mhurhangee/patent-ind-claim-en huggingface dataset:
Adjustment drive for a motor-adjustable steering column for a motor vehicle, comprising a transmission with a drive assembly , in which a drive wheel is mounted which can be driven in rotation about a drive axis (A) and which is in operative engagement with a transmission wheel which is mounted in a transmission assembly and which is connected to a threaded spindle or a spindle nut of a spindle drive, wherein the drive assembly and the gear assembly have joining portions directed towards one another and are connected to one another by at least one joining connection , characterised in in that the drive assembly and/or the transmission assembly have at least one elastic clamping element for clamping the drive assembly and the transmission assembly in the region of the joint connection , the clamping element being designed to clamp the joint sections against one another.
A method for securing a network, comprising: using one or more information sources to identify one or more devices on a first network ; the method further comprising: determining that a particular one of the identified devices is bridging the first network and a second network , the second network comprising an ad hoc wireless network established between the particular one of the identified devices and a second wirelessly-enabled device ; and determining whether the second device communicating via the second network with the particular one of the identified devices is authorized to be bridged to the first network , wherein one or more of said information sources are location aware wireless sensors capable of determining the physical position of the one or more devices . using one or more information sources to identify one or more devices on a first network ; the method further comprising: determining that a particular one of the identified devices is bridging the first network and a second network , the second network comprising an ad hoc wireless network established between the particular one of the identified devices and a second wirelessly-enabled device ; and determining whether the second device communicating via the second network with the particular one of the identified devices is authorized to be bridged to the first network , determining that a particular one of the identified devices is bridging the first network and a second network , the second network comprising an ad hoc wireless network established between the particular one of the identified devices and a second wirelessly-enabled device ; and determining whether the second device communicating via the second network with the particular one of the identified devices is authorized to be bridged to the first network , wherein one or more of said information sources are location aware wireless sensors capable of determining the physical position of the one or more devices .
A locking system, in particular for access and/or driving authorization for a motor vehicle in the form of a keyless entry/go functionality, with a first device which is embodied as a control device having at least two states, such as a control device for unlocking and/or locking the car doors , the ignition lock, the steering wheel lock, for releasing and/or locking the immobilizer or the engine control unit, and with an associated second device which is embodied in the form of an electronic key, an ID transmitter, or a chip card, wherein the two devices comprise transmitting and/or receiving units for the transmission of in particular electromagnetic signals for their intended operation, at least one of the signals transmitted between the second device and the first device being in particular a coded operating signal for authenticating the second device , so that, after positive evaluation of the transmitted operating signal, a change can be effected in the state of the first device if the second device is authorized, and wherein the transmitting and/or receiving unit has an antenna for transmitting the signals , the transmitting and/or receiving unit for the first device comprising two antennas , a signal distributor in the manner of a power splitter is provided for the two antennas , and wherein the transmitting and/or receaiving unit is connected to the two antennas by means of the signal distributor , characterized in that the two antennas are arranged so as to be spatially separated, and that a first antenna of the two antennas is associated with the inner region as an inner antenna and a second antenna of the two antennas is associated with the outer region as an outer antenna .
A method of forming an article by 3D printing comprising: printing a first 3D printed region having a first radiopacity from a first polymerizable formulation (S801); printing a second 3D printed region having a second radiopacity from a second polymerizable formulation, wherein the first radiopacity is greater than the second radiopacity (S802); polymerizing the first polymerizable formulation and the second polymerizable formulation; wherein the first formulation is a flowable liquid formulation for 3D printing comprising: from 0.1 to 25 wt.% radiopaque particles, wherein at least 50% by weight of the particles have a diameter of at most 100 nm, as determined by light scattering measurement; and monomeric, oligomeric and/or polymeric precursors adapted for polymerization to form a solidified article. printing a first 3D printed region having a first radiopacity from a first polymerizable formulation (S801); printing a second 3D printed region having a second radiopacity from a second polymerizable formulation, wherein the first radiopacity is greater than the second radiopacity (S802); polymerizing the first polymerizable formulation and the second polymerizable formulation; wherein the first formulation is a flowable liquid formulation for 3D printing comprising: from 0.1 to 25 wt.% radiopaque particles, wherein at least 50% by weight of the particles have a diameter of at most 100 nm, as determined by light scattering measurement; and monomeric, oligomeric and/or polymeric precursors adapted for polymerization to form a solidified article. from 0.1 to 25 wt.% radiopaque particles, wherein at least 50% by weight of the particles have a diameter of at most 100 nm, as determined by light scattering measurement; and monomeric, oligomeric and/or polymeric precursors adapted for polymerization to form a solidified article.
A method for wireless communication, wherein the method is performed by a user equipment, UE, and comprises: identifying a spreading code of a plurality of spreading codes configured for a plurality of UEs including the UE and for spreading a first set of modulation symbols of uplink control information, wherein the plurality of spreading codes are orthogonal cover codes that are orthogonal from each other; identifying a second set of modulation symbols of the uplink control information for a symbol period of an uplink slot, wherein the second set of modulation symbols is a repetition of the first set of modulation symbols; obtaining a set of spread modulation symbols by spreading the first and second sets of modulation symbols, including multiplying the first set of modulation symbols with a first scalar of the spreading code and multiplying the second set of modulation symbols with a second scalar of the spreading code; performing a discrete Fourier transform, DFT, spreading process on the set of spread modulation symbols, the DFT spreading process generating a set of frequency domain symbols, wherein the respective spreading codes are selected such that uplink transmissions from different ones of the plurality of UEs are orthogonal in the frequency domain after the DFT spreading process; and transmitting a time-domain waveform obtained from the set of frequency domain symbols to a serving base station in the symbol period of the uplink slot. identifying a spreading code of a plurality of spreading codes configured for a plurality of UEs including the UE and for spreading a first set of modulation symbols of uplink control information, wherein the plurality of spreading codes are orthogonal cover codes that are orthogonal from each other; identifying a second set of modulation symbols of the uplink control information for a symbol period of an uplink slot, wherein the second set of modulation symbols is a repetition of the first set of modulation symbols; obtaining a set of spread modulation symbols by spreading the first and second sets of modulation symbols, including multiplying the first set of modulation symbols with a first scalar of the spreading code and multiplying the second set of modulation symbols with a second scalar of the spreading code; performing a discrete Fourier transform, DFT, spreading process on the set of spread modulation symbols, the DFT spreading process generating a set of frequency domain symbols, wherein the respective spreading codes are selected such that uplink transmissions from different ones of the plurality of UEs are orthogonal in the frequency domain after the DFT spreading process; and transmitting a time-domain waveform obtained from the set of frequency domain symbols to a serving base station in the symbol period of the uplink slot.
Method for applying a shrink film sleeve to a container , with the following steps: a) perforating the shrink film sleeve at predetermined intervals by means of a perforation device , b) unfolding the perforated shrink film sleeve by means of an unfolding device, in particular an unfolding mandrel , c) transporting the unfolded shrink film sleeve along the unfolding device with a pair of conveyor rollers (4a, b), d) tearing off the shrink film sleeve at the perforation with a downstream pair of dispensing rollers (5a, b) whose transportation speed (V Abreiß ) is at least temporarily greater than the transportation speed (V Förder ) of the pair of conveyor rollers (4a, b), and e) launching the detached shrink film sleeve onto the container , wherein prior to step b), the perforated shrink film sleeve is supplied to a buffer device (III), characterised in that the shrink-film sleeve is launched by the pair of dispensing rollers (5a, b), and that the buffer device (III) is arranged downstream of the perforation device. a) perforating the shrink film sleeve at predetermined intervals by means of a perforation device , b) unfolding the perforated shrink film sleeve by means of an unfolding device, in particular an unfolding mandrel , c) transporting the unfolded shrink film sleeve along the unfolding device with a pair of conveyor rollers (4a, b), d) tearing off the shrink film sleeve at the perforation with a downstream pair of dispensing rollers (5a, b) whose transportation speed (V Abreiß ) is at least temporarily greater than the transportation speed (V Förder ) of the pair of conveyor rollers (4a, b), and e) launching the detached shrink film sleeve onto the container ,
Display device (1; 101) comprising: an imaging plane (2; 103) configured to controllably display an image, a backplane located behind the imaging plane (2; 103), a number of sound actuators (4; 104, 105) configured to produce vibrations based on a driving signal , and at least one mechanical coupling element for every sound actuator (4; 104, 105) configured to mechanically couple the imaging plane (2; 103) through the backplane with the sound actuators (4; 104, 105); wherein the mechanical coupling elements each comprise a number of support rods (306-1 to 306-3), which on one end couple to the respective sound actuator (4; 104, 105) and on the other end couple to the imaging plane (2; 103); wherein the backplane comprises holes (8-1 to 8-3) for the support rods (306-1 to 306-3) which have an inner contour which is spaced apart by a predetermined distance from the outer contour of the support rods (306-1 to 306-3). an imaging plane (2; 103) configured to controllably display an image, a backplane located behind the imaging plane (2; 103), a number of sound actuators (4; 104, 105) configured to produce vibrations based on a driving signal , and at least one mechanical coupling element for every sound actuator (4; 104, 105) configured to mechanically couple the imaging plane (2; 103) through the backplane with the sound actuators (4; 104, 105); wherein the mechanical coupling elements each comprise a number of support rods (306-1 to 306-3), which on one end couple to the respective sound actuator (4; 104, 105) and on the other end couple to the imaging plane (2; 103); wherein the backplane comprises holes (8-1 to 8-3) for the support rods (306-1 to 306-3) which have an inner contour which is spaced apart by a predetermined distance from the outer contour of the support rods (306-1 to 306-3).
A battery pack , comprising: a battery module having at least one battery cell; a pack case having a case body for accommodating the battery module and a case cover having a bottom portion, the case cover being welded to the case body to package the battery module ; and at least one weldability checking guider provided on the case body of the pack case to check accuracy of the welding between the case cover and the case body , wherein the case cover is coupled to an upper rim of the case body by means of the welding, and wherein the at least one weldability checking guider is formed on the upper rim of the case body , wherein the at least one weldability checking guider includes a plurality of dimension carved portions formed with a predetermined length along a horizontal direction of the case body and disposed to be spaced apart from each other by a predetermined distance along the upper rim in the vertical direction of the case body , wherein the plurality of dimension carved portions are formed to have at least two different lengths, and wherein the dimension carved portions having different lengths are arranged alternately. a battery module having at least one battery cell; a pack case having a case body for accommodating the battery module and a case cover having a bottom portion, the case cover being welded to the case body to package the battery module ; and at least one weldability checking guider provided on the case body of the pack case to check accuracy of the welding between the case cover and the case body , wherein the case cover is coupled to an upper rim of the case body by means of the welding, and wherein the at least one weldability checking guider is formed on the upper rim of the case body , wherein the at least one weldability checking guider includes a plurality of dimension carved portions formed with a predetermined length along a horizontal direction of the case body and disposed to be spaced apart from each other by a predetermined distance along the upper rim in the vertical direction of the case body , wherein the plurality of dimension carved portions are formed to have at least two different lengths, and wherein the dimension carved portions having different lengths are arranged alternately.
A tractor comprising at least two wheels each included at a lateral side of a tractor frame, the tractor provided with adaptation means for adapting the lateral position of a wheel relative to said frame, a wheel being suspended from the frame by a laterally extendable wheel support system, the support system thereto comprising a first part connected to the frame, and a moveable part connected to a wheel and telescopically moveable relative to said first part, wherein each of said at least two wheels is provided with a separate support system, wherein the moveable parts of the support system are incorporated in the extendable support system one behind the other as taken in longitudinal direction of the tractor frame, in which a drive member for a wheel is arranged pivotable, characterised in that a wheel is suspended by the outer end of the moveable part, the support system comprising a bifurcated end part, the drive member arranged pivotable within the bifurcated end part of the moveable support part.
A photochromic polyrotaxane compound which is a polyrotaxane compound comprising an axial molecule and a plurality of cyclic molecules clathrating the axial molecule, wherein a side chain containing a photochromic moiety is bonded to at least one of the cyclic molecules and wherein the cyclic molecules are cyclodextrin rings.
An implantable system , comprising: an atrial leadless pacemaker (aLP) configured to be implanted in or on an atrial chamber; and a ventricular leadless pacemaker (vLP) configured to be implanted in or on a ventricular chamber; the aLP configured to: determine an atrial-to-atrial interval (AA interval) for an atrial event, wherein the AA interval comprises a duration between the atrial event and an immediately preceding atrial event; characterized in that the aLP is further configured to: determine whether or not a variation associated with the AA interval is within a specified tolerance, and based thereon, determine whether or not an atrial event message should be transmitted to the vLP to inform the vLP of the atrial event; abstain from transmitting the atrial event message to the vLP, when there is a determination that the atrial event message should not be transmitted to the vLP, to thereby abstain from informing the vLP of the atrial event; and transmit the atrial event message to the vLP, when there is a determination that the atrial event message should be transmitted to the vLP, to thereby inform the vLP of the atrial event. an atrial leadless pacemaker (aLP) configured to be implanted in or on an atrial chamber; and a ventricular leadless pacemaker (vLP) configured to be implanted in or on a ventricular chamber; the aLP configured to: determine an atrial-to-atrial interval (AA interval) for an atrial event, wherein the AA interval comprises a duration between the atrial event and an immediately preceding atrial event; abstain from transmitting the atrial event message to the vLP, when there is a determination that the atrial event message should not be transmitted to the vLP, to thereby abstain from informing the vLP of the atrial event; and transmit the atrial event message to the vLP, when there is a determination that the atrial event message should be transmitted to the vLP, to thereby inform the vLP of the atrial event.
A method in a first network node for monitoring inactive mode coverage for a user equipment in a wireless communication network , wherein a plurality of network nodes operate in the wireless communication network , the first network node is a serving network node for the user equipment and the user equipment has an active mode connection to the first network node , the method comprising: receiving an inactive mode coverage monitoring report comprising a synchronization signals, SSs, monitoring report or a system information, SI, signal monitoring report; analyzing the inactive mode coverage monitoring report; and determining whether the user equipment has inactive mode coverage based on the outcome of analysing the inactive mode coverage monitoring report; when it is determined from the monitoring report analysis that the user equipment does not have inactive mode coverage, the method further comprising any one of: sending an indication to the user equipment for informing the user equipment of no inactive mode coverage; or releasing the connection to the user equipment ; or indicating to the user equipment that the connection will be released after a timer has expired. receiving an inactive mode coverage monitoring report comprising a synchronization signals, SSs, monitoring report or a system information, SI, signal monitoring report; analyzing the inactive mode coverage monitoring report; and determining whether the user equipment has inactive mode coverage based on the outcome of analysing the inactive mode coverage monitoring report; when it is determined from the monitoring report analysis that the user equipment does not have inactive mode coverage, the method further comprising any one of: sending an indication to the user equipment for informing the user equipment of no inactive mode coverage; or releasing the connection to the user equipment ; or indicating to the user equipment that the connection will be released after a timer has expired. sending an indication to the user equipment for informing the user equipment of no inactive mode coverage; or releasing the connection to the user equipment ; or indicating to the user equipment that the connection will be released after a timer has expired.
A method for producing a comminuted dry material from a coarse material, preferably slag, such as blast furnace slag, or coal, such as black coal, lignite or brown coal, the method comprising the steps of: (a) providing a heated drying gas from a drying gas source ; (b) providing the coarse material in a storage bin ; (c) feeding said coarse material and said heated drying gas into a comminuting equipment ; (d) comminuting and drying said coarse material within said comminuting equipment to obtain a comminuted dry material; (e) collecting a mixture of drying gas and comminuted dry material from the comminuting equipment and feeding the mixture to a separator to separate the comminuted dry material from the drying gas; characterized in that it further comprises the step of (f) recycling at least part of the drying gas from step (e) as a preconditioning gas and feeding said preconditioning gas into a lower part of said storage bin to precondition the coarse material. (a) providing a heated drying gas from a drying gas source ; (b) providing the coarse material in a storage bin ; (c) feeding said coarse material and said heated drying gas into a comminuting equipment ; (d) comminuting and drying said coarse material within said comminuting equipment to obtain a comminuted dry material; (e) collecting a mixture of drying gas and comminuted dry material from the comminuting equipment and feeding the mixture to a separator to separate the comminuted dry material from the drying gas; characterized in that it further comprises the step of (f) recycling at least part of the drying gas from step (e) as a preconditioning gas and feeding said preconditioning gas into a lower part of said storage bin to precondition the coarse material.
Apparatus for steam reforming , wherein the apparatus for steam reforming comprises a reactor , a condensate separator , a condensate stripper and a steam boiler , wherein the reactor is designed to produce hydrogen, wherein the reactor is connected to the condensate separator in such a way that the gas mixture produced is conducted from the reactor into the condensate separator , wherein the condensate separator and the condensate stripper are connected to each other in such a way that the condensate separated out in the condensate separator is conducted into the condensate stripper , wherein the condensate separator and the steam boiler are connected to each other in such a way that cleaned condensate from the condensate stripper can be conducted into the steam boiler , wherein the steam boiler is connected to the reactor in a steam-conducting manner, wherein the steam boiler is connected to the condensate stripper in a steam-conducting manner, characterized in that the boiler water feed line of the steam boiler is connectable to the condensate stripper in a liquid-conducting manner, wherein the supply from the boiler water feed line of the steam boiler is at the same place of the condensate stripper as the supply of the condensate from the condensate separator .