mhurhangee/patent-ind-claim-en huggingface dataset:
Control method used in a variable speed drive for starting a synchronous electric motor (M) provided with a rotor and connected by output phases to said variable speed drive, said method being characterised in that it includes steps of: • applying as an input a reference speed (ωs) according to a predefined continuous speed profile, said speed profile beginning with a zero initial value, followed by a slope increasing to a maximum value and then a slope decreasing to a zero final value, to rotate the rotor of said motor, • determining a reference position (θs) from the reference speed applied as an input, • determining a voltage (Vdq) in a reference frame rotating at the speed of the electric motor, from the reference speed applied as an input, • determining control voltages (Va, Vb, Vc) to be applied to each output phase according firstly to the determined reference position and secondly to said voltage determined in the rotating reference frame, • applying control voltages (Va, Vb, Vc) to each output phase to obtain an alignment of the position of the rotor of said motor on the reference position (θs). • applying as an input a reference speed (ωs) according to a predefined continuous speed profile, said speed profile beginning with a zero initial value, followed by a slope increasing to a maximum value and then a slope decreasing to a zero final value, to rotate the rotor of said motor, • determining a reference position (θs) from the reference speed applied as an input, • determining a voltage (Vdq) in a reference frame rotating at the speed of the electric motor, from the reference speed applied as an input, • determining control voltages (Va, Vb, Vc) to be applied to each output phase according firstly to the determined reference position and secondly to said voltage determined in the rotating reference frame, • applying control voltages (Va, Vb, Vc) to each output phase to obtain an alignment of the position of the rotor of said motor on the reference position (θs).
A device for timepieces comprising a monolithic mechanism which comprises: - a support ; - at least one inertial regulating member ; - an elastic suspension linking said at least one inertial regulating member (29, 30; 118) to the support and having a specific overall stiffness; where said at least one inertial regulating member (29, 30; 118) is suited to oscillate at a frequency f relative to the support ; wherein the elastic suspension comprises an elastic adjustment link (36, 55; 155) having a first end linked to said at least one inertial regulating member (29, 30; 118) and a second end which is connected to the support by a frequency adjustment device (53; 153) suited to modify the position of the second end of said elastic adjustment link (36, 55; 155) relative to the support , so as to change the overall stiffness of the elastic suspension and therefore said frequency f, and wherein the monolithic mechanism additionally comprises a pallet suited for engaging with an energy distribution member provided with teeth and intended to be urged by an energy storage device , where said pallet is controlled by said at least one inertial regulating member (29, 30; 118) for uniformly and alternately blocking and releasing the energy distribution member , such that said energy distribution member moves stepwise under the urging of said energy storage device according to a repetitive movement cycle, and where said pallet is suited for transferring said mechanical energy to at least one inertial regulating member (29, 30; 118) during this repetitive movement cycle. - a support ; - at least one inertial regulating member ; - an elastic suspension linking said at least one inertial regulating member (29, 30; 118) to the support and having a specific overall stiffness; where said at least one inertial regulating member (29, 30; 118) is suited to oscillate at a frequency f relative to the support ; wherein the elastic suspension comprises an elastic adjustment link (36, 55; 155) having a first end linked to said at least one inertial regulating member (29, 30; 118) and a second end which is connected to the support by a frequency adjustment device (53; 153) suited to modify the position of the second end of said elastic adjustment link (36, 55; 155) relative to the support , so as to change the overall stiffness of the elastic suspension and therefore said frequency f, and wherein the monolithic mechanism additionally comprises a pallet suited for engaging with an energy distribution member provided with teeth and intended to be urged by an energy storage device , where said pallet is controlled by said at least one inertial regulating member (29, 30; 118) for uniformly and alternately blocking and releasing the energy distribution member , such that said energy distribution member moves stepwise under the urging of said energy storage device according to a repetitive movement cycle, and where said pallet is suited for transferring said mechanical energy to at least one inertial regulating member (29, 30; 118) during this repetitive movement cycle.
Floor assembly for an aircraft, comprising: - a multiplicity of supports which are configured to be fastened in pairs to opposite sides of a frame of the aircraft ; and - a monolithic, self-supporting floor element consisting of at least two longitudinal members , a floor plate arranged on the longitudinal members and a respective connecting element arranged at each end of each of the longitudinal members , wherein each of the multiplicity of supports has a horizontal supporting surface , which is dimensioned in such a manner that one or two connecting elements can rest thereon, and absorbs vertical loads of the one or of the two connecting elements resting thereon and transmits said loads into the frame , wherein the floor element is fastened exclusively to the frame by placing of each connecting element on at least one portion of the supporting surface of a corresponding support and by fastening of each connecting element to the corresponding support , and wherein the floor plate extends in the direction of the longitudinal members at least between two supports fastened in pairs. - a multiplicity of supports which are configured to be fastened in pairs to opposite sides of a frame of the aircraft ; and - a monolithic, self-supporting floor element consisting of at least two longitudinal members , a floor plate arranged on the longitudinal members and a respective connecting element arranged at each end of each of the longitudinal members , wherein each of the multiplicity of supports has a horizontal supporting surface , which is dimensioned in such a manner that one or two connecting elements can rest thereon, and absorbs vertical loads of the one or of the two connecting elements resting thereon and transmits said loads into the frame , wherein the floor element is fastened exclusively to the frame by placing of each connecting element on at least one portion of the supporting surface of a corresponding support and by fastening of each connecting element to the corresponding support , and wherein the floor plate extends in the direction of the longitudinal members at least between two supports fastened in pairs. wherein each of the multiplicity of supports has a horizontal supporting surface , which is dimensioned in such a manner that one or two connecting elements can rest thereon, and absorbs vertical loads of the one or of the two connecting elements resting thereon and transmits said loads into the frame , wherein the floor element is fastened exclusively to the frame by placing of each connecting element on at least one portion of the supporting surface of a corresponding support and by fastening of each connecting element to the corresponding support , and wherein the floor plate extends in the direction of the longitudinal members at least between two supports fastened in pairs.
A method for wireless communication, comprising: transmitting a request for a retransmission of one or more code blocks, CBs, of a received transmission; receiving control information that indicates allocated resources for the retransmission of the one or more CBs according to a first repetition level that includes at least two retransmissions of each of the one or more CBs, wherein the allocated resources provide time diversity and frequency diversity for the retransmissions and wherein a number of retransmissions of the first repetition level is dependent upon a number of CBs to be retransmitted; and monitoring the allocated resources for the retransmission of the one or more CBs. transmitting a request for a retransmission of one or more code blocks, CBs, of a received transmission; receiving control information that indicates allocated resources for the retransmission of the one or more CBs according to a first repetition level that includes at least two retransmissions of each of the one or more CBs, wherein the allocated resources provide time diversity and frequency diversity for the retransmissions and wherein a number of retransmissions of the first repetition level is dependent upon a number of CBs to be retransmitted; and monitoring the allocated resources for the retransmission of the one or more CBs.
A modified human IgG1 comprising an Fc region comprising amino acid substitutions at two or more of positions 432 to 437, numbered according to the EU numbering index of Kabat, relative to a human wild-type Fc region; wherein (i) positions 432 and 437 are each substituted with cysteine; (ii) position 433 is histidine or is substituted with arginine, proline, threonine, lysine, serine, alanine, methionine, or asparagine; (iii) position 434 is asparagine or is substituted with arginine, tryptophan, histidine, phenylalanine, tyrosine, serine, methionine or threonine; (iv) position 435 is histidine or is substituted with histidine; and (v) position 436 is tyrosine or phenylalanine or is substituted with leucine, arginine, isoleucine, lysine, methionine, valine, histidine, serine, or threonine; and wherein the modified human IgG1 has an increased half-life compared to the half-life of an IgG1 having the human wild-type Fc region. (i) positions 432 and 437 are each substituted with cysteine; (ii) position 433 is histidine or is substituted with arginine, proline, threonine, lysine, serine, alanine, methionine, or asparagine; (iii) position 434 is asparagine or is substituted with arginine, tryptophan, histidine, phenylalanine, tyrosine, serine, methionine or threonine; (iv) position 435 is histidine or is substituted with histidine; and (v) position 436 is tyrosine or phenylalanine or is substituted with leucine, arginine, isoleucine, lysine, methionine, valine, histidine, serine, or threonine; and
Tamping unit for tamping a track bed of a track system , wherein the tamping unit has a longitudinal direction that essentially extends in the direction of a longitudinal extent of the track system , wherein the tamping unit has at least one displacement device , on which at least one carrier box is arranged, wherein multiple tamping picks , which can be adjusted in the direction of their longitudinal axes and pivoted in the longitudinal direction , are arranged on the carrier box , wherein the tamping picks are arranged in at least two rows that are spaced apart from one another and extend transverse to the longitudinal direction , wherein at least one tamping pick of one of the rows and at least one tamping pick of an adjacent row essentially are aligned in the longitudinal direction , and wherein at least one of the essentially aligned tamping picks can be pivoted in the longitudinal direction independently of the other essentially aligned tamping pick , characterized in that the tamping picks respectively are guided in the direction of their longitudinal axis in a carrier , which is arranged on the carrier box and on which a first drive for adjusting the tamping pick in the direction of its longitudinal axis is arranged, and can be adjusted in the direction of their longitudinal axis independently of one another, and in that each of the carriers is pivotably mounted on the carrier box and the tamping picks can be pivoted in the longitudinal direction by means of additional drives connected to the carriers.
A method comprising generating , by a source wireless access network node for a user equipment UE , a plurality of security configurations, wherein each security configuration of the plurality of security configurations is associated with a different respective candidate target wireless access network node in a set of candidate target wireless access network nodes; sending , by the source wireless access network node, each security configuration of the plurality of security configurations to the respective candidate target wireless access network node; and sending , by the source wireless access network node, security information of the plurality of security configurations to the UE. sending , by the source wireless access network node, each security configuration of the plurality of security configurations to the respective candidate target wireless access network node; and sending , by the source wireless access network node, security information of the plurality of security configurations to the UE.
A supported catalyst comprising at least one metal from Group 6, alternatively referred to as Group VIB, of the Periodic Table of the Elements, at least one metal from Groups 8, 9 or 10, alternatively referred to as Group VIII, of the Periodic Table of the Elements, and optionally comprising phosphorous, wherein said metals, and phosphorous when present, are carried on a foraminous carrier or support, said carrier or support having a total pore volume (TPV) of 0.6 cc/g to 1.1 cc/g and comprising: (a) equal to or greater than 78% to 95% of TPV in pores having a diameter of less than 200 Angstroms (Å); (b) greater than 2% to less than 19% of TPV in pores having a diameter of 200 Å to less than 1000 Å; (c) equal to or greater than 3% to less than 10% of TPV in pores having a diameter equal to or greater than 1000 Å; and (d) a pore mode equal to or greater than 90 Å and less than 160 Å; and wherein said foraminous carrier or support exhibits a unimodal pore size distribution exhibiting a single discernible peak in the distribution measured using mercury porosimetry. (a) equal to or greater than 78% to 95% of TPV in pores having a diameter of less than 200 Angstroms (Å); (b) greater than 2% to less than 19% of TPV in pores having a diameter of 200 Å to less than 1000 Å; (c) equal to or greater than 3% to less than 10% of TPV in pores having a diameter equal to or greater than 1000 Å; and (d) a pore mode equal to or greater than 90 Å and less than 160 Å; and
A method of handling data traffic in a data network, the method comprising: a node (120; 800; 900) of the data network receiving data packets ; for at least one of the received data packets , the node (120; 800; 900) determining whether the data packet is a guaranteed data packet which is subject to a guarantee that the data packet is not dropped and not delayed by more than a certain delay limit or a non-guaranteed data packet which is not subject to the guarantee; based on a worst case calculation of a delay experienced by a data packet forwarded by the node (120; 800; 900), the node (120; 800; 900) configuring a resource contingent with a maximum amount of resources which is more than a minimum amount of resources required to meet the guarantee; the node (120; 800; 900) assigning resources to the resource contingent and identifying resources in excess of the minimum amount as excess resources; in response to determining that the data packet is a non-guaranteed data packet and determining that sufficient excess resources are present, the node (120; 800; 900) forwarding the non-guaranteed data packet based on the excess resources, otherwise dropping the non-guaranteed data packet ; and in response to determining that the data packet is a guaranteed data packet, the node (120; 800; 900) forwarding the guaranteed data packet based on the resources from the resource contingent. a node (120; 800; 900) of the data network receiving data packets ; for at least one of the received data packets , the node (120; 800; 900) determining whether the data packet is a guaranteed data packet which is subject to a guarantee that the data packet is not dropped and not delayed by more than a certain delay limit or a non-guaranteed data packet which is not subject to the guarantee; based on a worst case calculation of a delay experienced by a data packet forwarded by the node (120; 800; 900), the node (120; 800; 900) configuring a resource contingent with a maximum amount of resources which is more than a minimum amount of resources required to meet the guarantee; the node (120; 800; 900) assigning resources to the resource contingent and identifying resources in excess of the minimum amount as excess resources; in response to determining that the data packet is a non-guaranteed data packet and determining that sufficient excess resources are present, the node (120; 800; 900) forwarding the non-guaranteed data packet based on the excess resources, otherwise dropping the non-guaranteed data packet ; and in response to determining that the data packet is a guaranteed data packet, the node (120; 800; 900) forwarding the guaranteed data packet based on the resources from the resource contingent.
Method of accessing in a telecommunication network a Network Based Personal Data Storage, NB-PDS, associated with a User Equipment, UE, , said method using at least a control server and a Personal Data Storage Server, PDSS, enabling access to said NB-PDS , said method comprising the steps of: - transmitting , by said UE , to said control server , an indication of supporting NB-PDS functionality; - retrieving , by said control server , in response to receiving said indication, an Access Point Name, APN, of an access point server , for accessing said PDSS through a data bearer connection in said telecommunication network ; - establishing , under control of said control server , said data bearer connection between said UE and said access point server ; - establishing , under control of said access point server , a data connection between said UE and said PDSS over said data bearer connection providing data access by said UE to said associated NB-PDS , and - presenting , by said UE , a file directory of said associated NB-PDS in a file directory structure of said UE , characterized in that said telecommunication network comprises said control server and said PDSS , wherein said telecommunication network is a telecommunication network under control of a telecommunication network operator and not including a public based data network like the internet, and wherein said PDSS is a subscription database comprising subscription records of UEs and only accessible via said telecommunication network . - transmitting , by said UE , to said control server , an indication of supporting NB-PDS functionality; - retrieving , by said control server , in response to receiving said indication, an Access Point Name, APN, of an access point server , for accessing said PDSS through a data bearer connection in said telecommunication network ; - establishing , under control of said control server , said data bearer connection between said UE and said access point server ; - establishing , under control of said access point server , a data connection between said UE and said PDSS over said data bearer connection providing data access by said UE to said associated NB-PDS , and - presenting , by said UE , a file directory of said associated NB-PDS in a file directory structure of said UE , characterized in that said telecommunication network comprises said control server and said PDSS , wherein said telecommunication network is a telecommunication network under control of a telecommunication network operator and not including a public based data network like the internet, and wherein said PDSS is a subscription database comprising subscription records of UEs and only accessible via said telecommunication network .
Method of operating an oscillation device for a continuous casting mould for producing a cast strip , preferably of metal, comprising the following steps: oscillating the continuous casting mould with a stroke plot over at least one period, characterised in that the stroke plot is determined as follows: - predetermining a desired periodic speed plot for the oscillation over the period; - calculating the surface areas of the positive and negative part areas, which are included by the speed plot and the x axis within the period, above and below the x axis; - checking whether the surface areas of the positive and negative part areas are of the same size; and - if yes: determining the stroke plot for the continuous casting mould by integration of the speed plot with the same-size part areas above and below the x axis over the period. oscillating the continuous casting mould with a stroke plot over at least one period, characterised in that the stroke plot is determined as follows: - predetermining a desired periodic speed plot for the oscillation over the period; - calculating the surface areas of the positive and negative part areas, which are included by the speed plot and the x axis within the period, above and below the x axis; - checking whether the surface areas of the positive and negative part areas are of the same size; and - if yes: - predetermining a desired periodic speed plot for the oscillation over the period; - calculating the surface areas of the positive and negative part areas, which are included by the speed plot and the x axis within the period, above and below the x axis; - checking whether the surface areas of the positive and negative part areas are of the same size; and - if yes: determining the stroke plot for the continuous casting mould by integration of the speed plot with the same-size part areas above and below the x axis over the period.
A solar concentrator for a solar energy system, the solar concentrator comprising: four primary off-axis quarter-section parabolic reflectors defining a primary mirror for reflecting incident light; four secondary off-axis quarter-section parabolic reflectors defining a secondary mirror for receiving light reflected from the primary off-axis quarter-section parabolic reflectors; four compound paraboloid concentrators for receiving light reflected from the secondary off-axis quarter-section parabolic reflectors; and a housing for holding the primary and secondary off-axis parabolic reflectors as well as the four compound paraboloid concentrators. four primary off-axis quarter-section parabolic reflectors defining a primary mirror for reflecting incident light; four secondary off-axis quarter-section parabolic reflectors defining a secondary mirror for receiving light reflected from the primary off-axis quarter-section parabolic reflectors; four compound paraboloid concentrators for receiving light reflected from the secondary off-axis quarter-section parabolic reflectors; and a housing for holding the primary and secondary off-axis parabolic reflectors as well as the four compound paraboloid concentrators.