mhurhangee/ep-ind-claims huggingface dataset:
A pilot resource allocation method in a Long Term Evolution, LTE, communication system in an evolution of the LTE subsequent to Rel-8/9/10, characterized by comprising: determining the number of resource elements, REs, that are allocated to and occupied by a demodulation pilot signal, DMRS, in a resource block pair, according to an aggregation level of an enhanced control channel element, E-CCE, in the resource block pair, and a number of E-CCEs multiplexed in the resource block pair; if each E-CCE is transmitted by using one antenna port, and a total number of E-CCEs in the resource block pair is 4, correspondence between the aggregation level of the E-CCE and the number of REs that are allocated to and occupied by the DMRS in the resource block pair being that: when the aggregation level of the E-CCE is 1, 2, 4 and 8, the number of REs that are allocated to and occupied by the DMRS in the resource block pair is allocated to be 24, 24, 12 and 12, respectively; or if each E-CCE is transmitted by using two antenna ports, and a number of E-CCEs multiplexed in the resource block pair is 2, correspondence between the aggregation level of the E-CCE and the number of REs that are allocated to and occupied by the DMRS in the resource block pair being that: when the aggregation level of the E-CCE is 1, 2, 4 and 8, the number of REs that are allocated to and occupied by the DMRS in the resource block pair is allocated to be 24, 12, 12 and 12, respectively. determining the number of resource elements, REs, that are allocated to and occupied by a demodulation pilot signal, DMRS, in a resource block pair, according to an aggregation level of an enhanced control channel element, E-CCE, in the resource block pair, and a number of E-CCEs multiplexed in the resource block pair; if each E-CCE is transmitted by using one antenna port, and a total number of E-CCEs in the resource block pair is 4, correspondence between the aggregation level of the E-CCE and the number of REs that are allocated to and occupied by the DMRS in the resource block pair being that: when the aggregation level of the E-CCE is 1, 2, 4 and 8, the number of REs that are allocated to and occupied by the DMRS in the resource block pair is allocated to be 24, 24, 12 and 12, respectively; or if each E-CCE is transmitted by using two antenna ports, and a number of E-CCEs multiplexed in the resource block pair is 2, correspondence between the aggregation level of the E-CCE and the number of REs that are allocated to and occupied by the DMRS in the resource block pair being that: when the aggregation level of the E-CCE is 1, 2, 4 and 8, the number of REs that are allocated to and occupied by the DMRS in the resource block pair is allocated to be 24, 12, 12 and 12, respectively.
Rotary swather with a machine frame extending in the travel and working direction, on which a front coupling device is provided for a connection to an agricultural tractor and a running gear for support on the ground, with at least one rotary rake arranged on each side of the machine frame and driven around a vertical axis, which rotary rake can be moved from a working position parallel to the floor to and from an at least approximately vertical transport position by means of a support arm which is variable in length and which is arranged at least approximately transversely to the machine frame, each support arm being pivotably mounted on the machine frame about a support arm pivot axis Inclined at an acute angle relative to a horizontal plane, a drive device being provided to drive the rotary rake, which drive device is formed with a transfer case and one drive shaft each, said drive shaft extending from the transfer case to the rotary rakes, the transfer case being attached to the machine frame In a position above the rotary rakes, the angle of Inclination of the support arm pivot axis being limited to a range from 5° to 15°, a change In height of the rotary rakes relative to the running gear of the rotary swather that is necessary when guiding the rotary rakes over uneven ground in the field or meadow resulting in a change in length In an overlap of the sliding profiles of the drive shafts, the angle of inclination (α) of the support arm pivot axis being designed such that the quotient of the change in length of the drive shafts and the extent of the required height change does not exceed a predetermined limit, characterised In that the transfer case is attached to the machine frame at a distance of 30% to 75% of the outer diameter of the rotary rake in front of the centre axis of the rotary rake and in that, In the event that a change in height in the range of ± 250 mm Is necessary, a quotient of a change in length of the drive shafts and the extent of the required change in height does not exceed a limit of 8% or 4% or less.
A tire comprising: a tread portion being provided with a pair of crown main grooves extending continuously in a zigzag manner in a tire circumferential direction and a pair of shoulder main grooves extending continuously in a zigzag manner in the tire circumferential direction, the shoulder main grooves being arranged outwardly of the crown main grooves in a tire axial direction; and the pair of crown main grooves having a number of zigzag pitches in a range of from 0.21 to 0.32 times a number of zigzag pitches of the pair of shoulder main grooves, wherein the tread portion is sectioned into a crown land portion, a pair of middle land portions and a pair of shoulder land portions by the pair of crown main grooves and the pair of shoulder main grooves, characterized in that each of the shoulder land portions is provided with shoulder lateral grooves connecting the shoulder main groove and a tread edge (Te) and shoulder sipes extending from the shoulder main groove toward the tread edge (Te), the shoulder sipes are in communication with first outer peak points of an axially outer groove edge of the shoulder main groove. a tread portion being provided with a pair of crown main grooves extending continuously in a zigzag manner in a tire circumferential direction and a pair of shoulder main grooves extending continuously in a zigzag manner in the tire circumferential direction, the shoulder main grooves being arranged outwardly of the crown main grooves in a tire axial direction; and the pair of crown main grooves having a number of zigzag pitches in a range of from 0.21 to 0.32 times a number of zigzag pitches of the pair of shoulder main grooves, wherein the tread portion is sectioned into a crown land portion, a pair of middle land portions and a pair of shoulder land portions by the pair of crown main grooves and the pair of shoulder main grooves, characterized in that each of the shoulder land portions is provided with shoulder lateral grooves connecting the shoulder main groove and a tread edge (Te) and shoulder sipes extending from the shoulder main groove toward the tread edge (Te), the shoulder sipes are in communication with first outer peak points of an axially outer groove edge of the shoulder main groove.
A patient support apparatus comprising: a seat section; a backrest section, the backrest section movable relative to the seat section; and an arm supported relative to the seat section, and the arm being adapted to move between a first position adjacent the seat section for use as an arm rest for a person sitting on the patient support apparatus to a raised second position adjacent the backrest section, and the arm and the backrest section being decoupled when the arm is in its first position and coupled together when the arm is in the raised second position wherein the arm moves with the backrest section when the arm and backrest section are coupled together. a seat section; a backrest section, the backrest section movable relative to the seat section; and an arm supported relative to the seat section, and the arm being adapted to move between a first position adjacent the seat section for use as an arm rest for a person sitting on the patient support apparatus to a raised second position adjacent the backrest section, and the arm and the backrest section being decoupled when the arm is in its first position and coupled together when the arm is in the raised second position wherein the arm moves with the backrest section when the arm and backrest section are coupled together.
Armrest device for a vehicle seat, in particular for a flight passenger seat, with an armrest that is connected to a seat component via an articulation unit pivotably around a pivot axis, with a locking unit for locking the articulation unit, comprising a support unit provided for movably supporting the armrest, characterised in that the locking unit comprises a blocking element provided for avoiding, in at least one operating state, a translation of the armrest with respect to the seat component.
A method for reserving a portion of subscriber data allocation for a future data session, the method comprising: transmitting a request for reservation message from user equipment using a command-and-control protocol; providing an acknowledgement to the request for reservation message, the acknowledgement including data representing a query for parameters associated with the request; providing an indication of the parameters of the request in response to the query; determining the validity of the indicated parameters for the request; and in the event that the indicated parameters for the request are valid, reserving a portion of subscriber data allocation according to the indicated parameters for the future data session. transmitting a request for reservation message from user equipment using a command-and-control protocol; providing an acknowledgement to the request for reservation message, the acknowledgement including data representing a query for parameters associated with the request; providing an indication of the parameters of the request in response to the query; determining the validity of the indicated parameters for the request; and in the event that the indicated parameters for the request are valid, reserving a portion of subscriber data allocation according to the indicated parameters for the future data session.
An isolated humanized monoclonal antibody or antigen-binding fragment thereof comprising: (i) H-CDR1 having the sequence of FSLTSYGVS; (ii) H-CDR2 having the sequence of GVIWGEGSTNYHSVLISRL; and (iii) H-CDR3 having the sequence AMTGTAY, respectively; and comprising: (iv) L-CDR1 having the sequence of SASSSVSYMH; (v) L-CDR2 having the sequence of DTSKLSS; and (vi) L-CDR3 having the sequence of HQWSSSPHT, respectively, wherein the isolated humanized monoclonal antibody or the antigen-binding fragment further comprises: (i) H-FR1 having the sequence of QVQLQESGPGLVKPSETLSLTCTVSG; (ii) H-FR2 having the sequence of WIRQPPGKGLEWI; (iii) H-FR3 having the sequence of TISKDNSKSQVFLKLNSLQTDDTATYYC; (iv) H-FR4 having the sequence of WGQGTLVTVSS, respectively; and (v) L-FR1 having the sequence of QIVLTQSPAIMSASPGEKVTMTC; (vi) L-FR2 having the sequence of WYQQKPGLAPRLLIY; (vii) L-FR3 having the sequence of GVPGRFSGSGSGTSYSLTISRLEAEDAATYYC, (viii) L-FR4 having the sequence of FGGGTKVEIKR, respectively. (i) H-CDR1 having the sequence of FSLTSYGVS; (ii) H-CDR2 having the sequence of GVIWGEGSTNYHSVLISRL; and (iii) H-CDR3 having the sequence AMTGTAY, respectively; (iv) L-CDR1 having the sequence of SASSSVSYMH; (v) L-CDR2 having the sequence of DTSKLSS; and (vi) L-CDR3 having the sequence of HQWSSSPHT, respectively, (i) H-FR1 having the sequence of QVQLQESGPGLVKPSETLSLTCTVSG; (ii) H-FR2 having the sequence of WIRQPPGKGLEWI; (iii) H-FR3 having the sequence of TISKDNSKSQVFLKLNSLQTDDTATYYC; (iv) H-FR4 having the sequence of WGQGTLVTVSS, respectively; and (v) L-FR1 having the sequence of QIVLTQSPAIMSASPGEKVTMTC; (vi) L-FR2 having the sequence of WYQQKPGLAPRLLIY; (vii) L-FR3 having the sequence of GVPGRFSGSGSGTSYSLTISRLEAEDAATYYC, (viii) L-FR4 having the sequence of FGGGTKVEIKR, respectively.
A pharmaceutical formulation comprising umirolimus encapsulated in a polymer micelle, and a pharmaceutically acceptable excipient, carrier, or diluent, wherein the polymer micelle includes a di-block co-polymer, the di-block co-polymer being polyethyleneglycol-polylactide (PEG-PLA), and the umirolimus is present at 5-40% by weight of the polymer micelle.
A composition having insect and/or arachnid repellent activity: i) consisting of carvacrol and cumin alcohol and optionally an adhesive, a solvent, a wetting agent, an emulsifying agent, a carrier, a diluent, and/or a dispersing agent; ii) comprising carvacrol and cuminic acid; or iii) comprising a) carvacrol, b) cumin alcohol/cuminic acid and c) a compound of formula IV, wherein formula IV is and R 4 is H, CH 3, or an optionally substituted C 1-10 alkyl. i) consisting of carvacrol and cumin alcohol and optionally an adhesive, a solvent, a wetting agent, an emulsifying agent, a carrier, a diluent, and/or a dispersing agent; ii) comprising carvacrol and cuminic acid; or iii) comprising a) carvacrol, b) cumin alcohol/cuminic acid and c) a compound of formula IV, wherein formula IV is and R 4 is H, CH 3, or an optionally substituted C 1-10 alkyl.
A multi-path interference filter, comprising: a first port waveguide; a second port waveguide; and an optical structure connecting the first port waveguide and the second port waveguide, the optical structure having: a first optical path from the first port waveguide to the second port waveguide, and a second optical path, different from the first optical path, from the first port waveguide to the second port waveguide, the first optical path having a portion, having a first length, within hydrogenated amorphous silicon, the second optical path having a portion, having a second length, within crystalline silicon, the second optical path having either no portion within hydrogenated amorphous silicon, or a portion, having a third length, within hydrogenated amorphous silicon, the third length being less than the first length. a first port waveguide; a second port waveguide; and an optical structure connecting the first port waveguide and the second port waveguide, the optical structure having: a first optical path from the first port waveguide to the second port waveguide, and a second optical path, different from the first optical path, from the first port waveguide to the second port waveguide, a first optical path from the first port waveguide to the second port waveguide, and a second optical path, different from the first optical path, from the first port waveguide to the second port waveguide, the first optical path having a portion, having a first length, within hydrogenated amorphous silicon, the second optical path having a portion, having a second length, within crystalline silicon, the second optical path having either no portion within hydrogenated amorphous silicon, or a portion, having a third length, within hydrogenated amorphous silicon, the third length being less than the first length.
A method in a receiver, for iterative channel estimation and data decoding of signals received from a radio network node, comprised in a wireless communication network, characterizing by: detecting a signal of the radio network node; performing channel estimation of the detected signal, based on iterative application of a Space Alternating Generalised Expectation and maximisation, SAGE, algorithm; determining a channel or link quality, based on the performed channel estimation and the estimated channel parameters; selecting Multiple-Input and Multiple-Output, MIMO, detector, based on the determined channel or link quality; determining to enable or disable, respectively, soft-Iterative Channel Estimation, soft-ICE, based on the determined channel or link quality; and iterating the performing channel estimation of the detected signal, determining a channel or link quality, selecting Multiple-Input and Multiple-Output, MIMO, detector and determining to enable or disable respectively, soft-Iterative Channel Estimation, soft-ICE for a predetermined number of times. detecting a signal of the radio network node; performing channel estimation of the detected signal, based on iterative application of a Space Alternating Generalised Expectation and maximisation, SAGE, algorithm; determining a channel or link quality, based on the performed channel estimation and the estimated channel parameters; selecting Multiple-Input and Multiple-Output, MIMO, detector, based on the determined channel or link quality; determining to enable or disable, respectively, soft-Iterative Channel Estimation, soft-ICE, based on the determined channel or link quality; and iterating the performing channel estimation of the detected signal, determining a channel or link quality, selecting Multiple-Input and Multiple-Output, MIMO, detector and determining to enable or disable respectively, soft-Iterative Channel Estimation, soft-ICE for a predetermined number of times.
Basically burr-free PVC profile corner welding machine comprising: - an abutment group comprising an abutment group main body (4.1), a spring (4.2), a bearing (4.3) and a spacer (4.4) enabling the tolerance of errors on the profile dimensions, - at least two movable plates enabling the positioning and movements of the PVC profiles and leaning thereof on the abutment group, - at least two upper compressing groups and compressing rolls enabling the compressing of the PVC profiles from above and the fixation thereof on the movable plates, - a milling cutter group comprising a cutting edge connector shaft (5.1), a cutting edge (5.2), a bedding member (5.3), a main body (5.4), a movement transmitter belt (5.5) and a number 1 servo motor (5.6) enabling the treating of the welding planes of the profiles with cutting tools prior to welding process, - a horizontal channeled resistance enabling the enhancement of welding resistance and prevention of burr formation, - a number 4 servo motor enabling the movements of the at least two movable plates, - a number 3 servo motor enabling the reciprocation of the abutment group, the milling cutter group and the horizontal channeled resistance, and - a number 2 servo motor enabling up-down movement of the abutment group, the milling cutter group and the horizontal channeled resistance. - an abutment group comprising an abutment group main body (4.1), a spring (4.2), a bearing (4.3) and a spacer (4.4) enabling the tolerance of errors on the profile dimensions, - at least two movable plates enabling the positioning and movements of the PVC profiles and leaning thereof on the abutment group, - at least two upper compressing groups and compressing rolls enabling the compressing of the PVC profiles from above and the fixation thereof on the movable plates, - a milling cutter group comprising a cutting edge connector shaft (5.1), a cutting edge (5.2), a bedding member (5.3), a main body (5.4), a movement transmitter belt (5.5) and a number 1 servo motor (5.6) enabling the treating of the welding planes of the profiles with cutting tools prior to welding process, - a horizontal channeled resistance enabling the enhancement of welding resistance and prevention of burr formation, - a number 4 servo motor enabling the movements of the at least two movable plates, - a number 3 servo motor enabling the reciprocation of the abutment group, the milling cutter group and the horizontal channeled resistance, and - a number 2 servo motor enabling up-down movement of the abutment group, the milling cutter group and the horizontal channeled resistance.
A method of controlling a flow enhancement device, comprising: providing a flow enhancement device that is configured stabilize a flow of air near a nacelle, the flow enhancement device having a first setting and a second setting that provides more stabilization than the first setting; monitoring parameters of a turbomachine, for example a gas turbine engine, to determine the stability of the flow of air near the nacelle; and adjusting the flow enhancement device between the first setting and the second setting based on the monitoring, characterised in that the method further includes using the parameters to establish an inlet stability and distortion parameter that quantifies the distortion of the flow of air, and adjusting the flow enhancement device based on the inlet stability and distortion parameter. providing a flow enhancement device that is configured stabilize a flow of air near a nacelle, the flow enhancement device having a first setting and a second setting that provides more stabilization than the first setting; monitoring parameters of a turbomachine, for example a gas turbine engine, to determine the stability of the flow of air near the nacelle; and adjusting the flow enhancement device between the first setting and the second setting based on the monitoring, characterised in that the method further includes using the parameters to establish an inlet stability and distortion parameter that quantifies the distortion of the flow of air, and adjusting the flow enhancement device based on the inlet stability and distortion parameter.
Installation for producing a nonwoven material, comprising - a first endless conveyor for conveying a nonwoven veil, - a drum for hydroentangling the veil, characterized in that - a second endless conveyor is disposed between said first conveyor and said drum and is provided with an aspiration device so as to transfer said veil from said first conveyor to said second conveyor, - said second conveyor is disposed tangentially in respect of said drum and - said aspiration device comprises a micro perforated sleeve, the hole diameter thereof being comprised between 50 and 500 microns. - a first endless conveyor for conveying a nonwoven veil, - a drum for hydroentangling the veil, characterized in that - a second endless conveyor is disposed between said first conveyor and said drum and is provided with an aspiration device so as to transfer said veil from said first conveyor to said second conveyor, - said second conveyor is disposed tangentially in respect of said drum and - said aspiration device comprises a micro perforated sleeve, the hole diameter thereof being comprised between 50 and 500 microns.
A method for producing a substantially spherical metal granules comprising: providing a particulate source metal that is titanium metal, a titanium alloy, or a hydride thereof; mixing the particulate source metal with a polymeric binder and an optional solvent to form a slurry; granulating the slurry by spray drying to form substantially spherical granules, wherein each granule comprises an agglomeration of particulate source metal; debinding the granules at a debinding temperature to reduce a binder content of the granules forming debinded granules; at least partially sintering the debinded granules at a sintering temperature such that particles within each granule sinter together to form fully sintered granules having a relative density greater than 99% or partially sintered granules; and deoxygenating the fully sintered granules or partially sintered granules sufficient to reduce oxygen content to less than 0.3% by weight, wherein the fully sintered granules or partially sintered granules have an average particle aspect ratio less than 1.1- mixing the particulate source metal with a polymeric binder and an optional solvent to form a slurry; granulating the slurry by spray drying to form substantially spherical granules, wherein each granule comprises an agglomeration of particulate source metal; debinding the granules at a debinding temperature to reduce a binder content of the granules forming debinded granules; at least partially sintering the debinded granules at a sintering temperature such that particles within each granule sinter together to form fully sintered granules having a relative density greater than 99% or partially sintered granules; and deoxygenating the fully sintered granules or partially sintered granules sufficient to reduce oxygen content to less than 0.3% by weight, wherein the fully sintered granules or partially sintered granules have an average particle aspect ratio less than 1.1-