mhurhangee/patent-ind-claim-en huggingface dataset:
A method for modulating control data in wireless communications, comprising: determining a plurality of devices wherein the plurality of devices includes a first device and a second device ; allocating certain resources, in the form of OFDM symbols, or portions thereof, for transmitting control data to and/or receiving control data from, the devices, and the plurality of devices are assigned at least a portion of control data resource with the first device and the second device each having an assigned at least one modulation scheme and layer; performing multiple layer modulation utilizing a plurality of modulation schemes comprising control data for the plurality of devices, at least the first and second devices being paired based on reported feedback from the devices, comprising reported channel feedback from the first device and reported channel feedback from the second device, when the reported channel feedback of the first device is over a threshold level and the reported channel feedback of the second device is under another threshold level, including modulating first control data for the first device in an enhancement layer of the control data resource based at least in part on whether the control data resource includes second control data for the second device; and transmitting at least the first control data as modulated over the control data resource, and transmitting the first control data in a search space defined based at least in part on modulating the first control data for the first device in the enhancement layer. determining a plurality of devices wherein the plurality of devices includes a first device and a second device ; allocating certain resources, in the form of OFDM symbols, or portions thereof, for transmitting control data to and/or receiving control data from, the devices, and the plurality of devices are assigned at least a portion of control data resource with the first device and the second device each having an assigned at least one modulation scheme and layer; performing multiple layer modulation utilizing a plurality of modulation schemes comprising control data for the plurality of devices, at least the first and second devices being paired based on reported feedback from the devices, comprising reported channel feedback from the first device and reported channel feedback from the second device, when the reported channel feedback of the first device is over a threshold level and the reported channel feedback of the second device is under another threshold level, including modulating first control data for the first device in an enhancement layer of the control data resource based at least in part on whether the control data resource includes second control data for the second device; and transmitting at least the first control data as modulated over the control data resource, and transmitting the first control data in a search space defined based at least in part on modulating the first control data for the first device in the enhancement layer.
Surveying system for measuring spatial coordinates, the surveying system comprising • a survey pole for use with a geodetic surveying device and • a position determination device for determining a position of the survey pole , the survey pole comprising • a rigid, rod-shaped body having a pointed tip for contacting a measuring point on the ground , the body defining a pole axis , and • a tilt detector for determining gravity vector data of a local gravity vector and for detecting a tilt of the pole axis with respect to the local gravity vector , characterized in that the surveying system comprises a calculation unit , wherein the position determination device is adapted for generating position data and providing the position data to the calculation unit , the calculation unit being adapted for • providing, based on the position data, position-related vertical deflection data according to the position of the survey pole , the vertical deflection data comprising information about the direction of the local gravity vector relative to a reference vector of a reference coordinate system , • calculating reference vector data based on the detected tilt of the pole axis with respect to the direction of the local gravity vector and on the vertical deflection data, wherein an inclination of the pole axis with respect to the reference vector is derivable from the reference vector data, and • displaying the reference vector data. • a survey pole for use with a geodetic surveying device and • a position determination device for determining a position of the survey pole , the survey pole comprising • a rigid, rod-shaped body having a pointed tip for contacting a measuring point on the ground , the body defining a pole axis , and • a tilt detector for determining gravity vector data of a local gravity vector and for detecting a tilt of the pole axis with respect to the local gravity vector , characterized in that the surveying system comprises a calculation unit , wherein the position determination device is adapted for generating position data and providing the position data to the calculation unit , the calculation unit being adapted for • providing, based on the position data, position-related vertical deflection data according to the position of the survey pole , the vertical deflection data comprising information about the direction of the local gravity vector relative to a reference vector of a reference coordinate system , • calculating reference vector data based on the detected tilt of the pole axis with respect to the direction of the local gravity vector and on the vertical deflection data, wherein an inclination of the pole axis with respect to the reference vector is derivable from the reference vector data, and • displaying the reference vector data.
A method, comprising: receiving, by a circuit , a signal resulting in a received signal, the signal comprising an uplink signal generated by a communication device and a passive intermodulation interference signal generated by two or more transmitters, the uplink signal having an expected peak-to-average-power ratio, PAPR, wherein the passive intermodulation interference signal is associated with a higher PAPR and the higher PAPR is defined by a signaling protocol used by the two or more transmitters, and wherein the two or more transmitters are unassociated with the communication device generating the uplink signal; and clipping peaks of the received signal exceeding a PAPR threshold so as to reduce passive intermodulation interference introduced by the passive intermodulation interference signal, wherein the PAPR threshold is determined from the expected PAPR of the uplink signal that is not subject to the passive intermodulation interference. receiving, by a circuit , a signal resulting in a received signal, the signal comprising an uplink signal generated by a communication device and a passive intermodulation interference signal generated by two or more transmitters, the uplink signal having an expected peak-to-average-power ratio, PAPR, wherein the passive intermodulation interference signal is associated with a higher PAPR and the higher PAPR is defined by a signaling protocol used by the two or more transmitters, and wherein the two or more transmitters are unassociated with the communication device generating the uplink signal; and clipping peaks of the received signal exceeding a PAPR threshold so as to reduce passive intermodulation interference introduced by the passive intermodulation interference signal, wherein the PAPR threshold is determined from the expected PAPR of the uplink signal that is not subject to the passive intermodulation interference.
Method for controlling a parking process of a vehicle , comprising the following steps of: - identifying a driver; - learning driver parameters during a parking process carried out by the driver and assigning the driver parameters to the identified driver; wherein a parking process is a process in which a vehicle is manoeuvred forwards, backwards, sidewards or obliquely into a parking space, wherein the step of learning driver parameters comprises capturing the vehicle speed, the steering angle, a steering angle speed, at least one distance value for an object relative to the vehicle in the surrounding area of the vehicle and acceleration and/or deceleration parameters of the vehicle ; - determining parking parameters on the basis of the learnt driver parameters by extracting information from the driver parameters which indicates how a particular driver usually carries out a parking process; - gradually adapting the parking parameters on the basis of the number of parking processes carried out by a parking assistance system and assigned to the identified driver, wherein progressive and/or degressive changes in the parking parameters are possible on the basis of the number of parking processes carried out in an automated manner, - controlling a parking process of the vehicle , which is carried out by the parking assistance system, on the basis of the parking parameters, wherein the parking assistance system is modified on the basis of the extracted information in such a manner that a driver-specific parking behaviour of the parking assistance system is established. - identifying a driver; - learning driver parameters during a parking process carried out by the driver and assigning the driver parameters to the identified driver; wherein a parking process is a process in which a vehicle is manoeuvred forwards, backwards, sidewards or obliquely into a parking space, wherein the step of learning driver parameters comprises capturing the vehicle speed, the steering angle, a steering angle speed, at least one distance value for an object relative to the vehicle in the surrounding area of the vehicle and acceleration and/or deceleration parameters of the vehicle ; - determining parking parameters on the basis of the learnt driver parameters by extracting information from the driver parameters which indicates how a particular driver usually carries out a parking process; - gradually adapting the parking parameters on the basis of the number of parking processes carried out by a parking assistance system and assigned to the identified driver, wherein progressive and/or degressive changes in the parking parameters are possible on the basis of the number of parking processes carried out in an automated manner, - controlling a parking process of the vehicle , which is carried out by the parking assistance system, on the basis of the parking parameters, wherein the parking assistance system is modified on the basis of the extracted information in such a manner that a driver-specific parking behaviour of the parking assistance system is established.
Device for irradiating a target structure located within human or animal skin or tissue, comprising at least one laser light source and at least one optical element , by means of which the laser radiation is guided through a light exit opening and focused in a focal point outside the light exit opening , wherein the optical element has an arrangement of a convex mirror within a concave mirror , which are arranged in such a way that laser radiation emitted by the laser light source passes at least partially through an opening in the concave mirror , the laser radiation passed through the opening impinges on the convex mirror , is deflected from the convex mirror to the concave mirror , and passes through the light exit opening coming from the concave mirror , characterized in that at least one setting element is provided with which the distance between a skin surface and the focal point positioned in the region of the target structure can be set in a targeted manner, wherein a control unit at least temporarily transmits a control signal to the setting element in such a way that a penetration depth of the laser radiation into the skin or subcutaneous tissue is changed in a targeted manner, wherein the setting element is designed as a spacer with an actuator and the spacer is at least partially moved by the actuator in such a way that at least two different distances between the light exit opening and the skin surface can be set, and/or wherein the setting element has at least one movement means with which at least one component of the optical element can be moved in such a way that the distance between the light exit opening and the focal point is adjusted due to the movement. wherein the setting element is designed as a spacer with an actuator and the spacer is at least partially moved by the actuator in such a way that at least two different distances between the light exit opening and the skin surface can be set, and/or wherein the setting element has at least one movement means with which at least one component of the optical element can be moved in such a way that the distance between the light exit opening and the focal point is adjusted due to the movement.
A composition of at least one seed extract of a plant chosen from Ilex aquifolium, Ilex arnhemensis, Ilex canariensis, Ilex chinensis, Ilex crenata, Ilex mitis, Ilex opaca, Ilex paraguariensis, Ilex perado and Ilex vomitoria ; which extract is chosen from glycerinated, hydroglycerinated and hydroalcoholic glycerinated extracts; and the content of seed extract of a plant belonging to the genus Ilex in the composition is between 0.5 and 5% by weight relative to the total weight of the composition.
A method for wireless communication, comprising: identifying a beam change condition; transmitting a beam change indication message based at least in part on the beam change condition, wherein transmitting the beam change indication message comprises transmitting a beam change request message; receiving a downlink, DL, message, wherein the DL message comprises a transmission power indication, wherein the DL message is associated with the beam change indication message, wherein receiving the DL message comprises receiving a beam change request response; and transmitting an uplink, UL, message at a power level based at least in part on the transmission power indication. identifying a beam change condition; transmitting a beam change indication message based at least in part on the beam change condition, wherein transmitting the beam change indication message comprises transmitting a beam change request message; receiving a downlink, DL, message, wherein the DL message comprises a transmission power indication, wherein the DL message is associated with the beam change indication message, wherein receiving the DL message comprises receiving a beam change request response; and transmitting an uplink, UL, message at a power level based at least in part on the transmission power indication.
Cable duct having at least one feed-through terminal (100; 200) for at least one cable at an open end of the cable duct, wherein the feed-through terminal (100; 200) comprises: a seal press frame (110; 150); a support (120; 220; 320), attachable to the seal press frame (110; 150), for fixing the cable at the feed-through terminal (100; 200); and a seal (140; 180; 240; 280), held by the seal press frame (110; 150), made from a preferably soft sealing material having at least one seal aperture (145; 185; 245; 285), through which the cable can pass and which seals the inner space of the cable duct at its open end, wherein the support (120; 220; 320) allows a fixing of the cable relative to the seal aperture (145; 185; 245; 285). a seal press frame (110; 150); a support (120; 220; 320), attachable to the seal press frame (110; 150), for fixing the cable at the feed-through terminal (100; 200); and a seal (140; 180; 240; 280), held by the seal press frame (110; 150), made from a preferably soft sealing material having at least one seal aperture (145; 185; 245; 285), through which the cable can pass and which seals the inner space of the cable duct at its open end, wherein the support (120; 220; 320) allows a fixing of the cable relative to the seal aperture (145; 185; 245; 285).
A tape feeder , attached to a feeder setting section of a component mounting machine, comprising: a feeder main body ; a reel holder configured to load a tape reel on which a component supply tape is wound; a reel displacement mechanism configured to hold the reel holder displaceably in the width direction with respect to the feeder main body ; and a bumper section provided so as to protrude in an attachment direction thereof at the end portion of the attachment direction side of the feeder main body ; wherein, when a second tape feeder is being attached next to a first tape feeder attached to a feeder setting section, the bumper section of the second tape feeder first comes into contact with the end portion of the detachment direction side of the reel holder of the first tape feeder so as to displace the reel holder of the first tape feeder in the width direction, wherein the bumper section is attached to the end portion of the attachment direction side of the feeder main body so as to be exchangeable. a feeder main body ; a reel holder configured to load a tape reel on which a component supply tape is wound; a reel displacement mechanism configured to hold the reel holder displaceably in the width direction with respect to the feeder main body ; and a bumper section provided so as to protrude in an attachment direction thereof at the end portion of the attachment direction side of the feeder main body ; wherein, when a second tape feeder is being attached next to a first tape feeder attached to a feeder setting section, the bumper section of the second tape feeder first comes into contact with the end portion of the detachment direction side of the reel holder of the first tape feeder so as to displace the reel holder of the first tape feeder in the width direction, wherein the bumper section is attached to the end portion of the attachment direction side of the feeder main body so as to be exchangeable.
A method performed by a data processing node for handling a usage policy (P1, P2) pertaining to source data (D1, D2) generated by at least one source node , the usage policy (P1, P2) dictating permission to access and use the source data (D1, D2), the method comprising: - receiving the source data (D1, D2) and the usage policy (P1, P2) together with an associated source signature (Sig1, Sig2) from the at least one source node , wherein the associated source signature (Sig1, Sig2) has been calculated based on an identification (Id_D1, Id_D2) of the source data (D1, D2) and the usage policy (P1, P2) of the source data (D1, D2), - generating new data (D3) based on the received source data (D1, D2) while complying with the usage policy (P1, P2) of the source data (D1, D2), - calculating a new signature (Sig3) based on an identification (Id_D3) of the new data (D3) and at least one of: the usage policy (P1, P2) of the source data (D1, D2), and a new usage policy (P3) pertaining to the generated new data (D3) and covering the usage policy (P1, P2) of the source data (D1, D2), and - providing the new data (D3), the usage policies (P1, P2, P3), and the associated signatures (Sig1, Sig2, Sig3) to a data receiving node , thereby enabling the data receiving node to verify and comply with the provided usage policies (P1, P2, P3) based on the respective associated signatures (Sig1, Sig2, Sig3). - receiving the source data (D1, D2) and the usage policy (P1, P2) together with an associated source signature (Sig1, Sig2) from the at least one source node , wherein the associated source signature (Sig1, Sig2) has been calculated based on an identification (Id_D1, Id_D2) of the source data (D1, D2) and the usage policy (P1, P2) of the source data (D1, D2), - generating new data (D3) based on the received source data (D1, D2) while complying with the usage policy (P1, P2) of the source data (D1, D2), - calculating a new signature (Sig3) based on an identification (Id_D3) of the new data (D3) and at least one of: the usage policy (P1, P2) of the source data (D1, D2), and a new usage policy (P3) pertaining to the generated new data (D3) and covering the usage policy (P1, P2) of the source data (D1, D2), and - providing the new data (D3), the usage policies (P1, P2, P3), and the associated signatures (Sig1, Sig2, Sig3) to a data receiving node , thereby enabling the data receiving node to verify and comply with the provided usage policies (P1, P2, P3) based on the respective associated signatures (Sig1, Sig2, Sig3).
A method, comprising: receiving, by a user equipment, , a time division duplex, TDD, uplink/downlink, UL/DL, configuration indication pattern, the TDD UL/DL configuration indication pattern is used to indicate multiple TDD UL/DL configurations in DCI format 1C, wherein each of the TDD UL/DL configurations is associated with certain configured carriers and a concrete fixed downlink subframe index, characterized in that the configuration indication pattern comprises a mapping relationship between the TDD UL/DL configurations in one DCI format 1C in one fixed downlink subframe and a carrier index. receiving, by a user equipment, , a time division duplex, TDD, uplink/downlink, UL/DL, configuration indication pattern, the TDD UL/DL configuration indication pattern is used to indicate multiple TDD UL/DL configurations in DCI format 1C, wherein each of the TDD UL/DL configurations is associated with certain configured carriers and a concrete fixed downlink subframe index,
A wellbore fibre optical communication system comprising; - a remote device configured to be arranged in a wellbore, and - a local device configured to be arranged above said wellbore, said local device comprising a light source and an optical receiver , wherein said remote device comprising - an optical modulator , and - a polarization control means comprising - a polarization beam splitter arranged for optical interconnection with said light source via an optical fibre and configured for splitting incoming light from said light source into first and second light signals with respective first and second orthogonal polarizations (P1, P2) output to respective first and second ports , and - a polarization rotation element connected to said first port and configured for rotating said first light signal to said second polarization (P2), - a polarization maintaining element connected to said second port and configured for maintaining the polarization (P2) of the second light signal un-rotated, wherein said polarization control means is further configured for providing both said rotated first light signal and said un-rotated second light signal as input light signals to said optical modulator , said optical modulator arranged for receiving a measurement signal on an electrical cable from a downhole logging tool and modulating said measurement signal forming a modulated optical signal, and said wellbore fibre optical communication system is arranged for optical interconnection and transfer of said modulated optical signal from said optical modulator to said optical receiver . - a remote device configured to be arranged in a wellbore, and - a local device configured to be arranged above said wellbore, said local device comprising a light source and an optical receiver , wherein said remote device comprising - an optical modulator , and - a polarization control means comprising - a polarization beam splitter arranged for optical interconnection with said light source via an optical fibre and configured for splitting incoming light from said light source into first and second light signals with respective first and second orthogonal polarizations (P1, P2) output to respective first and second ports , and - a polarization rotation element connected to said first port and configured for rotating said first light signal to said second polarization (P2), - a polarization maintaining element connected to said second port and configured for maintaining the polarization (P2) of the second light signal un-rotated,