mhurhangee/ep-ind-claims huggingface dataset:
A method for receiving a downlink signal by an apparatus in a wireless mobile communication system, the method comprising: receiving downlink control information including resource block allocation information wherein the downlink control information is common information for plural users; and detecting a resource indication value, RIV, from the resource block allocation information, wherein the RIV indicates a start index, S, of consecutive virtual resource blocks, VRBs, and a length, L, of the consecutive VRBs; and receiving the downlink signal on the consecutive VRBs, wherein the start index, S, is an element of a first set {s: s=mG< └ N VRB / G ┘· G} and the length, L, is an element of a second set {l:l=nG≤└ N VRB / G ┘· G}, where m is an integer of 0 or higher, n is an integer of 1 or higher, N VRB is the number of VRBs in a downlink system bandwidth, and G is a predetermined natural number that is equal to or larger than 2, wherein, if Y - 1 ≤ └ X /2┘ is given, the resource indication value, RIV, is denoted by RIV = X ( Y -1)+ Z, or else the resource indication value, RIV, is denoted by RIV = X ( X - Y +1)+( X -1- Z), where X is denoted by X = └ N VRB / G ┘, Y is denoted by Y = L / G, and Z is denoted by Z = S / G. receiving downlink control information including resource block allocation information wherein the downlink control information is common information for plural users; and detecting a resource indication value, RIV, from the resource block allocation information, wherein the RIV indicates a start index, S, of consecutive virtual resource blocks, VRBs, and a length, L, of the consecutive VRBs; and receiving the downlink signal on the consecutive VRBs, wherein the start index, S, is an element of a first set {s: s=mG< └ N VRB / G ┘· G} and the length, L, is an element of a second set {l:l=nG≤└ N VRB / G ┘· G}, where m is an integer of 0 or higher, n is an integer of 1 or higher, N VRB is the number of VRBs in a downlink system bandwidth, and G is a predetermined natural number that is equal to or larger than 2, wherein, if Y - 1 ≤ └ X /2┘ is given, the resource indication value, RIV, is denoted by RIV = X ( Y -1)+ Z, or else the resource indication value, RIV, is denoted by RIV = X ( X - Y +1)+( X -1- Z), where X is denoted by X = └ N VRB / G ┘, Y is denoted by Y = L / G, and Z is denoted by Z = S / G.
An adjustment turret for a long-range optical device, in particular a telescopic sight, comprising - a base, - a rotary control element, which can be rotated relative to the base about an axis of rotation, - a display element which can be rotated about the axis of rotation and has along its circumference at least one marking that is visible from the outside, and - a mechanical coupling mechanism, by means of which the rotary control element cooperates with the display element, wherein the coupling mechanism is configured in such a manner that the display element can be rotated about the axis of rotation by the rotary control element in at least one rotational position of the rotary control element and that during a full rotation of the rotary control element about the axis of rotation the display element can be rotated by the rotary control element relative to the base only about an angle of rotation which corresponds to a part of a full rotation and wherein a section of the display element is provided with a scale, characterized in that the section of the display element provided with the scale forms a mantle section of the adjustment turret. - a base, - a rotary control element, which can be rotated relative to the base about an axis of rotation, - a display element which can be rotated about the axis of rotation and has along its circumference at least one marking that is visible from the outside, and - a mechanical coupling mechanism, by means of which the rotary control element cooperates with the display element,
A digital signal processor, comprising: a signal generation unit, configured to generate a first digital signal and a second digital signal; a first modulation unit, configured to modulate the first digital signal to obtain a third digital signal; a second modulation unit, configured to modulate the second digital signal to obtain a fourth digital signal; a first phase shifting unit, configured to perform phase shifting on the third digital signal, to output the third digital signal and a fifth digital signal, wherein the fifth digital signal is a signal obtained after phase shifting is performed on the third digital signal; a second phase shifting unit, configured to perform phase shifting on the fourth digital signal, to output the fourth digital signal and a sixth digital signal, wherein the sixth digital signal is a signal obtained after phase shifting is performed on the fourth digital signal; an adder, configured to calculate a sum of the third digital signal and the fourth digital signal, to obtain a seventh digital signal, wherein the seventh digital signal is a first drive signal used to drive a single sideband modulator; and a subtractor, configured to subtract the sixth digital signal from the fifth digital signal, to obtain an eighth digital signal, wherein the eighth digital signal is a second drive signal used to drive the single sideband modulator. a signal generation unit, configured to generate a first digital signal and a second digital signal; a first modulation unit, configured to modulate the first digital signal to obtain a third digital signal; a second modulation unit, configured to modulate the second digital signal to obtain a fourth digital signal; a first phase shifting unit, configured to perform phase shifting on the third digital signal, to output the third digital signal and a fifth digital signal, wherein the fifth digital signal is a signal obtained after phase shifting is performed on the third digital signal; a second phase shifting unit, configured to perform phase shifting on the fourth digital signal, to output the fourth digital signal and a sixth digital signal, wherein the sixth digital signal is a signal obtained after phase shifting is performed on the fourth digital signal; an adder, configured to calculate a sum of the third digital signal and the fourth digital signal, to obtain a seventh digital signal, wherein the seventh digital signal is a first drive signal used to drive a single sideband modulator; and a subtractor, configured to subtract the sixth digital signal from the fifth digital signal, to obtain an eighth digital signal, wherein the eighth digital signal is a second drive signal used to drive the single sideband modulator.
Compressed air supply device, in particular for commercial vehicles, comprising a valve housing and an air drier cartridge, wherein the air drier cartridge is constructed to be substantially axially symmetric relative to an axis, and wherein the valve housing and the drier cartridge are joined to one another via a first seal and a second seal, and wherein a connecting region located on the valve housing and lying in a coupling face between the valve housing and the drier cartridge cannot be made congruent with a coupling region located on the air drier cartridge and assigned to the connecting region in all angular positions of the drier cartridge relative to the valve housing as defined in respect of the axis of the drier cartridge, characterised in that the connecting region and the associated coupling region are arranged to be eccentric relative to the axis when the drier cartridge is mounted on the valve housing.
A method for transmitting a client signal in an optical transport network, wherein the method comprises: mapping a received client signal into a variable-rate container OTU-N, wherein a rate of the OTU-N is N times as high as a preset reference rate, and the value N is a configurable positive integer, wherein a frame structure of the OTU-N is formed of N subframes by interleaving columns, and a rate of each subframe equals the reference rate; splitting the variable-rate container OTU-N into N optical sub-channel transport units, OTUsubs, by interleaving column, wherein a rate of each OTUsub equals to the reference rate; wherein one of the N OTUsubs includes OTU-N overhead, ODU-N overhead, Frame Alignment Signal, FAS, and Multi-frame Alignment Signal, MFAS; modulating the N optical sub-channel transport units OTUsubs onto one or more optical carriers; and sending the one or more optical carriers onto a same fiber for transmission. mapping a received client signal into a variable-rate container OTU-N, wherein a rate of the OTU-N is N times as high as a preset reference rate, and the value N is a configurable positive integer, wherein a frame structure of the OTU-N is formed of N subframes by interleaving columns, and a rate of each subframe equals the reference rate; splitting the variable-rate container OTU-N into N optical sub-channel transport units, OTUsubs, by interleaving column, wherein a rate of each OTUsub equals to the reference rate; wherein one of the N OTUsubs includes OTU-N overhead, ODU-N overhead, Frame Alignment Signal, FAS, and Multi-frame Alignment Signal, MFAS; modulating the N optical sub-channel transport units OTUsubs onto one or more optical carriers; and sending the one or more optical carriers onto a same fiber for transmission.
A handover control method, comprising: receiving, by a target base station, a handover request message from a source base station, wherein the handover request message comprises an identity of a small cell base station or a cell identity of the small cell base station; and transmitting, by the target base station, a handover acknowledge message to the source base station, wherein the handover acknowledge message comprises indication that occupies a bit, a value of the indication being used to represent that user data of an user equipment, UE, continues to be transmitted by the small cell base station after the UE accessing the target base station, wherein the target base station provides a control plane service for the UE. receiving, by a target base station, a handover request message from a source base station, wherein the handover request message comprises an identity of a small cell base station or a cell identity of the small cell base station; and transmitting, by the target base station, a handover acknowledge message to the source base station, wherein the handover acknowledge message comprises indication that occupies a bit, a value of the indication being used to represent that user data of an user equipment, UE, continues to be transmitted by the small cell base station after the UE accessing the target base station, wherein the target base station provides a control plane service for the UE.
A reverse osmosis membrane comprising: a porous support; and a polyamide active layer formed on the porous support and including zeolite, surface-treated with a silane compound characterized in that said silane compound has a glycidyl group. a porous support; and a polyamide active layer formed on the porous support and including zeolite, surface-treated with a silane compound characterized in that said silane compound has a glycidyl group.
Method for temporally limiting and separating access instances between at least one master unit (MA1, MA2,..., MAn) and at least one slave unit (S1, S2,..., Sn) via a so-called network-on-a-chip bus system (NoC) in a system-on-a-chip, wherein the access instances between the at least one master unit (MA1, MA2,..., MAn) and the at least one slave unit are carried out via communication paths, which are defined by bus interfaces (TP0 to TPn, IP0 to IPn) of the network-on-a-chip bus system (NoC), characterised in that the network-on-a-chip bus system (NoC) is expanded by an adaptation unit, which comprises a central access manager and complementary logic for the bus interfaces (TPO to TPn, IP0 to IPn) and in that the adaptation unit and the bus interfaces (TPO to TPn, IP0 to IPn) are then controlled by the central access manager via the complementary logic on the basis of a communication plan managed in the central access manager, such that access instances between the at least one master unit (MA1, MA2,..., MAn) and the at least one slave unit (S1, S2,..., Sn) are carried out via the communication paths respectively defined by the bus interfaces (TPO to TPn, IP0 to IPn) according to temporal requirements of the communication plan.
An X-ray imaging apparatus for imaging a skull or a partial area of the skull, which apparatus comprises: - a substantially vertical support structure; - an X-ray radiation source and a receiver of X-ray radiation which together form X-ray imaging means (15, 19) - an arm part (13, 14) arranged as connected to the substantially vertical support structure and to support the X-ray imaging means (15, 19); - a control system of the X-ray imaging means; - an imaging station positioned in an area between the X-ray radiation source and the receiver of X-ray radiation; - a patient support means for a sitting or a standing patient arranged in connection with the imaging station for supporting an anatomy being imaged; - which patient support means for supporting the anatomy being imaged comprise a rear rest structure containing a support part, which support part is arranged to get positioned at occipital area, characterized in that the rear rest structure and its connection to the X-ray apparatus is realized such that the support part of the rear rest structure moves, when adjusting its position, on a line or on a plane whose angle with respect to the horizontal plane is between 15-25 degrees. - a substantially vertical support structure; - an X-ray radiation source and a receiver of X-ray radiation which together form X-ray imaging means (15, 19) - an arm part (13, 14) arranged as connected to the substantially vertical support structure and to support the X-ray imaging means (15, 19); - a control system of the X-ray imaging means; - an imaging station positioned in an area between the X-ray radiation source and the receiver of X-ray radiation; - a patient support means for a sitting or a standing patient arranged in connection with the imaging station for supporting an anatomy being imaged; - which patient support means for supporting the anatomy being imaged comprise a rear rest structure containing a support part, which support part is arranged to get positioned at occipital area,
A method for producing individual trays for the positioning of brackets, comprising the steps: a) producing an actual model, wherein the at least one model is a replica of at least portions of at least two tooth crowns of teeth located in a jaw and includes bracket replicas or brackets assigned to the replicas of the tooth crowns; b) producing at least two trays by producing at least one impression of the actual model, wherein the trays are suitable for at least partially receiving at least one of the at least two tooth crowns each as well as an actual bracket corresponding to the bracket assigned to the relevant tooth crown or corresponding to the assigned bracket replica, such that the arrangement of the bracket replica or bracket and the replication of the tooth crown in the model are reproduced in reality by the received bracket and the received tooth crown, wherein the impression of the actual model is realised by means of thermoforming, characterised in that the trays each comprise an impression of only one tooth crown part of the at least two tooth crowns and only one bracket part of the at least two bracket replicas or brackets, wherein the one bracket part extends vertically, as seen from the occlusal surface of the assigned tooth crown, at most as far as the end of a wire guide and/or as far as the end of a first undercut of the bracket or bracket replica that is arranged after the upper wing when viewed from the occlusal surface. a) producing an actual model, wherein the at least one model is a replica of at least portions of at least two tooth crowns of teeth located in a jaw and includes bracket replicas or brackets assigned to the replicas of the tooth crowns; b) producing at least two trays by producing at least one impression of the actual model, wherein the trays are suitable for at least partially receiving at least one of the at least two tooth crowns each as well as an actual bracket corresponding to the bracket assigned to the relevant tooth crown or corresponding to the assigned bracket replica, such that the arrangement of the bracket replica or bracket and the replication of the tooth crown in the model are reproduced in reality by the received bracket and the received tooth crown, wherein the impression of the actual model is realised by means of thermoforming,
Process for preparing methionine, comprising the alkaline hydrolysis of 5-(2-methylmercaptoethyl)hydantoin (methionine hydantoin) in an aqueous process solution containing potassium hydroxide and/or potassium carbonate and/or potassium hydrogen carbonate to give the methionine potassium salt and also the precipitation of methionine by neutralization with carbon dioxide, separation of the methionine from the process solution, concentration of the process solution and reuse of this process solution for the alkaline hydrolysis of the methionine hydantoin fed again to the process solution, characterized in that by-products comprising formate and other anions of organic acids containing 1 to 5 carbon atoms are removed from the process solution by electrodialysis, wherein methionine and/or potassium salts thereof and potassium hydrogencarbonate essentially remain in the process solution and wherein an electrodialysis cell in each case comprises at least two chambers and one of these chambers is the anode compartment, which is bordered by an ion-selective anion exchange membrane and an anode, and the pH in the anode compartment is from 5.8 to 8.0.
An apparatus for magnetic field screening of an RFID transponder from a substrate comprising, on a first area section (a), at least one flat antenna structure which comprises conductor tracks for conducting current in a direction of current flow and has an application-specific extent, wherein the apparatus comprises a second area section (b) or carrier to which strips of highly permeable screening material are applied to be oriented with respect to one another in a predetermined manner, wherein the second area section (b) is arranged in parallel to the first area section (a), characterized in that the highly permeable screening material has anisotropic permeability, wherein increased permeability is provided in the direction of current flow in the direction of conductor tracks of substantial sections of the antenna structure.
An additively manufactured thermally insulating structure for a miniature gas turbine engine, the thermally insulating structure comprising: a base layer configured to form a static structure of the miniature gas turbine engine; and a fire-resistant layer adjacent to the base layer that forms an air gap (106; 106A; 106B) therebetween, wherein the air gap (106; 106A; 106B) forms an intake, a duct, and an exhaust and defines a bypass duct configured to provide active cooling via airflow that passes through the additively manufactured thermally insulating structure. a base layer configured to form a static structure of the miniature gas turbine engine; and a fire-resistant layer adjacent to the base layer that forms an air gap (106; 106A; 106B) therebetween, wherein the air gap (106; 106A; 106B) forms an intake, a duct, and an exhaust and defines a bypass duct configured to provide active cooling via airflow that passes through the additively manufactured thermally insulating structure.
An apparatus comprising: an outer casing; one or more power cells disposed within the outer casing to provide power to an electronic device; a locking pin configured to traverse through a locking pin engagement opening and locking spring of a locking lever of the electronic device when the locking lever is in an unlocked configuration, the locking lever rotatable around a central axis between the unlocked and a locked configuration; and a power interface port to engage a charging interface port of the electronic device. an outer casing; one or more power cells disposed within the outer casing to provide power to an electronic device; a locking pin configured to traverse through a locking pin engagement opening and locking spring of a locking lever of the electronic device when the locking lever is in an unlocked configuration, the locking lever rotatable around a central axis between the unlocked and a locked configuration; and a power interface port to engage a charging interface port of the electronic device.
An electronic system comprising: a first display interface; a reflective film which is attached to the first display interface, the reflective film including a diffraction grating configured to reflect an incident light approaching the reflective film and comprising an image of a first user within a reflective grating spectra at a reflection angle formed by a reflected light ray and a line normal to the reflective film at a point of incidence; an image capture unit positioned to align with the reflection angle and to capture the image reflected from the reflective film; a notch filter configured to separate the image from a display light of the first display interface, the notch filter being configured to pass notch filter spectra which are within the reflective grating spectra, wherein the notch filter is configured to attach to a lens of the image capture unit; and a communication unit configured to communicate the image reflected at the reflection angle from the first display interface for displaying the image of the first user on a second display interface in providing gaze alignment between the first user and a second user through the first display interface and the second display interface. a first display interface; a reflective film which is attached to the first display interface, the reflective film including a diffraction grating configured to reflect an incident light approaching the reflective film and comprising an image of a first user within a reflective grating spectra at a reflection angle formed by a reflected light ray and a line normal to the reflective film at a point of incidence; an image capture unit positioned to align with the reflection angle and to capture the image reflected from the reflective film; a notch filter configured to separate the image from a display light of the first display interface, the notch filter being configured to pass notch filter spectra which are within the reflective grating spectra, wherein the notch filter is configured to attach to a lens of the image capture unit; and a communication unit configured to communicate the image reflected at the reflection angle from the first display interface for displaying the image of the first user on a second display interface in providing gaze alignment between the first user and a second user through the first display interface and the second display interface.