidingly engage each other to absorb a force having a force component in the axial direction, wherein the fifth support structure is fixed to the second member and the sixth support structure is fixed to the first member.
Method for controlling a current converter with a controllable inverter, which is connected on the load side to an electric motor drive of a conveying and handling plant, in particular an electric monorail system in the automotive industry, - wherein the pulse frequency (f n) of the current converter or inverter (1, 2) is varied as a function of the output current (I a) of the current converter required on the load side, - wherein the pulse frequency (f n) is reduced if a power- or rotational speed-dependent target value (I target) of the output current (I a) exceeds a pulse frequency-dependent current limit value (I max), - wherein the pulse frequency (f n) is raised to a set target frequency (f S) again if the requested target value (I target) of the output current (I a) falls below the current limit value (I max), and - wherein a reduction of the pulse frequency (f n) takes place starting from the target frequency (f S) based on a base frequency (f B) and the raising of the pulse frequency (f n) takes place up to the target frequency (f S) as a maximum in discrete steps f 1...m. - wherein the pulse frequency (f n) of the current converter or inverter (1, 2) is varied as a function of the output current (I a) of the current converter required on the load side, - wherein the pulse frequency (f n) is reduced if a power- or rotational speed-dependent target value (I target) of the output current (I a) exceeds a pulse frequency-dependent current limit value (I max), - wherein the pulse frequency (f n) is raised to a set target frequency (f S) again if the requested target value (I target) of the output current (I a) falls below the current limit value (I max), and - wherein a reduction of the pulse frequency (f n) takes place starting from the target frequency (f S) based on a base frequency (f B) and the raising of the pulse frequency (f n) takes place up to the target frequency (f S) as a maximum in discrete steps f 1...m.
A medical pump system comprising: a pump including a motor drivingly connected to a pumping mechanism that acts upon a tubing to pump fluid; a controller for controlling the motor to affect operation of the pumping mechanism and vary a fluid flow rate of fluid in the tubing; and a capacitive micromachined ultrasonic transducer sensor assembly operatively coupled to the tubing and in communication with the controller; wherein the controller determines an inner diameter and a wall thickness (d) of the tubing based on a first acoustic signal that bounces off an outer wall and a proximate inner wall of the tubing and is received by the capacitive micromachined ultrasonic transducer sensor assembly; wherein the controller determines a fluid flow velocity of fluid in the tubing based on transit times (T0, Ti) of generally opposing acoustic signals as the generally opposing second subsequent acoustic signals are sent through the tubing and the fluid in the tubing by the sensor assembly; wherein the controller determines a fluid flow rate of fluid in the tubing based on the determined inner diameter of the tubing and the determined fluid flow velocity of fluid in the tubing; wherein the controller varies the operation of the motor and pumping mechanism to vary the fluid flow rate through the tubing with the pump based on the determined fluid flow rate of fluid in the tubing. a pump including a motor drivingly connected to a pumping mechanism that acts upon a tubing to pump fluid; a controller for controlling the motor to affect operation of the pumping mechanism and vary a fluid flow rate of fluid in the tubing; and a capacitive micromachined ultrasonic transducer sensor assembly operatively coupled to the tubing and in communication with the controller;
A system for testing a wind turbine, said system comprising: a wind turbine; and a portable grid simulator comprising: a grid generator configured to generate power and coupled to said wind turbine; and a portable load coupled to said grid generator; characterised by: a grid transformer coupled to said grid generator, said portable load, and said wind turbine, and configured to convert a first voltage into a second voltage; said portable grid simulator further comprising a power meter coupled to said grid generator and configured to measure a power output by said portable load, and wherein said power meter is further configured to measure power output by a wind turbine generator when coupled to the portable grid simulator. a wind turbine; and a portable grid simulator comprising: a grid generator configured to generate power and coupled to said wind turbine; and a portable load coupled to said grid generator; characterised by: a grid transformer coupled to said grid generator, said portable load, and said wind turbine, and configured to convert a first voltage into a second voltage; said portable grid simulator further comprising a power meter coupled to said grid generator and configured to measure a power output by said portable load, and wherein said power meter is further configured to measure power output by a wind turbine generator when coupled to the portable grid simulator. a grid generator configured to generate power and coupled to said wind turbine; and a portable load coupled to said grid generator; characterised by: a grid transformer coupled to said grid generator, said portable load, and said wind turbine, and configured to convert a first voltage into a second voltage; said portable grid simulator further comprising a power meter coupled to said grid generator and configured to measure a power output by said portable load, and wherein said power meter is further configured to measure power output by a wind turbine generator when coupled to the portable grid simulator. a grid transformer coupled to said grid generator, said portable load, and said wind turbine, and configured to convert a first voltage into a second voltage; said portable grid simulator further comprising a power meter coupled to said grid generator and configured to measure a power output by said portable load, and wherein said power meter is further configured to measure power output by a wind turbine generator when coupled to the portable grid simulator.
A pumping assembly comprising: a pump body with a pump bore, and a sleeve (14, 14a) fixed within the pump bore and having a first end, a second end and a sleeve bore; and a plunger adapted to enter the first end of the sleeve (14, 14a) and to reciprocate within the sleeve bore, such that a pumping chamber is partly defined by a leading face of the plunger and an interior side wall of the sleeve; wherein the interior side wall of the sleeve (14, 14a) has at least one port (47; 48) to allow fluid flow through the wall of the sleeve (14, 14a), characterised in that the at least one port comprises an annular groove formed on an inner surface of the sleeve connected to a fluid passage through the pump body by one or more bores extending in a direction orthogonal to a direction of reciprocation. a pump body with a pump bore, and a sleeve (14, 14a) fixed within the pump bore and having a first end, a second end and a sleeve bore; and a plunger adapted to enter the first end of the sleeve (14, 14a) and to reciprocate within the sleeve bore, such that a pumping chamber is partly defined by a leading face of the plunger and an interior side wall of the sleeve; wherein the interior side wall of the sleeve (14, 14a) has at least one port (47; 48) to allow fluid flow through the wall of the sleeve (14, 14a), characterised in that the at least one port comprises an annular groove formed on an inner surface of the sleeve connected to a fluid passage through the pump body by one or more bores extending in a direction orthogonal to a direction of reciprocation.
A page swap method, wherein the method is applied to a storage system comprising a processor, a memory device, and a swap device, the memory device stores a plurality of pages of different applications, and the method comprises: determining, from a least recently used, LRU linked list, a to-be-swapped-out first swap-out page of the memory device; determining a second swap-out page from the LRU linked list based on the first swap-out page; and when the first swap-out page is swapped out of the memory device, consecutively swapping out the first swap-out page and the second swap-out page to the swap device; wherein the first swap-out page and the second swap-out page have a same application identifier, and the determining a second swap-out page from the LRU linked list based on the first swap-out page comprises: determining the application identifier of the first swap-out page, and determining, from the LRU linked list, a to-be-swapped-out page that has a same application identifier as the first swap-out page, as the second swap-out page. determining, from a least recently used, LRU linked list, a to-be-swapped-out first swap-out page of the memory device; determining a second swap-out page from the LRU linked list based on the first swap-out page; and when the first swap-out page is swapped out of the memory device, consecutively swapping out the first swap-out page and the second swap-out page to the swap device; wherein the first swap-out page and the second swap-out page have a same application identifier, and the determining a second swap-out page from the LRU linked list based on the first swap-out page comprises: determining the application identifier of the first swap-out page, and determining, from the LRU linked list, a to-be-swapped-out page that has a same application identifier as the first swap-out page, as the second swap-out page.
An integrated circuit structure comprising: a top fin consisting of semiconductor material and extending in a length direction; a bottom fin consisting of semiconductor material and extending in the length direction, the bottom fin being under and vertically aligned with the top fin; a top gate structure in contact with a portion of the top fin; a top source region and a top drain region each adjacent to the portion of the top fin, such that the portion of the top fin is between the top source region and the top drain region; a bottom gate structure in contact with a portion of the bottom fin; and a bottom source region and a bottom drain region each adjacent to the portion of the bottom fin, such that the portion of the bottom fin is between the bottom source region and the bottom drain region; wherein widths of the portions of the top and bottom fins are different; and characterized in that the top fin is separated from the bottom fin by an upper isolation and a dielectric, and wherein the top source region and top drain region are separated from the bottom source region and bottom drain region by the upper isolation and a lower isolation, and wherein the upper gate is separated from the lower gate by the dielectric. a top fin consisting of semiconductor material and extending in a length direction; a bottom fin consisting of semiconductor material and extending in the length direction, the bottom fin being under and vertically aligned with the top fin; a top gate structure in contact with a portion of the top fin; a top source region and a top drain region each adjacent to the portion of the top fin, such that the portion of the top fin is between the top source region and the top drain region; a bottom gate structure in contact with a portion of the bottom fin; and a bottom source region and a bottom drain region each adjacent to the portion of the bottom fin, such that the portion of the bottom fin is between the bottom source region and the bottom drain region; wherein widths of the portions of the top and bottom fins are different; and characterized in that the top fin is separated from the bottom fin by an upper isolation and a dielectric, and wherein the top source region and top drain region are separated from the bottom source region and bottom drain region by the upper isolation and a lower isolation, and wherein the upper gate is separated from the lower gate by the dielectric.
A method for adjusting depth characteristics of a three-dimensional image for correcting for errors in perceived depth when scaling the three-dimensional image, the method comprising: receiving three-dimensional image information comprising a stereoscopic image including a first image and a second image, the stereoscopic image having depth characteristics associated with an offset of the first and second images; determining a shifting factor for varying the depth characteristics, the shifting factor indicative of a relative shift to be applied between the first and the second images; and performing the relative shift between the first and second images in accordance with the shifting factor for adjusting the offset of the first and second images; characterised in that said method further comprises: determining a scaling factor indicative of a scaling for converting the stereoscopic image from an original target size to a new size, wherein the shifting factor is determined in accordance with the scaling factor and at least one depth parameter derived from the depth characteristics. receiving three-dimensional image information comprising a stereoscopic image including a first image and a second image, the stereoscopic image having depth characteristics associated with an offset of the first and second images; determining a shifting factor for varying the depth characteristics, the shifting factor indicative of a relative shift to be applied between the first and the second images; and performing the relative shift between the first and second images in accordance with the shifting factor for adjusting the offset of the first and second images; characterised in that said method further comprises: determining a scaling factor indicative of a scaling for converting the stereoscopic image from an original target size to a new size, wherein the shifting factor is determined in accordance with the scaling factor and at least one depth parameter derived from the depth characteristics.
7β-Hydroxysteroid dehydrogenase (7β-HSDH) which catalyses at least the stereospecific enzymatic reduction of a 7-ketosteroid to the corresponding 7-hydroxysteroid, wherein the enzyme comprises an amino acid sequence having at least 80% sequence identity in relation to SEQ ID NO:2 and has a mutation in position 17 of SEQ ID NO:2; wherein the mutation in position 17 of SEQ ID NO:2 is T17X 2, where X 2 stands for F, A, I or S, and wherein the enzyme exhibits the following property profile in comparison to 7β-HSDH with SEQ ID NO:2: a) an increased specific activity (Vmax [U/mg]) for dehydrocholic acid (DHCA) in the enzymatic reduction of DHCA with NAD H as cofactor; b) an increased specific activity (Vmax [U/mg]) for NAD H in the enzymatic reduction of DHCA with NAD H as cofactor; c) a reduced substrate inhibition by DHCA; d) a modified cofactor specificity with regard to NADH and NADPH; e) it being possible for these properties a) to d) to be present individually or in any combination. a) an increased specific activity (Vmax [U/mg]) for dehydrocholic acid (DHCA) in the enzymatic reduction of DHCA with NAD H as cofactor; b) an increased specific activity (Vmax [U/mg]) for NAD H in the enzymatic reduction of DHCA with NAD H as cofactor; c) a reduced substrate inhibition by DHCA; d) a modified cofactor specificity with regard to NADH and NADPH; e) it being possible for these properties a) to d) to be present individually or in any combination.
A semiconductor device comprising: a first board; and an intermediate layer being provided on the first board and having a plurality of connectors (31, 41) and a resin board section (39, 49), in which the plurality of connectors (31, 41) are fixed; wherein the first board has a positioning section that positions the intermediate layer, wherein the resin board section (39, 49) of the intermediate layer is provided with a positioning insertion section (37, 47), into which the positioning section is inserted, wherein an electronic element (12, 62) being a power device is provided on the connector of the intermediate layer and wherein a control unit configured to control the electronic element (12, 62) is provided at the resin board section (39, 49) of the intermediate layer. a first board; and an intermediate layer being provided on the first board and having a plurality of connectors (31, 41) and a resin board section (39, 49), in which the plurality of connectors (31, 41) are fixed; wherein the first board has a positioning section that positions the intermediate layer, wherein the resin board section (39, 49) of the intermediate layer is provided with a positioning insertion section (37, 47), into which the positioning section is inserted, wherein an electronic element (12, 62) being a power device is provided on the connector of the intermediate layer and wherein a control unit configured to control the electronic element (12, 62) is provided at the resin board section (39, 49) of the intermediate layer.