mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communication, performed by a User Equipment, comprising: identifying a first TTI duration for at least a first set of transmission time intervals, TTIs, to be used for communications over at least a first component carrier (205-a) and a second component carrier (205-b); identifying a second TTI duration for at least a second set of TTIs to be used for communications over one or more of the first component carrier (205-a) or the second component carrier (205-b), the first TTI duration being shorter than the second TTI duration; and receiving, over the first component carrier (205-a), scheduling information for the second component carrier (205-b), the scheduling information indicating resources for transmissions over at least a subset of the first set of TTIs, wherein receiving the scheduling information comprises: receiving, over the first component carrier (205-a), a first portion of the scheduling information during a first TTI of the second set of TTIs, wherein the first portion of the scheduling information is for two or more TTIs in the first set of TTIs; and receiving, over the second component carrier (205-b), a second portion of the scheduling information during a first TTI of the first set of TTIs, wherein the second portion of the scheduling information is for the first TTI of the first set of TTIs. identifying a first TTI duration for at least a first set of transmission time intervals, TTIs, to be used for communications over at least a first component carrier (205-a) and a second component carrier (205-b); identifying a second TTI duration for at least a second set of TTIs to be used for communications over one or more of the first component carrier (205-a) or the second component carrier (205-b), the first TTI duration being shorter than the second TTI duration; and receiving, over the first component carrier (205-a), scheduling information for the second component carrier (205-b), the scheduling information indicating resources for transmissions over at least a subset of the first set of TTIs, wherein receiving the scheduling information comprises: receiving, over the first component carrier (205-a), a first portion of the scheduling information during a first TTI of the second set of TTIs, wherein the first portion of the scheduling information is for two or more TTIs in the first set of TTIs; and receiving, over the second component carrier (205-b), a second portion of the scheduling information during a first TTI of the first set of TTIs, wherein the second portion of the scheduling information is for the first TTI of the first set of TTIs. receiving, over the first component carrier (205-a), a first portion of the scheduling information during a first TTI of the second set of TTIs, wherein the first portion of the scheduling information is for two or more TTIs in the first set of TTIs; and receiving, over the second component carrier (205-b), a second portion of the scheduling information during a first TTI of the first set of TTIs, wherein the second portion of the scheduling information is for the first TTI of the first set of TTIs.
A contact piece holder for a slip ring assembly of an electromechanical machine or the like, the contact piece holder comprising a holding means, a connection means and a clamping means, the holding means serving for holding the connection means and the clamping means on a machine, the clamping means serving for positioning a contact piece with respect to a slip ring on the machine, the clamping means forming a receptacle for the contact piece, the connection means serving for transferring electric energy to the contact piece, the contact piece being contacted with the slip ring by means of the clamping means by forming a clamping force for transferring electric energy to the slip ring, the receptacle being realized such that the contact piece is mounted on the receptacle on only one end of the contact piece opposite the slip ring, characterized in that the clamping means is realized such that the contact piece is loosely clamped between the receptacle and the slip ring, the receptacle being realized such that the contact piece is moved rotationally in three axes with respect to the slip ring.
A multi-lumen conduit for treating a tissue site with reduced pressure, comprising: a wall comprising a first wall material and a second wall material, the first wall material comprising a substantially non-absorbent material that is vapor impermeable and liquid impermeable, the second wall material comprising an absorbent material that is vapor permeable and liquid impermeable; a primary lumen carried by the wall; and at least one secondary lumen carried by the wall, the second wall material positioned in fluid contact with the at least one secondary lumen, characterised in that, at least a portion of an external surface of the multi-lumen conduit being comprised of the second wall material. a wall comprising a first wall material and a second wall material, the first wall material comprising a substantially non-absorbent material that is vapor impermeable and liquid impermeable, the second wall material comprising an absorbent material that is vapor permeable and liquid impermeable; a primary lumen carried by the wall; and at least one secondary lumen carried by the wall, the second wall material positioned in fluid contact with the at least one secondary lumen, characterised in that, at least a portion of an external surface of the multi-lumen conduit being comprised of the second wall material.
A method of converting and displaying execution screens of a plurality of applications included in a device in which the plurality of applications are executed, the method comprising: displaying an execution screen of a first application from among the plurality of applications; receiving a first external input corresponding to the first application wherein the first external input comprises at least one of an input applied to the execution screen of the first application for a predetermined period of time, an input applied to the execution screen of the first application a predetermined number of times, and an input generated by movement of the device; generating a list of the plurality of applications according to the first external input, wherein the list comprises the execution screens of the plurality of applications, a position of the execution screen of the first application in the list being set as a reference position; displaying a window overlaid on a predetermined region of the execution screen of the first application, wherein the window displays the list; selecting a second application from among the plurality of applications by using the list, the selecting including receiving a second external input in a pre-set direction with respect to the execution screen of the first application on which the window is overlaid and selecting the second application positioned in a direction, which corresponds to the second external input in the pre-set direction, from the reference position of the list; wherein the second application is included in the plurality of applications; and displaying an execution screen of the second application. displaying an execution screen of a first application from among the plurality of applications; receiving a first external input corresponding to the first application wherein the first external input comprises at least one of an input applied to the execution screen of the first application for a predetermined period of time, an input applied to the execution screen of the first application a predetermined number of times, and an input generated by movement of the device; generating a list of the plurality of applications according to the first external input, wherein the list comprises the execution screens of the plurality of applications, a position of the execution screen of the first application in the list being set as a reference position; displaying a window overlaid on a predetermined region of the execution screen of the first application, wherein the window displays the list; selecting a second application from among the plurality of applications by using the list, the selecting including receiving a second external input in a pre-set direction with respect to the execution screen of the first application on which the window is overlaid and selecting the second application positioned in a direction, which corresponds to the second external input in the pre-set direction, from the reference position of the list; wherein the second application is included in the plurality of applications; and displaying an execution screen of the second application.
An electronic control device for a drive unit of a vehicle configured as a self-propelled agricultural harvesting machine with all-wheel drive at least consisting of a main engine, a steering angle sensor for determining a steering angle, a front axle and a rear axle each with ground engaging means (3, 4, 5, 6) disposed thereon, which are engaged with the ground, wherein the vehicle has rear axle steering, characterized in that an adjustment of the relationship between a drive torque transmitted from the ground engaging means (3, 4) of the front axle to the ground and a drive torque transmitted from the ground engaging means (5, 6) of the rear axle to the ground is carried out as a function of the steering angle, wherein the electronic control device controls the drive means in a manner such that an increase in the steering angle, in particular an increase with respect to 0 degrees, leads to an increase in the drive torque transmitted from the ground engaging means (5, 6) of the rear axle to the ground and preferably to a decrease in the drive torque transmitted from the ground engaging means (3, 4) of the front axle to the ground. an adjustment of the relationship between a drive torque transmitted from the ground engaging means (3, 4) of the front axle to the ground and a drive torque transmitted from the ground engaging means (5, 6) of the rear axle to the ground is carried out as a function of the steering angle, wherein the electronic control device controls the drive means in a manner such that an increase in the steering angle, in particular an increase with respect to 0 degrees, leads to an increase in the drive torque transmitted from the ground engaging means (5, 6) of the rear axle to the ground and preferably to a decrease in the drive torque transmitted from the ground engaging means (3, 4) of the front axle to the ground.
Process for manufacturing a polyamide composition comprising at least one step of cold blending or melt blending of a polyamide material with the powder of airbag residues, said residues being production scrap, or off-spec products that are not saleable, or else end-of-life articles or fragments of articles, and said powder being obtained from polyamide-based airbags comprising a silicone-based coating, characterized in that from 15% to 50% by weight of residues relative to the total weight of the composition are blended and in that the powder has a particle size distribution D50 of between 50 and 400 μm, said particle size analysis being carried out with a Malvern Mastersizer 2000 light diffraction particle size analyser equipped with the Hydro S module, after suspending the sample in ethanol, under the following measurement conditions: stirring in the cell of the particle size analyser: 1400 rpm; optical model: Fraunhofer; measurement range: 100 nm to 3000 μm.
A steering system for an engineering vehicle comprising: a hydraulic pump; a steering cylinder (103a, 103b) driven by pressurized oil discharged from the hydraulic pump; a steering valve for controlling the direction and flow rate of the pressurized oil supplied from the hydraulic pump to the steering cylinder; and a steering wheel manipulated by an operator, said steering system switching the steering valve based on the rotational operation of the steering wheel so as to control the steering cylinder, characterized in that said steering system further comprises: front operation detection means for detecting an operational state of a front work device disposed on a vehicle front part of the engineering vehicle; and steering operation control means (5, 6a, 6b, 32, 33a, 33b; 5, 131a, 131b, 132, 133, 29, 24c) for controlling the switching direction and flow rate of the steering valve on the basis of the rotational operation of the steering wheel and the operational state of the front work device detected by said front operation detection means. a hydraulic pump; a steering cylinder (103a, 103b) driven by pressurized oil discharged from the hydraulic pump; a steering valve for controlling the direction and flow rate of the pressurized oil supplied from the hydraulic pump to the steering cylinder; and a steering wheel manipulated by an operator, said steering system switching the steering valve based on the rotational operation of the steering wheel so as to control the steering cylinder, characterized in that said steering system further comprises: front operation detection means for detecting an operational state of a front work device disposed on a vehicle front part of the engineering vehicle; and steering operation control means (5, 6a, 6b, 32, 33a, 33b; 5, 131a, 131b, 132, 133, 29, 24c) for controlling the switching direction and flow rate of the steering valve on the basis of the rotational operation of the steering wheel and the operational state of the front work device detected by said front operation detection means. front operation detection means for detecting an operational state of a front work device disposed on a vehicle front part of the engineering vehicle; and steering operation control means (5, 6a, 6b, 32, 33a, 33b; 5, 131a, 131b, 132, 133, 29, 24c) for controlling the switching direction and flow rate of the steering valve on the basis of the rotational operation of the steering wheel and the operational state of the front work device detected by said front operation detection means.
A method for beam management by a user equipment in a wireless communication system, the method comprising: identifying a plurality of resources corresponding to different transmit (Tx) beams configured for measurement by the UE; measuring a layer one reference signal received power (L1-RSRP) for the plurality of resources; determining a selected Tx beam of the different Tx beams based on the measured L1-RSRP for the plurality of resources, wherein an L1-RSRP value corresponding to the selected Tx beam is measured with a predetermined L1-RSRP accuracy to provide that the selected Tx beam is within a number of largest L1-RSRP values of the measured L1-RSRP of the different Tx beams; and wherein a single sample of L1-RSRP is measured for each of the plurality of resources; and generating a report including an indication of the selected Tx beam and the L1-RSRP value measured with the predetermined L1-RSRP accuracy wherein the plurality of resources is configured as channel state information reference signal (CSI-RS) resources corresponding to the different Tx beams, and wherein the predetermined L1_RSRP accuracy for the CSI-RS transmitted with a density of 3 and a bandwidth of 48 physical resource blocks (PRBs) is ± 4.5dB when the corresponding SNR is at least -3dB. identifying a plurality of resources corresponding to different transmit (Tx) beams configured for measurement by the UE; measuring a layer one reference signal received power (L1-RSRP) for the plurality of resources; determining a selected Tx beam of the different Tx beams based on the measured L1-RSRP for the plurality of resources, wherein an L1-RSRP value corresponding to the selected Tx beam is measured with a predetermined L1-RSRP accuracy to provide that the selected Tx beam is within a number of largest L1-RSRP values of the measured L1-RSRP of the different Tx beams; and wherein a single sample of L1-RSRP is measured for each of the plurality of resources; and generating a report including an indication of the selected Tx beam and the L1-RSRP value measured with the predetermined L1-RSRP accuracy wherein the plurality of resources is configured as channel state information reference signal (CSI-RS) resources corresponding to the different Tx beams, and wherein the predetermined L1_RSRP accuracy for the CSI-RS transmitted with a density of 3 and a bandwidth of 48 physical resource blocks (PRBs) is ± 4.5dB when the corresponding SNR is at least -3dB.
A shower cabin adapted to enclose a shower area, the cabin comprising a front wall with a fixed part having a top edge and a door movable in parallel fashion to itself and to said fixed part between an opening position, in which it overlaps at least partially said fixed part, freeing a passage for permitting a user to enter said shower area, and a closed position in which said passage is blocked, the cabin further comprising guide means for the sliding of said door comprising lower guide means arranged at the base of said door and top guide means it the top area of said front wall, wherein said top guide means comprise first sliding means slidably engaged with a slot formed in said fixed part parallel to said top edge, said first sliding means comprising top wheel means rotatably supported by the door and movable in contact with a lower side of said slot, said lower guide means comprising a socket at the base of said door and second sliding means sliding on said socket, characterized in that said top wheel means project cantilever from a face of said door, external to the shower area, in correspondence with an outlined projection formed coplanarly with the door on a vertical edge of the same door adjacent to said fixed part, said second sliding means comprising wheel means rotatably supported cantilever by said face of said door and movable in contact with said socket, said top and lower wheel means (51,41) being arranged in proximity to diagonally opposed angles of said door.
A communication apparatus configured to communicate with another communication apparatus in a network conforming to NAN, Neighbor Awareness Networking, the communication apparatus comprising: detection means for, while joining a first NAN cluster included among a plurality of NAN clusters, detecting a second NAN cluster included among the plurality of NAN clusters; comparison means for comparing an attribute value of the first NAN cluster with an attribute value of the second NAN cluster; changing means for changing, in a case that the role of the communication apparatus in the first NAN cluster is not Master, a role of the communication apparatus to Master; and transmission means for, in a case where a result of the comparison indicates that the attribute value of the second NAN cluster is lower than the attribute value of the first NAN cluster, transmitting Discovery Beacon indicating an existence of the first NAN cluster to a communication apparatus joining the second NAN cluster. detection means for, while joining a first NAN cluster included among a plurality of NAN clusters, detecting a second NAN cluster included among the plurality of NAN clusters; comparison means for comparing an attribute value of the first NAN cluster with an attribute value of the second NAN cluster; changing means for changing, in a case that the role of the communication apparatus in the first NAN cluster is not Master, a role of the communication apparatus to Master; and transmission means for, in a case where a result of the comparison indicates that the attribute value of the second NAN cluster is lower than the attribute value of the first NAN cluster, transmitting Discovery Beacon indicating an existence of the first NAN cluster to a communication apparatus joining the second NAN cluster.
An absolute encoder that measures an absolute position of an object, the absolute encoder comprising: a scale portion configured so as to be movable along with the object, and including a first track having a first slit formed at a first cycle and a second track having a second slit formed at a second cycle different from the first cycle; a light source configured to illuminate a light onto the first slit and the second slit; a first detector configured to detect a first signal that is obtained from a light reflected on or transmitted through the first slit; a second detector configured to detect a second signal that is obtained from a light reflected on or transmitted through the second slit; and a calculator (25, 27) configured to calculate the absolute position of the object based on the first signal and the second signal, wherein the second slit is formed so that a reflected light intensity or a transmitted light intensity of the light illuminated from the light source is different in accordance with a position in a moving direction of the scale portion, and wherein the calculator is configured to obtain an upper-level signal based on a voltage value of photocurrent obtained by the second detector or an amplitude value of the second signal, to obtain a middle-level signal by performing a vernier calculation using the first signal and the second signal, to obtain a lower-level signal by performing an arctangent calculation using the first signal, and to calculate the absolute position of the object based on the upper-level signal, the middle-level signal and the lower-level signal, wherein an auto power control of the light source is performed based on a received light intensity received by at least one of the first detector and the second detector or an amplitude of a signal obtained from at least one of the first detector and the second detector. a scale portion configured so as to be movable along with the object, and including a first track having a first slit formed at a first cycle and a second track having a second slit formed at a second cycle different from the first cycle; a light source configured to illuminate a light onto the first slit and the second slit; a first detector configured to detect a first signal that is obtained from a light reflected on or transmitted through the first slit; a second detector configured to detect a second signal that is obtained from a light reflected on or transmitted through the second slit; and a calculator (25, 27) configured to calculate the absolute position of the object based on the first signal and the second signal,
A multilayer laminate containing a laminate / formed by directly bonding a layer made of a fluororesin with a functional group (a) and a layer made of a thermoplastic resin with a functional group (b) capable of forming a chemical bond by reacting with the functional group (a) of the fluororesin, wherein the fluororesin has a low melting point of from 140 to 200°C, wherein the fluororesin is an ethylene/tetrafluoroethylene/hexafluoropropylene/CH 2 =CH-Rf (Rf is a C 2-6 perfluoroalkyl group) copolymer, wherein the thermoplastic resin is a polyurethane thermoplastic resin or a polyurethane thermoplastic elastomer, wherein the functional group (a) of the fluororesin is an acid anhydride residue, and wherein the functional group (b) of the thermoplastic resin is an amino group, and wherein the functional group (b) is introduced to the thermoplastic resin by melt-kneading the thermoplastic resin and a compound with the functional group (b), and wherein the content of the functional group (a) in the fluororesin, i.e. (molar amount of functional group (a)/molar amount of the entire repeating units of polymer) x 100%, is from 0.1 to 3 mol%.