mhurhangee/ep-ind-claims huggingface dataset:
Attachment device (10; 100; 200; 300) for a surgical device, the attachment device (10; 100; 200; 300) comprising a cutting device with at least one cutting element forming at least one cutting edge for producing at least one cut line on a bone, the attachment device (10; 100; 200; 300) comprising a feed device having at least one feed member which is configured for movement relative to this at least one cutting edge and can thereby assume a variable spacing relative thereto, and comprising a force application device which is configured such that the at least one feed member can have a force acting in the distal direction applied thereto, at least insofar as the spacing exceeds a minimum spacing, and the attachment device (200; 300) comprising a support device with at least one support member which can be made to bear against the bone, characterized in that the support device is configured so as to be secured against rotation relative to the feed device.
A pharmaceutical composition comprising Poria cocos peel extract as an active ingredient for use in (i) improving spatial memory, (ii) improving cognitive memory, (iii) protecting nerve cells, (iv) decreasing beta amyloid toxicity in neurons, (v) inhibiting the production of amyloid-β (Abeta), (vi) promoting nerve growth factor production, (vii) inhibiting acetylcholine esterase (AChE) activity, (viii) decreasing Aβ42-induced cytotoxicity, (ix) suppressing tau phosphorylation, or (x) any combination thereof, in a patient having Alzheimer's disease. (i) improving spatial memory, (ii) improving cognitive memory, (iii) protecting nerve cells, (iv) decreasing beta amyloid toxicity in neurons, (v) inhibiting the production of amyloid-β (Abeta), (vi) promoting nerve growth factor production, (vii) inhibiting acetylcholine esterase (AChE) activity, (viii) decreasing Aβ42-induced cytotoxicity, (ix) suppressing tau phosphorylation, or (x) any combination thereof,
System for the registration of numbers and/or weight distribution of marine organisms in movement, comprising • a registration container manufactured at least partly from a transparent or translucent material, • a transfer duct (15,16) connected in fluid communication through an upstream adapter to the upstream end of the registration container and adapted for the transfer of marine organisms from at least one reservoir to the registration container, and a further portion of the transfer duct is connected in fluid communication through a downstream adapter at the downstream end of the registration container to a receiving reservoir, • a registration unit comprising at least one camera, wherein said registration unit is performing an optical registration of marine organisms passing with a fluid flow through the registration container, and • a feedback loop comprising at least one outlet duct, a feedback duct, at least one injection duct and a pumping means connecting upstream end and downstream end of said registration container, characterized by • said upstream adapter being arranged to scatter the incoming marine organisms by its increasing cross section to improve said registration; and • said feedback loop being arranged to compensate for flow velocity decrease in the registration container by pumping fluid from the downstream end to the up-stream end of the registration container to at least compensate for flow velocity decrease induced by said cross section increase in the upstream adapter. • a registration container manufactured at least partly from a transparent or translucent material, • a transfer duct (15,16) connected in fluid communication through an upstream adapter to the upstream end of the registration container and adapted for the transfer of marine organisms from at least one reservoir to the registration container, and a further portion of the transfer duct is connected in fluid communication through a downstream adapter at the downstream end of the registration container to a receiving reservoir, • a registration unit comprising at least one camera, wherein said registration unit is performing an optical registration of marine organisms passing with a fluid flow through the registration container, and • a feedback loop comprising at least one outlet duct, a feedback duct, at least one injection duct and a pumping means connecting upstream end and downstream end of said registration container, • said upstream adapter being arranged to scatter the incoming marine organisms by its increasing cross section to improve said registration; and • said feedback loop being arranged to compensate for flow velocity decrease in the registration container by pumping fluid from the downstream end to the up-stream end of the registration container to at least compensate for flow velocity decrease induced by said cross section increase in the upstream adapter.
A method for receiving a physical downlink shared channel, PDSCH, signal by a user equipment, UE, in a wireless communication system, the method comprising: receiving, by the UE, through a higher layer, a PDSCH resource element mapping and Quasi co-location Indicator, PQI, parameter set; determining a start symbol index of the PDSCH signal in a downlink subframe; and receiving, via a predetermined cell, the PDSCH signal based on the start symbol index, characterized by: when a first PDSCH start symbol value is configured by the PQI parameter set and the downlink subframe is a Multicast Broadcast Single Frequency Network, MBSFN, subframe, the start symbol index is determined based on a result of comparing the first PDSCH start symbol value contained in the PQI parameter set with a predefined threshold, wherein, when the first PDSCH start symbol value is not configured by the PQI parameter set, and a second PDSCH start symbol value for the predetermined cell is configured by the higher layer for carrier aggregation, the start symbol index is determined according to the second PDSCH start symbol value for the predetermined cell. receiving, by the UE, through a higher layer, a PDSCH resource element mapping and Quasi co-location Indicator, PQI, parameter set; determining a start symbol index of the PDSCH signal in a downlink subframe; and receiving, via a predetermined cell, the PDSCH signal based on the start symbol index, characterized by: when a first PDSCH start symbol value is configured by the PQI parameter set and the downlink subframe is a Multicast Broadcast Single Frequency Network, MBSFN, subframe, the start symbol index is determined based on a result of comparing the first PDSCH start symbol value contained in the PQI parameter set with a predefined threshold, wherein, when the first PDSCH start symbol value is not configured by the PQI parameter set, and a second PDSCH start symbol value for the predetermined cell is configured by the higher layer for carrier aggregation, the start symbol index is determined according to the second PDSCH start symbol value for the predetermined cell.
A vehicle comprising an imaging system, the imaging system comprising: an image sensor; an electrowetting lens (30; 30a) positioned in front of the image sensor and configured to change at least one optical characteristic in response to an electrical stimulus so as to change a field of view of the image sensor; and a controller coupled to the electrowetting lens (30; 30a) and configured to select a field of view of the image sensor by selecting the electrical stimulus to be applied to the electrowetting lens (30; 30a), the imaging system characterized in that the imaging system is an interior vision camera of the vehicle, wherein the controller selects two different electrical stimuli so as to alternate the field of view of the image sensor back and forth to obtain a first image stream with a first field of view and a second image stream with a second field of view, wherein the controller either supplies the first image stream to a first display and supplies the second image stream to a second display, or supplies the first image stream and the second image stream to the first display to be displayed simultaneously in different display areas of the first display, wherein the interior vision camera is configured to capture images inside the vehicle and to display the first image stream and the second image stream to a driver or occupants of the vehicle, and wherein a change in the field of view is effectuated by automatic control. an image sensor; an electrowetting lens (30; 30a) positioned in front of the image sensor and configured to change at least one optical characteristic in response to an electrical stimulus so as to change a field of view of the image sensor; and a controller coupled to the electrowetting lens (30; 30a) and configured to select a field of view of the image sensor by selecting the electrical stimulus to be applied to the electrowetting lens (30; 30a), the imaging system characterized in that the imaging system is an interior vision camera of the vehicle, wherein the controller selects two different electrical stimuli so as to alternate the field of view of the image sensor back and forth to obtain a first image stream with a first field of view and a second image stream with a second field of view, wherein the controller either supplies the first image stream to a first display and supplies the second image stream to a second display, or supplies the first image stream and the second image stream to the first display to be displayed simultaneously in different display areas of the first display, wherein the interior vision camera is configured to capture images inside the vehicle and to display the first image stream and the second image stream to a driver or occupants of the vehicle, and wherein a change in the field of view is effectuated by automatic control.
Concrete construction element including at least two blocks (1, 2, 3, 4), said blocks (1, 2, 3, 4) being configured according to a depth dimension of the blocks (1, 2, 3, 4) and being rigidly connected to one another but separable at the breakable linking areas, at least one of the construction blocks (1, 2, 3, 4) is to engage with at least one other construction block, in a stacked fashion, each of the construction blocks (1, 2, 3, 4) comprising, on a first surface, male assembly means and, on a second surface opposite the first surface, female assembly means complementary to the male assembly means, wherein each block (1, 2, 3, 4) includes at least three holes formed from a third surface of the block (1, 2, 3, 4), the third surface being parallel to the depth dimension and perpendicular to the first and second surfaces (5, 6), the at least three holes not all being aligned, and wherein at least one of the holes includes on the one hand a flared portion from its mouth on the third surface, with a decreasing section towards the inside of the block and on the other hand a central portion with a constant section, and followed by a flared portion with an increasing section to a mouth on the fourth surface.
Multichannel optics image capturing apparatus, wherein at least a first channel comprises anamorphic mapping optics and the first channel comprises an at least partial field of view overlap at least with a second channel, characterized in that a distortion of the anamorphic mapping optics of the first channel is configured such that mapping of an object comprises a first aspect ratio in the first channel and a second aspect ratio in the second channel, wherein the first aspect ratio is uniquely allocated to the first channel and the second aspect ratio is uniquely allocated to the second channel, such that on each channel (2, 3) a mapping of the object to be captured is captured which is distorted differently when compared to the other channels.
Overhead aircraft passenger service unit, which is configured to be placed above the passenger seats within an aircraft cabin and which comprises: at least one cavity for housing at least one oxygen mask; and at least one removable cover, which at least partially covers an opening of the cavity; wherein the removable cover houses and/or supports at least one functional component (4, 6, 8, 12, 14), characterized in that the at least one functional component (4, 6, 8, 12, 14) includes at least one of a reading lamp, a gasper and a loudspeaker. at least one cavity for housing at least one oxygen mask; and at least one removable cover, which at least partially covers an opening of the cavity; wherein the removable cover houses and/or supports at least one functional component (4, 6, 8, 12, 14), characterized in that the at least one functional component (4, 6, 8, 12, 14) includes at least one of a reading lamp, a gasper and a loudspeaker.
A method of printing using a synchronization signal, the method comprising the steps of: generating a synchronization signal to be used to designate a reference point in time for controlling and performing printing processes; selecting one from among a plurality of modes, wherein information regarding the plurality of modes is stored in a mode storage unit and said information includes information regarding at which points in time the printing processes are to be performed, determined according to the synchronization signal; instructing a printing process performing unit to perform the printing processes at the corresponding points in time based on the synchronization signal according to the selected mode; determining the points in time for performing the instructed printing processes based on the synchronization signal; and performing the instructed printing processes at the determined points in time based on the synchronization signal, wherein the synchronization signal comprises a plurality of waveforms repeated in a predetermined period, wherein the printing processes comprises laser scanning, paper supplying and fixing, wherein the plurality of modes are warm-up mode, print mode, ready mode and termination mode. generating a synchronization signal to be used to designate a reference point in time for controlling and performing printing processes; selecting one from among a plurality of modes, wherein information regarding the plurality of modes is stored in a mode storage unit and said information includes information regarding at which points in time the printing processes are to be performed, determined according to the synchronization signal; instructing a printing process performing unit to perform the printing processes at the corresponding points in time based on the synchronization signal according to the selected mode; determining the points in time for performing the instructed printing processes based on the synchronization signal; and performing the instructed printing processes at the determined points in time based on the synchronization signal, wherein the synchronization signal comprises a plurality of waveforms repeated in a predetermined period, wherein the printing processes comprises laser scanning, paper supplying and fixing, wherein the plurality of modes are warm-up mode, print mode, ready mode and termination mode.
A pump including two pistons (5, 5') arranged in a rotor located in a stator forming two opposite parallel eccentric pumping chambers (21, 21') having at least one inlet port through which the fluid is aspirated into at least one of the pumping chambers (21, 21') during the filling movement of at least one of the pistons and then expelled from at least one of the pumping chambers during the draining movement of at least one of the pistons to at least one outlet port, characterized by an inlet cavity connected to the inlet port, an outlet cavity connected to the outlet port and two port changeover transition areas (17, 17') located between each side of the cavities (13,15).
A method for wireless communications, the method comprising: receiving a plurality of signals, including a first signal, on a plurality of antenna elements, each signal associated with a different remote terminal, the first signal associated with a first remote terminal; determining a spatial signature corresponding to each of the plurality of signals, each spatial signature indicating a weight vector for an associated remote terminal; storing the spatial signatures corresponding to the plurality of signals and associated remote terminals; and spatially demultiplexing the signals other than the first signal using the spatial signatures to obtain an estimate of the first signal for the first remote terminal. receiving a plurality of signals, including a first signal, on a plurality of antenna elements, each signal associated with a different remote terminal, the first signal associated with a first remote terminal; determining a spatial signature corresponding to each of the plurality of signals, each spatial signature indicating a weight vector for an associated remote terminal; storing the spatial signatures corresponding to the plurality of signals and associated remote terminals; and spatially demultiplexing the signals other than the first signal using the spatial signatures to obtain an estimate of the first signal for the first remote terminal.
A marking composition comprising: a lipid-based wax composition comprising 40-60 percent by weight triacylglycerides, and 15-25 percent by weight monoacylglycerides and diacylglycerides combined; and said marking composition further comprising 25-35 percent by weight of a structuring agent, wherein the structuring agent is talc. a lipid-based wax composition comprising 40-60 percent by weight triacylglycerides, and 15-25 percent by weight monoacylglycerides and diacylglycerides combined; and said marking composition further comprising 25-35 percent by weight of a structuring agent, wherein the structuring agent is talc.
Structural part of the internal architecture of a payment terminal, said structural part being made of a rigid material, characterized in that said internal structural part comprises, on its periphery, means (I1, I2, I3, I4) for gripping and guiding an electrical cable forming an antenna, characterized in that said gripping and guiding means are in the form of a channel, the width of said channel being variable.
A device for collecting a bodily fluid sample, the device comprising: a first portion defining at least one sample collection channel wherein the channel or channels is/are configured to draw the bodily fluid sample into the channel or channels via a first type of motive force; a second portion comprising at least one sample container for receiving the bodily fluid sample collected in the sample collection channel or channels, wherein the container has a reverse-plunger type configuration comprising a plunger slidable within a vessel, wherein the container or containers is/are configured such that moving the vessel towards the sample collection channel or channels causes the plunger to slide within the vessel, thereby providing a second motive force different from the first motive force to move bodily fluid sample from the channel or channels into the container or containers. a first portion defining at least one sample collection channel wherein the channel or channels is/are configured to draw the bodily fluid sample into the channel or channels via a first type of motive force; a second portion comprising at least one sample container for receiving the bodily fluid sample collected in the sample collection channel or channels, wherein the container has a reverse-plunger type configuration comprising a plunger slidable within a vessel,
A method for monitoring fire alarm systems, the method comprising: sending, from non-compatible control panels of fire alarm systems to monitoring stations over a connection with the monitoring stations, alarm signals indicating that the fire alarm systems have entered an alarm state, wherein the non-compatible control panels are non-compatible for directly communicating with a connected services system; responding, by the monitoring stations, to the alarm signals by notifying authorities of potential fires; forwarding, by the monitoring stations, status information directly to a connected services system, wherein the status information includes information about the alarm state of the fire alarm systems; sending, via compatible control panels of the fire alarm systems that are compatible for directly communicating with the connected services system, status, diagnostic and/or testing information directly to the connected services system and alarm signals to the monitoring stations; translating, by the mapping service, the status information from the monitoring stations into a compatible format for a connected services database of the connected services system; storing, by the connected services server, the translated status information in the connected services database; and storing, by the connected services server, the status, diagnostic and testing information for the compatible control panels in the connected services database. sending, from non-compatible control panels of fire alarm systems to monitoring stations over a connection with the monitoring stations, alarm signals indicating that the fire alarm systems have entered an alarm state, wherein the non-compatible control panels are non-compatible for directly communicating with a connected services system; responding, by the monitoring stations, to the alarm signals by notifying authorities of potential fires; forwarding, by the monitoring stations, status information directly to a connected services system, wherein the status information includes information about the alarm state of the fire alarm systems; sending, via compatible control panels of the fire alarm systems that are compatible for directly communicating with the connected services system, status, diagnostic and/or testing information directly to the connected services system and alarm signals to the monitoring stations; translating, by the mapping service, the status information from the monitoring stations into a compatible format for a connected services database of the connected services system; storing, by the connected services server, the translated status information in the connected services database; and storing, by the connected services server, the status, diagnostic and testing information for the compatible control panels in the connected services database.