mhurhangee/ep-ind-claims huggingface dataset:
An automotive battery case for holding a battery for driving a vehicle, comprising: a tray member made of a resin and including a holder portion for holding the battery and a tray flange projecting outwardly from the holder portion, a cover member made of a resin and including a cover portion designed to cover the battery and a cover flange projecting outwardly from the cover portion, the tray member and the cover member being arranged with the cover flange and the tray flange placed one on the other, a first holding member made of a metal and arranged to contact the tray flange with an outer circumferential edge portion thereof projecting outwardly from the tray flange, a second holding member made of a metal and arranged to contact the cover flange with an outer circumferential edge portion projecting outwardly from the cover flange, and a fastening means fastening the first and second holding members, between which the tray flange and the cover flange are held together at a location outwardly away from the tray and cover flanges. a tray member made of a resin and including a holder portion for holding the battery and a tray flange projecting outwardly from the holder portion, a cover member made of a resin and including a cover portion designed to cover the battery and a cover flange projecting outwardly from the cover portion, the tray member and the cover member being arranged with the cover flange and the tray flange placed one on the other, a first holding member made of a metal and arranged to contact the tray flange with an outer circumferential edge portion thereof projecting outwardly from the tray flange, a second holding member made of a metal and arranged to contact the cover flange with an outer circumferential edge portion projecting outwardly from the cover flange, and a fastening means fastening the first and second holding members, between which the tray flange and the cover flange are held together at a location outwardly away from the tray and cover flanges.
An organic light emitting diode display, comprising: a substrate; a first electrode positioned on the substrate; an organic layer positioned on the first electrode; a transflective layer positioned on the organic layer; an organic emission layer positioned on the transflective layer, wherein the organic emission layer includes a main light emitting layer for emitting red light, a main light emitting layer for emitting green light, and a main light emitting layer for emitting blue light; and a second electrode positioned on the organic emission layer, characterized in that the transflective layer is positioned only in correspondence with the part of the organic emission layer having the main light emitting layer for emitting blue light. a substrate; a first electrode positioned on the substrate; an organic layer positioned on the first electrode; a transflective layer positioned on the organic layer; an organic emission layer positioned on the transflective layer, wherein the organic emission layer includes a main light emitting layer for emitting red light, a main light emitting layer for emitting green light, and a main light emitting layer for emitting blue light; and a second electrode positioned on the organic emission layer, characterized in that the transflective layer is positioned only in correspondence with the part of the organic emission layer having the main light emitting layer for emitting blue light.
A method of preventing or reducing degradation of a segment of a single-stranded RNA template that is amplified in an amplification reaction, the method comprising the steps of: a) providing the single-stranded RNA template; b) hybridizing the segment of the single-stranded RNA template with one or more oligonucleotides whose sequences are completely or partially complementary to the segment of the single-stranded RNA template that is amplified, wherein the one or more oligonucleotides hybridize to more than 48% of the segment of the single-stranded RNA template that is amplified; and c) reverse transcribing and amplifying the segment of the single-stranded RNA template under reaction conditions whereby the one or more oligonucleotides do not interfere with reverse transcription and amplification and whereby each one oligonucleotide from the one or more oligonucleotides is characterized by being between 11 nucleotides and 50 nucleotides in length and having a melting temperature that is at least 5°C lower than an extension temperature used during amplification, and wherein the sequence of each one oligonucleotide from the one or more oligonucleotides does not overlap with the sequence of another oligonucleotide from the one or more oligonucleotides; and the one or more oligonucleotides are present at a concentration that is at least fifty-fold lower than concentrations of primers and probes used during reverse transcription and amplification. a) providing the single-stranded RNA template; b) hybridizing the segment of the single-stranded RNA template with one or more oligonucleotides whose sequences are completely or partially complementary to the segment of the single-stranded RNA template that is amplified, wherein the one or more oligonucleotides hybridize to more than 48% of the segment of the single-stranded RNA template that is amplified; and c) reverse transcribing and amplifying the segment of the single-stranded RNA template under reaction conditions whereby the one or more oligonucleotides do not interfere with reverse transcription and amplification and whereby each one oligonucleotide from the one or more oligonucleotides is characterized by being between 11 nucleotides and 50 nucleotides in length and having a melting temperature that is at least 5°C lower than an extension temperature used during amplification, and wherein the sequence of each one oligonucleotide from the one or more oligonucleotides does not overlap with the sequence of another oligonucleotide from the one or more oligonucleotides; and the one or more oligonucleotides are present at a concentration that is at least fifty-fold lower than concentrations of primers and probes used during reverse transcription and amplification.
A focusing lens for focussing a charged particle beam onto a specimen characterized by: an auxiliary electrode having an essentially planar electrode surface adapted to focus the charged particle beam at a tilted landing angle; whereby said essentially planar electrode surface includes an auxiliary electrode angle with the optical axis of the focusing lens that is smaller than 80 degrees. an auxiliary electrode having an essentially planar electrode surface adapted to focus the charged particle beam at a tilted landing angle; whereby said essentially planar electrode surface includes an auxiliary electrode angle with the optical axis of the focusing lens that is smaller than 80 degrees.
A method of providing real time audio in a multi-point videoconferencing system comprising at least two videoconferencing endpoints (lOla, 101b, 101c) in communication with a multipoint control unit, MCU,, wherein the method comprising - capturing one or more input lossless digital audio streams (102a, 102b, 102c) by each of the at least two videoconferencing endpoints (101a, lOlb, lOlc); - transmitting the one or more input lossless digital audio streams (102a, 102b, 102c) from each of the at least two videoconferencing endpoints (lOla, 101b, 101c) to the MCU using a frame size in the range 0.25 ms - 3 ms; - mixing, by the MCU, the one or more input lossless digital audio streams (102a, 102b, 102c) from each of the at least two videoconferencing endpoints (lOla, 101b, 101c) into a plurality of output lossless digital audio streams (103a, 103b, 103c); - transmitting, by the MCU, a different one of the plurality of output lossless digital audio streams (103a, 103b, 103c) to each of the at least two videoconferencing endpoints (lOla, 101b, 101c) using a frame size in the range 0.25 ms - 3 ms; and - playback the plurality of output lossless digital audio streams (103a, 103b, 103c) by each of the at least two videoconferencing endpoints (lOla, lOlb, lOlc). - capturing one or more input lossless digital audio streams (102a, 102b, 102c) by each of the at least two videoconferencing endpoints (101a, lOlb, lOlc); - transmitting the one or more input lossless digital audio streams (102a, 102b, 102c) from each of the at least two videoconferencing endpoints (lOla, 101b, 101c) to the MCU using a frame size in the range 0.25 ms - 3 ms; - mixing, by the MCU, the one or more input lossless digital audio streams (102a, 102b, 102c) from each of the at least two videoconferencing endpoints (lOla, 101b, 101c) into a plurality of output lossless digital audio streams (103a, 103b, 103c); - transmitting, by the MCU, a different one of the plurality of output lossless digital audio streams (103a, 103b, 103c) to each of the at least two videoconferencing endpoints (lOla, 101b, 101c) using a frame size in the range 0.25 ms - 3 ms; and - playback the plurality of output lossless digital audio streams (103a, 103b, 103c) by each of the at least two videoconferencing endpoints (lOla, lOlb, lOlc).
Sensor for recording the occupancy of seating and reclining furniture having a seat or recliner cushion consisting of a housing and a cover arranged to be movable thereto, wherein at least one spring element is arranged between housing and cover, and which has a trigger unit, which is connected to a transmitter, characterised in that the trigger unit consists of an actuator, which interacts with at least two levers, which are pivotably arranged in the housing and are under the influence of one of the spring elements, respectively, and which abut against the cover with a contact element and that the contact element is designed to be annular in such a manner that a 360° triggering is possible.
Pressurized gas tank receiving assembly for a motor vehicle for cooling pressurized gas tanks, wherein the pressurized gas tank receiving assembly includes: a main body which is thermally conductive and has a mounting interface for arrangement on a counter mounting interface of a body of the motor vehicle; a pressurized gas tank for storing gas under high pressure, wherein the pressurized gas tanks are thermally conductive, characterized in that the main body has a multiplicity of channel-shaped receiving surfaces for accommodating the pressurized gas tanks, wherein the main body has thermally conductive surfaces for the thermally communicating connection with the body, and the pressurized gas tanks for thermal communication are accommodated by the main body in a form-fitting manner on the channel-shaped receiving surfaces of the main body.
Device for handling plastic parisons with a storage device which serves for storing a plurality of plastic parisons and with at least one transport device (3, 4, 5, 6, 7, 8) which transports the plastic parisons along a predetermined transport path from the storage device to a processing device, characterised in that at least one portion of the storage device and of the transport path is enclosed by a housing device (20, 22, 24, 25, 26, 27, 28) and an application device (34, 52, 54) is provided which applies a flowable and in particular gaseous medium to an interior of this housing device (20, 22, 24, 25, 26, 27, 28).
System for authenticating a user having a means for authentication in an authentication unit, said authentication means comprising means for storing at least one state variable and a generator of a single-use access code that can be actuated when requested by the user, said access code comprising at least one non-foreseeable portion and being transmitted to the authentication unit for validation, this validation authenticating the user in the authentication unit, characterised - in that said state variable is updated randomly by and on the initiative of said authentication means, systematically and before each generation of a new access code, - in that said generator is suitable for calculating said access code by using said at least one state variable once the latter has been updated, - and in that said authentication unit is suitable for modifying the value of at least one internal state variable during the at least partial validation of said access code by using, for this purpose, information previously known by said authentication unit and the non-foreseeable portion conveyed by the transmitted access code. - in that said state variable is updated randomly by and on the initiative of said authentication means, systematically and before each generation of a new access code, - in that said generator is suitable for calculating said access code by using said at least one state variable once the latter has been updated, - and in that said authentication unit is suitable for modifying the value of at least one internal state variable during the at least partial validation of said access code by using, for this purpose, information previously known by said authentication unit and the non-foreseeable portion conveyed by the transmitted access code.
A channel information display method of an image display apparatus including a screen and a storage unit, the method comprising: displaying an image from a selected channel on one region of the screen; receiving images from a plurality of channels; storing the received images in the storage unit; executing a channel information function for displaying the stored images from the plurality of channels simultaneously on multiple regions of the screen; and displaying a cursor on one of the multiple regions of the screen for displaying the stored images; displaying, on the one region of the screen, an image from a channel corresponding to said one of the multiple regions wherein the region of the screen having the cursor located thereon has its size gradually increased with respect to an entire size of the screen as time lapses, and when a preset time lapses under a state the cursor is displayed on said region, the channel corresponding to the said region is set as a main channel, wherein, in the step of receiving, the ratio of time taken to receive an image corresponding to a region of the screen having a cursor located increases with respect to the ratio of time taken to receive an image corresponding to a region wi-thout a cursor. displaying an image from a selected channel on one region of the screen; receiving images from a plurality of channels; storing the received images in the storage unit; executing a channel information function for displaying the stored images from the plurality of channels simultaneously on multiple regions of the screen; and displaying a cursor on one of the multiple regions of the screen for displaying the stored images; displaying, on the one region of the screen, an image from a channel corresponding to said one of the multiple regions wherein the region of the screen having the cursor located thereon has its size gradually increased with respect to an entire size of the screen as time lapses, and when a preset time lapses under a state the cursor is displayed on said region, the channel corresponding to the said region is set as a main channel, wherein, in the step of receiving, the ratio of time taken to receive an image corresponding to a region of the screen having a cursor located increases with respect to the ratio of time taken to receive an image corresponding to a region wi-thout a cursor.
A method performed by a wireless transmit/receive unit, WTRU, for providing physical layer resources to a plurality of medium access control, MAC, instances, the method comprising: utilizing, by the WTRU, a first physical layer configuration for sending a first transmission to a first serving site in accordance with a first uplink grant received from the first serving site, wherein a first MAC instance is associated with a first group of one or more cells served by the first serving site; utilizing, by the WTRU, a second physical layer configuration for sending a second transmission to a second serving site in accordance with a second uplink grant received from the second serving site, wherein a second MAC instance is associated with a second group of one or more cells served by the second serving site; and allocating, by the WTRU, at least a portion of transmission power between the first transmission associated with the first MAC instance sent to the first serving site and the second transmission associated with the second MAC instance sent to the second serving site based on a plurality of priority rules, wherein a first priority rule comprises prioritizing transmissions associated with cells corresponding to a primary MAC instance over transmissions associated with cells corresponding to a secondary MAC instance, a second priority rule comprises prioritizing transmissions that include uplink control information, UCI, over transmissions that do not include UCI, and a third priority rule comprises prioritizing transmissions including a first type of UCI over transmissions including a second type of UCI. utilizing, by the WTRU, a first physical layer configuration for sending a first transmission to a first serving site in accordance with a first uplink grant received from the first serving site, wherein a first MAC instance is associated with a first group of one or more cells served by the first serving site; utilizing, by the WTRU, a second physical layer configuration for sending a second transmission to a second serving site in accordance with a second uplink grant received from the second serving site, wherein a second MAC instance is associated with a second group of one or more cells served by the second serving site; and allocating, by the WTRU, at least a portion of transmission power between the first transmission associated with the first MAC instance sent to the first serving site and the second transmission associated with the second MAC instance sent to the second serving site based on a plurality of priority rules, wherein a first priority rule comprises prioritizing transmissions associated with cells corresponding to a primary MAC instance over transmissions associated with cells corresponding to a secondary MAC instance, a second priority rule comprises prioritizing transmissions that include uplink control information, UCI, over transmissions that do not include UCI, and a third priority rule comprises prioritizing transmissions including a first type of UCI over transmissions including a second type of UCI.
A rotary handle construction of an electrical switch comprises: a rotary handle being turnable around a first pivot axis (Y-Y) between at least an open- and a closed-position, a locking latch being adapted into the rotary handle and being turnable around a second pivot axis (X-X) between a locked-position and a released-position, a bottom ring being fixed in relation to the rotary handle, a first locking pin also being adapted into the rotary handle and being movable in the longitudinal direction with the locking latch between a first position and a second position, in which first position the first locking pin allows turning of the rotary handle in relation to the bottom ring and in which second position the first locking pin prevents turning of the rotary handle in relation to the bottom ring by protruding into a first opening in the bottom ring, characterized in that a second locking pin has been adapted into the rotary handle, the second locking pin being movable in its longitudinal direction between a first position and a second position, in which first position the second locking pin allows turning of the locking latch between the locked-position and the released-position and in which second position the second locking pin prevents the locking latch to be turned into the locked-position. a rotary handle being turnable around a first pivot axis (Y-Y) between at least an open- and a closed-position, a locking latch being adapted into the rotary handle and being turnable around a second pivot axis (X-X) between a locked-position and a released-position, a bottom ring being fixed in relation to the rotary handle, a first locking pin also being adapted into the rotary handle and being movable in the longitudinal direction with the locking latch between a first position and a second position, in which first position the first locking pin allows turning of the rotary handle in relation to the bottom ring and in which second position the first locking pin prevents turning of the rotary handle in relation to the bottom ring by protruding into a first opening in the bottom ring, characterized in that a second locking pin has been adapted into the rotary handle, the second locking pin being movable in its longitudinal direction between a first position and a second position, in which first position the second locking pin allows turning of the locking latch between the locked-position and the released-position and in which second position the second locking pin prevents the locking latch to be turned into the locked-position.
An antenna unit comprising: a dielectric substrate; a dielectric cover on the dielectric substrate; an antenna array including antenna elements arranged in the dielectric substrate, and configured to form traveling waves propagating in the dielectric substrate and the dielectric cover; and at least one spatial matching element arranged in space formed inside the dielectric substrate, spatially matched with the dielectric cover, and coupled with at least one of the antenna elements, wherein the spatial matching element is configured to be spatially matched with the antenna array with the dielectric cover and to reduce reflections of traveling waves propagating from the antenna array to the dielectric cover. a dielectric substrate; a dielectric cover on the dielectric substrate; an antenna array including antenna elements arranged in the dielectric substrate, and configured to form traveling waves propagating in the dielectric substrate and the dielectric cover; and at least one spatial matching element arranged in space formed inside the dielectric substrate, spatially matched with the dielectric cover, and coupled with at least one of the antenna elements, wherein the spatial matching element is configured to be spatially matched with the antenna array with the dielectric cover and to reduce reflections of traveling waves propagating from the antenna array to the dielectric cover.