mhurhangee/ep-ind-claims huggingface dataset:
A method for processing a resource description file, comprising: receiving an access request directed to a target page sent by a client terminal, and after forwarding the access request to an origin server, receiving the resource description file fed back by the origin server with respect to the access request; identifying one or more resource links included in the resource description file and determining whether the identified one or more resource links include one or more external links, and if the one or more external links are included, rewriting an external link of the one or more external links to an internal link and using the internal link formed by rewriting the external link to replace the corresponding external link in the resource description file; wherein, the internal link formed by rewriting the external link includes a preset specified resource path, the specified resource path is configured for distinguishing an original internal link and the internal link formed by rewriting the external link; and feeding back a rewritten resource description file to the client terminal, such that the client terminal acquires resource of the target page according to the rewritten resource description file. receiving an access request directed to a target page sent by a client terminal, and after forwarding the access request to an origin server, receiving the resource description file fed back by the origin server with respect to the access request; identifying one or more resource links included in the resource description file and determining whether the identified one or more resource links include one or more external links, and if the one or more external links are included, rewriting an external link of the one or more external links to an internal link and using the internal link formed by rewriting the external link to replace the corresponding external link in the resource description file; wherein, the internal link formed by rewriting the external link includes a preset specified resource path, the specified resource path is configured for distinguishing an original internal link and the internal link formed by rewriting the external link; and feeding back a rewritten resource description file to the client terminal, such that the client terminal acquires resource of the target page according to the rewritten resource description file.
A method for requesting resources for transmitting data on uplink within a mobile communication system utilizing an uplink scheme comprising transmissions on a scheduled shared channel and a contention-based channel, the method comprising the following steps performed by the mobile terminal: transmitting a resource request to a network entity responsible for resource allocation via a contention-based channel; and receiving, in response to the resource request, a resource allocation message granting resources for transmitting data via the scheduled shared channel, characterised in that the bandwidth the mobile terminal is allowed to utilize for transmitting the resource request is configured by control signaling received from a radio access network of the mobile communication system. transmitting a resource request to a network entity responsible for resource allocation via a contention-based channel; and receiving, in response to the resource request, a resource allocation message granting resources for transmitting data via the scheduled shared channel, characterised in that the bandwidth the mobile terminal is allowed to utilize for transmitting the resource request is configured by control signaling received from a radio access network of the mobile communication system.
A method for controlling feedback of Channel State Information, CSI, in a 3D-Multiple Input Multiple Output, 3D-MIMO, system, the method comprising: determining, by a base station, that a User Equipment, UE, needs to be controlled to feed back the CSI, wherein the CSI at least comprises a first Pre-coding Matrix Indicator, PMI, and/or a second PMI, the first PMI and the second PMI correspond to the same pre-coding matrix; wherein the same pre-coding matrix corresponds to multiple antennas having two-dimension antenna structure and configured in the base station; wherein the same pre-coding matrix comprises a first codebook corresponding to a vertical dimension of the multiple antennas, and a second codebook corresponding to a horizontal dimension of the multiple antennas; wherein the first PMI is used for indicating a precoder in the first codebook and the second PMI is used for indicating a precoder in the second codebook; and transmitting, by the base station, trigger signaling to the UE to trigger feedback of the CSI, wherein the trigger signaling comprises indication information for instructing the UE whether to feed back the first PMI and/or the second PMI. determining, by a base station, that a User Equipment, UE, needs to be controlled to feed back the CSI, wherein the CSI at least comprises a first Pre-coding Matrix Indicator, PMI, and/or a second PMI, the first PMI and the second PMI correspond to the same pre-coding matrix; wherein the same pre-coding matrix corresponds to multiple antennas having two-dimension antenna structure and configured in the base station; wherein the same pre-coding matrix comprises a first codebook corresponding to a vertical dimension of the multiple antennas, and a second codebook corresponding to a horizontal dimension of the multiple antennas; wherein the first PMI is used for indicating a precoder in the first codebook and the second PMI is used for indicating a precoder in the second codebook; and transmitting, by the base station, trigger signaling to the UE to trigger feedback of the CSI, wherein the trigger signaling comprises indication information for instructing the UE whether to feed back the first PMI and/or the second PMI.
A docking apparatus, comprising a processor and a plurality of photosensitive components electrically connected to the processor, wherein: the processor is configured to determine, from the plurality of photosensitive components, a photosensitive component that receives a laser light, wherein the laser light is emitted by an opposite-end apparatus to be docked with the docking apparatus; and the processor is configured to control, based on a positional deviation between the photosensitive component that receives the laser light and a target photosensitive component, the docking apparatus to move to a docking position calibrated by the target photosensitive component, so that the docking apparatus docks with the opposite-end apparatus, wherein the docking position is a position where the target photosensitive component receives the laser light emitted by the opposite-end apparatus. the processor is configured to determine, from the plurality of photosensitive components, a photosensitive component that receives a laser light, wherein the laser light is emitted by an opposite-end apparatus to be docked with the docking apparatus; and the processor is configured to control, based on a positional deviation between the photosensitive component that receives the laser light and a target photosensitive component, the docking apparatus to move to a docking position calibrated by the target photosensitive component, so that the docking apparatus docks with the opposite-end apparatus,
A method of monitoring the operation of a radiation source fuel droplet stream generator comprising a fuel-containing capillary and a piezo-electric actuator attached to said capillary, the method comprising analysing the resonance frequency spectrum of a system comprising the fuel-containing capillary and the piezo-electric actuator.
An apparatus for fabricating a graphene membrane, comprising: a first section having a first outer wall and a first fluid chamber for housing a suspension of graphene platelets in a fluid; a second section having a second outer wall, a second fluid chamber, and a porous support housed in the second fluid chamber for supporting a porous substrate, wherein the first section is positioned to sandwich a porous substrate between the first section and the second section with the first outer wall bearing against the second outer wall via the porous substrate and with the porous substrate supported by the porous support, to place the first fluid chamber and the second fluid chamber in fluid communication via the porous substrate; a pressurizer for creating a pressure differential between the first fluid chamber and the second fluid chamber and thereby forcing the fluid through the porous substrate and into the second fluid chamber and lodging the graphene platelets in the pores of the porous substrate to yield a graphene membrane that comprises the porous substrate with the graphene platelets lodged in the pores of the porous substrate. a first section having a first outer wall and a first fluid chamber for housing a suspension of graphene platelets in a fluid; a second section having a second outer wall, a second fluid chamber, and a porous support housed in the second fluid chamber for supporting a porous substrate, wherein the first section is positioned to sandwich a porous substrate between the first section and the second section with the first outer wall bearing against the second outer wall via the porous substrate and with the porous substrate supported by the porous support, to place the first fluid chamber and the second fluid chamber in fluid communication via the porous substrate; a pressurizer for creating a pressure differential between the first fluid chamber and the second fluid chamber and thereby forcing the fluid through the porous substrate and into the second fluid chamber and lodging the graphene platelets in the pores of the porous substrate to yield a graphene membrane that comprises the porous substrate with the graphene platelets lodged in the pores of the porous substrate.
A square baler comprising: a frame; a feed assembly coupled to the frame; an auger housing defining a volume therein, wherein the volume of the auger housing is configured to receive crop material from the feed assembly during operation; and the auger housing defines an auger housing axis extending along the length of the auger housing proximate its center; a first and a second auger (164a, 164b), each of which at least partially positioned within the volume and rotatable with respect to the auger housing, wherein the first auger is rotatable about a first axis, and the second auger is rotatable about a second axis, characterized in that, the first axis and the second axis extend lengthwise along the direction of the auger housing and the first and second auger (164a, 164b) form an auger inlet plane, wherein the auger inlet plane is oriented perpendicular to the auger housing axis and aligned with a front end of the first and second auger (164a, 164b).
An irradiation device for insertion into an orifice of the body to provide photodynamic therapy, the device comprising: a housing moulded from a resilient material and adapted to be fully inserted and secured in the orifice, the housing enclosing an LED lamp system and a power source for powering the LED lamp system; wherein the device is independently operational while located in the orifice; characterised in that: the housing comprises a first housing part for holding the power source and a second housing part for holding the LED lamp system, the first and second housing parts (2, 4) being separable and preferably being formed separately from the LED lamp system; and in that the first housing part consists of a chamber for holding the power source and an opening into the chamber is provided through a resilient opening part, wherein the chamber is closed when the first housing part is joined to the second housing part.
Container comprising leak-tight walls for containing a liquid, one of the walls forming the bottom of the container, the bottom of the container comprising a plurality of partition walls (C 1, C 2, C 3) bounding zones (Z 1, Z 2, Z 3, Z 4) between them successively enclosed one within the other, each of the zones being in communication with an adjacent enclosed zone through a passageway (P 12, P 23, P 34) comprising a threshold (S 12, S 23, S 34), characterized in that: - the threshold in the passageway between a zone and an adjacent enclosed zone comprises a low point in the said zone and a high point in the adjacent enclosed zone, and, - for a given zone, the passageway between the said given zone and the zone in which the said given zone is enclosed and the passageway between the said given zone and the zone enclosed in the said given zone are arranged within angular sectors bounded by imaginary geometrical angles (a) which are opposite to each other at the summit, the summit (s) being located at the lowest level zone in the container (Z 4), the said angles (a) being less than 45°, preferably less than 30° and even more preferably less than 15°. - the threshold in the passageway between a zone and an adjacent enclosed zone comprises a low point in the said zone and a high point in the adjacent enclosed zone, and, - for a given zone, the passageway between the said given zone and the zone in which the said given zone is enclosed and the passageway between the said given zone and the zone enclosed in the said given zone are arranged within angular sectors bounded by imaginary geometrical angles (a) which are opposite to each other at the summit, the summit (s) being located at the lowest level zone in the container (Z 4), the said angles (a) being less than 45°, preferably less than 30° and even more preferably less than 15°.
A sheet stacking device comprising: a hopper unit on which box making sheet material is stacked; an ejection unit that ejects the box making sheet material to the hopper unit; a first blowing device that is disposed above the downstream side of the hopper unit in the transfer direction of the box making sheet material and that presses the box making sheet material downward by blowing air; a second blowing device that is disposed above an upstream side of the hopper unit in the transfer direction of the box making sheet material and that presses the box making sheet material downward by blowing air; and a control device that controls an operation of the first blowing device pressing a front end of the box making sheet material downward, characterised in that the control device further controls an operation of the second blowing device so as to press the rear end of the box making sheet material downward with a pressing force higher than that applied to the front end of the box making sheet material, wherein the second blowing device includes a plurality of blowing ports (63, 64, 65) which are aligned along the transfer direction of the box making sheet material and a plurality of damper mechanisms (66, 67, 68) which open and close the plurality of blowing ports (63, 64, 65), and the control device sequentially opens the plurality of damper mechanisms (66, 67, 68) from the upstream side in the transfer direction of the box making sheet material. a hopper unit on which box making sheet material is stacked; an ejection unit that ejects the box making sheet material to the hopper unit; a first blowing device that is disposed above the downstream side of the hopper unit in the transfer direction of the box making sheet material and that presses the box making sheet material downward by blowing air; a second blowing device that is disposed above an upstream side of the hopper unit in the transfer direction of the box making sheet material and that presses the box making sheet material downward by blowing air; and a control device that controls an operation of the first blowing device pressing a front end of the box making sheet material downward, characterised in that the control device further controls an operation of the second blowing device so as to press the rear end of the box making sheet material downward with a pressing force higher than that applied to the front end of the box making sheet material, wherein the second blowing device includes a plurality of blowing ports (63, 64, 65) which are aligned along the transfer direction of the box making sheet material and a plurality of damper mechanisms (66, 67, 68) which open and close the plurality of blowing ports (63, 64, 65), and the control device sequentially opens the plurality of damper mechanisms (66, 67, 68) from the upstream side in the transfer direction of the box making sheet material.
A carbon nanofiber aggregate having a maximum void volume P1 (cm 3 /g) at a pore diameter of 2,500 nm or more and 100,000 nm or less and a maximum void volume P2 (cm 3 /g) at a pore diameter of 6 nm or more and less than 2,500 nm in pore distribution data measured by mercury porosimetry, wherein the maximum void volume P1 and the maximum void volume P2 satisfy relationships of the following formulae and; 0.01 ≤ P 1 ≤ 1 0 < P 1 / P 2 ≤ 3.3 and wherein the carbon nanofiber aggregate comprises carbon nanofibers and at least one selected from the group consisting of a modified rosin, a styrene-based resin, an olefin-based resin, and an acrylic acid-based resin; wherein the carbon nanofiber aggregate comprises 100 parts by mass of the component, 0.1 to 50 parts by mass of the component and 0.01 to 30 parts by mass of a surfactant. carbon nanofibers and at least one selected from the group consisting of a modified rosin, a styrene-based resin, an olefin-based resin, and an acrylic acid-based resin;
A terminal selection method based on a self-organizing network, SON, comprising: determining, by a SON algorithm entity, a terminal selection criterion according to a requirement of implementing different SON algorithms, characterized in that the requirement of implementing different SON algorithms comprises at least one of the following: an objective fulfillment time limit of a SON algorithm, a cell type which includes macrocell or picocell, a cell service type categorized into multiple service types according to quality requirements of the cell services, a cell load condition, and an interference-received-by-cell condition; and performing, by the SON algorithm entity, selection of a target terminal to be implemented in a SON algorithm from managed terminals according to the terminal selection criterion, wherein the terminal selection criterion is for selecting a number of target terminals, or a percentage value of the target terminals in all terminals in a cell. determining, by a SON algorithm entity, a terminal selection criterion according to a requirement of implementing different SON algorithms, characterized in that the requirement of implementing different SON algorithms comprises at least one of the following: an objective fulfillment time limit of a SON algorithm, a cell type which includes macrocell or picocell, a cell service type categorized into multiple service types according to quality requirements of the cell services, a cell load condition, and an interference-received-by-cell condition; and performing, by the SON algorithm entity, selection of a target terminal to be implemented in a SON algorithm from managed terminals according to the terminal selection criterion, wherein the terminal selection criterion is for selecting a number of target terminals, or a percentage value of the target terminals in all terminals in a cell.
A method for providing a drowsiness alert to a driver of a vehicle, the method comprising: - collecting current drive context data for the vehicle including driver behavior data for said driver, and a driving duration for the driver; - collecting traffic situation data indicative of at least a traffic intensity level for said vehicle and the time of the day, - determining a position of said vehicle, wherein said current drive context data, said traffic situation data, and said position form a drowsiness estimate data set, - providing the drowsiness estimate data set to a remote server, - determining, on said server, a drowsiness risk measure based on comparing said drowsiness estimate data set to historical drowsiness data including previously collected drowsiness estimate data sets from a plurality of vehicles and associated determined degree of drowsiness of the respective driver when the previous drowsiness estimate data sets were collected in the plurality of vehicles, wherein the determined degree of drowsiness was determined by a drowsiness detection system in the respective vehicle, - receiving, by said vehicle from said remote server, the drowsiness risk measure, and - based on at least said drowsiness risk measure, providing a drowsiness alert to said driver. - collecting current drive context data for the vehicle including driver behavior data for said driver, and a driving duration for the driver; - collecting traffic situation data indicative of at least a traffic intensity level for said vehicle and the time of the day, - determining a position of said vehicle, wherein said current drive context data, said traffic situation data, and said position form a drowsiness estimate data set, - providing the drowsiness estimate data set to a remote server, - determining, on said server, a drowsiness risk measure based on comparing said drowsiness estimate data set to historical drowsiness data including previously collected drowsiness estimate data sets from a plurality of vehicles and associated determined degree of drowsiness of the respective driver when the previous drowsiness estimate data sets were collected in the plurality of vehicles, wherein the determined degree of drowsiness was determined by a drowsiness detection system in the respective vehicle, - receiving, by said vehicle from said remote server, the drowsiness risk measure, and - based on at least said drowsiness risk measure, providing a drowsiness alert to said driver.
Method for producing a higher-strength, non-grain-oriented electrical strip, wherein a slab is cast from a molten mass, the slab is hot-rolled and then cold-rolled with a degree of deformation between 60 % and 85 % and the cold strip is annealed to achieve a partially recrystallized structure with a degree of recrystallization between 5 % and 95 % to set strength values ReH ranging from 450 MPa to 850 MPa at an annealing temperature of 600 °C to 800 °C for 60 s to 300 s, wherein segregation zones are formed in the structure, wherein the electrical strip has the following chemical analysis: C <0.01 wt% Si 2 wt% - 3.5 wt% Al 0.1 wt% - 2.0 wt%, more particularly 0.1 wt% to 1.5 wt% Mn 0.1 wt% - 1 wt% P 0.01 wt% - 0.2 wt% S <0.01 wt% wherein the segregation zones are formed in the slab by the silicon content >2 %, wherein the recrystallization is delayed by the segregations in the zones with elevated Si content by comparison with the other zones, characterized in that recrystallization takes place in near-surface, low-silicon zones as a result of annealing of the cold-rolled strip at 600 °C - 800 °C for 60 s to 300 s, whereas segregation zones with elevated silicon content are found in a recovered and non-crystallized state.