mhurhangee/patent-ind-claim-en huggingface dataset:
Lighting module for a motor vehicle headlamp comprising first and second light radiation sources capable of emitting laser radiation (L1, L2) to a wavelength conversion device which is capable of re-emitting light radiation to an optical projection system in order to produce an illumination beam , the module comprising a single wavelength conversion device which is common to the laser radiation (L1, L2), characterised in that the first light radiation source comprises at least a first laser light source cooperating with a single reflector which is a mirror mounted fixedly or mounted in rotation about a horizontal axis and driven with a movement of small amplitude and low speed, that is less than 15°.s -1 , preferably less than 10°.s -1 , preferably less than 4°.s -1 , and the second light source has at least one second laser light source which cooperates with at least one scanning system having at least one micromirror which is movable about a horizontal axis.
Transport system for conveying objects along a transport route (TS), comprising at least one transport element , which consists of a plurality of chain links connected with one another by chain joints in an articulated manner to form a closed loop and which can be driven in a rotary manner in at least one transport direction (A) by at least one chain sprocket , wherein the chain links are constituted as transport pallets , which are guided at least in sections along the transport section (TS) on both sides by means of a first and second guiding device , in which a chain joint in each case comprises at least one joint axis (GAS) running between the first and second guiding device , which is guided at a first free end (GAS1) with a first guiding and bearing device in the first guiding device and at a second free end (GAS2) with a second guiding and bearing device in the second guiding device , wherein the first and second guiding and bearing device each comprise at least a first and second roller (34...37), which are guided between a first and second guiding surface (30.1 and 30.2 and respectively 31.1 and 31.2) of the respective guiding device , said guiding surfaces running opposite one another and parallel to the joint axis (GAS), wherein the first roller abuts on a first bearing section (30.11, 31.11) of the first guiding surface (30.1, 31.1) and the second roller abuts on a second bearing section (30.21, 31.21) of the second guiding surface (30.2, 31.2) the first and second rollers (34, 36; 35, 37) being guided in prestressed manner with respect to one another, wherein the first and second bearing section (30.11 and 30.21 and respectively 31.11 and 31.21) are offset with respect to one another and lie opposite one another along the joint axis (GAS), characterised in that at least one joint axis (GAS) of at least one transport pallet of the transport system comprises a first and second joint axis section (GAA1, GAA2) at the first and second free end (GAS1, GAS2), wherein the first joint axis section (GAA1) constitutes a first axis of rotation (RA1) for the respective first roller (34 and 36) and the respective second joint axis section (GAA2) constitutes a second axis of rotation (RA2) for the respective second roller (35 and 37), and wherein the respective first axis of rotation (RA1) runs offset, in particular offset in parallel, to the respective second axis of rotation (RA2).
An image reading apparatus , comprising: a reading unit configured to read a first image on a first side of a sheet and a second image on a second side of the sheet and generate first and second image data from the first and second sides, respectively; a detection unit configured to detect a double feed of the sheet; and a controller characterized in that the controller is configured to: determine, based on the first and second image data and only if the double feed of the sheet is detected, whether at least part of the first image is at a first edge of the first side and at least part of the second image is at a second edge of the second side of the sheet; combine the first and second image data into combined image data corresponding to the first and second images if both the first image is at the first edge and the second image is at the second edge and if the double feed of the sheet is detected; and process the combined image data to set the size of a combined image corresponding to the combined image data to a predetermined size. a reading unit configured to read a first image on a first side of a sheet and a second image on a second side of the sheet and generate first and second image data from the first and second sides, respectively; a detection unit configured to detect a double feed of the sheet; and a controller characterized in that the controller is configured to: determine, based on the first and second image data and only if the double feed of the sheet is detected, whether at least part of the first image is at a first edge of the first side and at least part of the second image is at a second edge of the second side of the sheet; combine the first and second image data into combined image data corresponding to the first and second images if both the first image is at the first edge and the second image is at the second edge and if the double feed of the sheet is detected; and process the combined image data to set the size of a combined image corresponding to the combined image data to a predetermined size. determine, based on the first and second image data and only if the double feed of the sheet is detected, whether at least part of the first image is at a first edge of the first side and at least part of the second image is at a second edge of the second side of the sheet; combine the first and second image data into combined image data corresponding to the first and second images if both the first image is at the first edge and the second image is at the second edge and if the double feed of the sheet is detected; and process the combined image data to set the size of a combined image corresponding to the combined image data to a predetermined size.
Block copolymers of general formula (I), B-(A) x (I) wherein A denotes a polyester residue prepared from at least two different monomers 1 and 2, where monomer 1 is selected from the group consisting of epsilon-caprolactone and gamma-valerolactone and monomer 2 is selected from the group consisting of lactide and glycolide, and the two monomers are block-wise or randomly distributed over each polyester residue A , B denotes an OH-terminated hydrogenated polybutadiene residue, and x denotes an integer of 1.8 or more, preferably of 2 to 3. A denotes a polyester residue prepared from at least two different monomers 1 and 2, where monomer 1 is selected from the group consisting of epsilon-caprolactone and gamma-valerolactone and monomer 2 is selected from the group consisting of lactide and glycolide, and the two monomers are block-wise or randomly distributed over each polyester residue A , B denotes an OH-terminated hydrogenated polybutadiene residue, and x denotes an integer of 1.8 or more, preferably of 2 to 3.
Abase station , wherein the base station comprises a processing unit and a transmitting unit , wherein the processing unit is configured to obtain a network traffic hotspot of each sector of the base station based on a network traffic volume of the sector ; wherein the base station is characterized in that : the processing unit is configured to obtain a traffic volume and a location of a virtual network traffic hotspot based on locations of all network traffic hotspots in the sector according to the following relationship, if there is a network traffic hotspot in the sector : x sc y sc = ∑ si = 1 C N T si ∗ x si y si ∑ si = 1 C N T si wherein the sector comprises C N network traffic hotspots, a location of each of the network traffic hotspots is (x si , y si ), a traffic volume corresponding to each of the network traffic hotspots is T si , the location of the virtual network traffic hotspot corresponding to the C N network traffic hotspots is (x sc , y sc ), and the traffic volume of the virtual network traffic hotspot is ∑ si = 1 C N T si ; the transmitting unit is configured to report to a coordinator comprised in an apparatus for eliminating a network traffic hotspot, that there is no network traffic hotspot if there is no network traffic hotspot in the sector ; and report the traffic volume and the location of the virtual network traffic hotspot to the coordinator if there is a network traffic hotspot in the sector . the processing unit is configured to obtain a traffic volume and a location of a virtual network traffic hotspot based on locations of all network traffic hotspots in the sector according to the following relationship, if there is a network traffic hotspot in the sector : x sc y sc = ∑ si = 1 C N T si ∗ x si y si ∑ si = 1 C N T si wherein the sector comprises C N network traffic hotspots, a location of each of the network traffic hotspots is (x si , y si ), a traffic volume corresponding to each of the network traffic hotspots is T si , the location of the virtual network traffic hotspot corresponding to the C N network traffic hotspots is (x sc , y sc ), and the traffic volume of the virtual network traffic hotspot is ∑ si = 1 C N T si ; the transmitting unit is configured to report to a coordinator comprised in an apparatus for eliminating a network traffic hotspot, that there is no network traffic hotspot if there is no network traffic hotspot in the sector ; and report the traffic volume and the location of the virtual network traffic hotspot to the coordinator if there is a network traffic hotspot in the sector .
Signal strength acquisition method for signal strength based position determination of a BLE mobile device relative to a vehicle , wherein the BLE mobile device comprises a BLE interface , wherein the vehicle comprises a system of BLE interfaces comprising a central controller and at least a first satellite BLE interface and a second satellite BLE interface coupled to the central controller , wherein the term satellite BLE interface refers to the satellite BLE interfaces being BLE interfaces instructed by external instructions, for example by the central controller , in the context of carrying out the method, and the method comprising the steps of: - Providing identification data on the vehicle side, - Transmitting encrypted identification data to the mobile BLE device , - Deriving advertise data from the identification data in the BLE mobile device and subsequently transmitting the advertise data derived from the identification data from the BLE interface of the BLE mobile device , - Receiving said advertise data through several of the vehicle side BLE interfaces , - Evaluating vehicle side whether the advertise data is derived from the identification data, - Evaluating a signal strength of the advertise data received at the position of the first satellite BLE interface and a signal strength of the advertise data received at the position of the second satellite BLE interface ; wherein, for any given BLE interface of the vehicle side BLE interfaces , the advertise data is accepted for evaluation only upon its first reception by the given BLE interface . - Providing identification data on the vehicle side, - Transmitting encrypted identification data to the mobile BLE device , - Deriving advertise data from the identification data in the BLE mobile device and subsequently transmitting the advertise data derived from the identification data from the BLE interface of the BLE mobile device , - Receiving said advertise data through several of the vehicle side BLE interfaces , - Evaluating vehicle side whether the advertise data is derived from the identification data, - Evaluating a signal strength of the advertise data received at the position of the first satellite BLE interface and a signal strength of the advertise data received at the position of the second satellite BLE interface ;
A wireless battery charging system for wirelessly charging a battery of an electronic device, the system comprising: an adaptor configured to convert an AC voltage, received from an AC power supply , into a DC voltage; a wireless power transmitter, TX, configured to accept an input voltage (Vin) and in dependence thereon transmit power wirelessly to a wireless power receiver, RX, wherein the input voltage (Vin) accepted by the wireless power TX is based on the DC voltage produced by the adaptor ; the wireless power RX configured to receive power wirelessly from the wireless power TX and in dependence thereon produce a DC output voltage (Vout); first and second chargers each including a voltage input terminal and a voltage output terminal, the voltage input terminal of each of the first and second chargers accepting the output voltage (Vout) from the wireless power RX, and the voltage output terminal of each of the first and second chargers configured to be coupled to a terminal of the battery that is to be charged; the first charger comprising a closed-loop DC-DC converter; the second charger comprising an open-loop DC-DC converter; and a controller configured to selectively enable one of the first or second chargers at a time so that during a first set of charging phases the first charger is used to charge the battery, and during a second set of the charging phases the second charger is used to charge the battery. an adaptor configured to convert an AC voltage, received from an AC power supply , into a DC voltage; a wireless power transmitter, TX, configured to accept an input voltage (Vin) and in dependence thereon transmit power wirelessly to a wireless power receiver, RX, wherein the input voltage (Vin) accepted by the wireless power TX is based on the DC voltage produced by the adaptor ; the wireless power RX configured to receive power wirelessly from the wireless power TX and in dependence thereon produce a DC output voltage (Vout); first and second chargers each including a voltage input terminal and a voltage output terminal, the voltage input terminal of each of the first and second chargers accepting the output voltage (Vout) from the wireless power RX, and the voltage output terminal of each of the first and second chargers configured to be coupled to a terminal of the battery that is to be charged; the first charger comprising a closed-loop DC-DC converter; the second charger comprising an open-loop DC-DC converter; and a controller configured to selectively enable one of the first or second chargers at a time so that during a first set of charging phases the first charger is used to charge the battery, and during a second set of the charging phases the second charger is used to charge the battery.
A nanoprobe of one of the following formulae: and wherein: • R1 represents a group of the following formula (II): which is complexed to a ligand or a radioelement to give a group of the following formula (III): • ● represents an alpha or beta negative radiation emitter radio-element such as 177 lutétium, 91 yttrium, 166 holmium or 186 rhenium • p is comprised from 3 to 6, • n is an integer comprised from 1 to 10, • r is an integer comprised from 1 to 20, r being ≥ n, and • Rb represents a group chosen among: - - anti-Ca15-3 antibody or alpha melanocyte stimulating hormone (alpha- MSH), - a biocompatible dye of formulae: or and - Ra is a linear or branched alkyl, for use as medicament. • R1 represents a group of the following formula (II): which is complexed to a ligand or a radioelement to give a group of the following formula (III): • ● represents an alpha or beta negative radiation emitter radio-element such as 177 lutétium, 91 yttrium, 166 holmium or 186 rhenium • p is comprised from 3 to 6, • n is an integer comprised from 1 to 10, • r is an integer comprised from 1 to 20, r being ≥ n, and • p is comprised from 3 to 6, • n is an integer comprised from 1 to 10, • r is an integer comprised from 1 to 20, r being ≥ n, and • Rb represents a group chosen among: - - anti-Ca15-3 antibody or alpha melanocyte stimulating hormone (alpha- MSH), - a biocompatible dye of formulae: or and - Ra is a linear or branched alkyl, for use as medicament. - - anti-Ca15-3 antibody or alpha melanocyte stimulating hormone (alpha- MSH), - a biocompatible dye of formulae: or and - Ra is a linear or branched alkyl, for use as medicament.
Magnetic bearing for the active radial and passive axial mounting of a shaft , for a spinning rotor of an open-end spinning device, which features several pole shanks of a stator for the active radial magnetic mounting of the shaft in two degrees of freedom, which in each case are surrounded by a coil and are radially arranged to each other, whereas the pole shanks are arranged in such a manner that they release an opening for the shaft , the pole shanks being connected to each other in the area of the opening , and on the side of the coils turned away from the opening , and in particular, for the passive axial mounting of the shaft , at least one permanent magnet is arranged between the coils and the opening , characterized in that the permanent magnet is in operative connection with the pole shanks , that the radial distance of the at least one permanent magnet from the center of the opening is larger than the radius of the opening and that a ferromagnetic guide ring is allocated to the at least one permanent magnet at the side turned away from the pole shank for the guiding of the electromagnetic flux, whereas the inner diameter of the guide ring essentially corresponds to the diameter of the opening of the pole shanks for the shaft .
A system for optimizing temporal pulse patterns for stimulation delivery to a subject, the system comprising: a processor; and a spinal cord stimulation device the processor configured to generate a first generation temporal pulse pattern; the spinal cord stimulation device configured to deliver stimulation according to the first generation temporal pulse pattern to a subject; the processor further configured to: measure efficacy, efficiency and side-effect parameters affected by the delivered stimulation; determine a fitness of the first generation temporal pulse pattern using the measured efficacy, efficiency and side-effect parameters; generate a second generation temporal pulse pattern using the first generation temporal pulse pattern according to the determined fitness of the first generation temporal pulse pattern; and the spinal cord stimulation device further configured to deliver stimulation according to the second generation temporal pulse pattern to the subject; the processor further configured to cause said spinal cord stimulation device to deliver said stimulations. a processor; and a spinal cord stimulation device the processor configured to generate a first generation temporal pulse pattern; the spinal cord stimulation device configured to deliver stimulation according to the first generation temporal pulse pattern to a subject; a spinal cord stimulation device the processor configured to generate a first generation temporal pulse pattern; the spinal cord stimulation device configured to deliver stimulation according to the first generation temporal pulse pattern to a subject; the processor further configured to: measure efficacy, efficiency and side-effect parameters affected by the delivered stimulation; determine a fitness of the first generation temporal pulse pattern using the measured efficacy, efficiency and side-effect parameters; generate a second generation temporal pulse pattern using the first generation temporal pulse pattern according to the determined fitness of the first generation temporal pulse pattern; and the spinal cord stimulation device further configured to deliver stimulation according to the second generation temporal pulse pattern to the subject; the processor further configured to cause said spinal cord stimulation device to deliver said stimulations.
A method for loading a clip with an item of laundry , in particular with an item of laundry to be sorted, the item of laundry being separated by a separating device and subsequently being transferred to the clip to be loaded, wherein the item of laundry is grasped by a movable double clip of a transfer device downstream of the separating device , the item of laundry is taken over or transferred from the double clip by a loading device , and the item of laundry is fed by the loading device into a clip mouth of the clip to be loaded, in that the item of laundry is fed by two adjacent clips of the loading device into the clip to be loaded, by synchronous movement and moving of the adjacent clips past the clip to be loaded, a peripheral strip , peripheral portion and/or corner region of the item of laundry located between the adjacent clips and/or clips is kept stretched by clips of the double clips of the transfer device and/or by the adjacent clips of the loading device and the item of laundry with the peripheral strip , peripheral portion and/or corner region kept stretched by the adjacent clips of the loading device is pushed into the clip to be loaded as the adjacent, spaced-apart clips move past the latter.
A method for interference cancellation in a communication network including a plurality of user equipments, UEs, and base stations, BSs, , the method comprising: acquiring, by a central control node , a first signal to noise ratio, SNR, and a first interference to noise ratio, INR, of a downlink signal detected by a first UE and a second SNR and second INR of a downlink signal detected by a second UE ; determining, by the central control node , a maximum total data rate for the first UE and the second UE , a first transmission data rate for the first UE and a second transmission data rate for the second UE based on the first SNR, the first INR, the second SNR, and the second INR; and notifying, by the central control node , a first BS and a second BS of a first transmission mode for the first UE and a second transmission mode for the second UE , wherein the first transmission mode for the first UE and the second transmission mode for the second UE are determined based on the maximum total data rate, the first transmission data rate, and the second transmission data rate, wherein the first UE is located in a cell served by the first BS , and the second UE is located in an adjacent cell of the first UE and is served by the second BS , and wherein the first transmission mode for the first UE and the second transmission mode for the second UE comprise information on a modulation and coding scheme, MCS, of the first UE , information on a MCS of the second UE , and information on an order for performing demodulation between a first signal from the first BS and a second signal from the second BS . acquiring, by a central control node , a first signal to noise ratio, SNR, and a first interference to noise ratio, INR, of a downlink signal detected by a first UE and a second SNR and second INR of a downlink signal detected by a second UE ; determining, by the central control node , a maximum total data rate for the first UE and the second UE , a first transmission data rate for the first UE and a second transmission data rate for the second UE based on the first SNR, the first INR, the second SNR, and the second INR; and notifying, by the central control node , a first BS and a second BS of a first transmission mode for the first UE and a second transmission mode for the second UE , wherein the first transmission mode for the first UE and the second transmission mode for the second UE are determined based on the maximum total data rate, the first transmission data rate, and the second transmission data rate, wherein the first UE is located in a cell served by the first BS , and the second UE is located in an adjacent cell of the first UE and is served by the second BS , and wherein the first transmission mode for the first UE and the second transmission mode for the second UE comprise information on a modulation and coding scheme, MCS, of the first UE , information on a MCS of the second UE , and information on an order for performing demodulation between a first signal from the first BS and a second signal from the second BS .