mhurhangee/patent-ind-claim-en huggingface dataset:
An assembly (E) consisting on the one hand, of a complex transparency device, i.e. of a refractive and/or diffractive device acting on the phase of the light and, on the other hand, of at least one micro-image array, wherein: - said complex transparency device consists of a periodic two-dimensional array (RPU) formed of individual "pupils" (PU) in which each pupil (PU) includes a micro-optical device , at least part of these micro-optical devices having a non-centered optical axis , and at least part of these micro-optical devices being positioned non-periodically, i.e. with variable offsets of their optical axis within said array (RPU); - said micro-image array consists of as many micro-images as there are micro-optical devices ; - each micro-image has a contour identical to that of the associated pupil (PU) and a surface at most identical to that of the associated pupil (PU); - each micro-image is subdivided into at least one thumbnail image , so that when said transparency device is positioned facing said micro-image array , and when an observer observes said array through said transparency device, he sees, at least along a given direction of observation, an image (S) reconstructed by the combination of the thumbnail images associated with this direction, characterized by the fact that within the same subdivision, some thumbnail images ; i.e. only part of them, which constitute a "first group", are distributed in such a way that when said transparency device is positioned facing said micro-image array , these thumbnail images are each disposed along the optical axis of said associated micro-optical device . - said complex transparency device consists of a periodic two-dimensional array (RPU) formed of individual "pupils" (PU) in which each pupil (PU) includes a micro-optical device , at least part of these micro-optical devices having a non-centered optical axis , and at least part of these micro-optical devices being positioned non-periodically, i.e. with variable offsets of their optical axis within said array (RPU); - said micro-image array consists of as many micro-images as there are micro-optical devices ; - each micro-image has a contour identical to that of the associated pupil (PU) and a surface at most identical to that of the associated pupil (PU); - each micro-image is subdivided into at least one thumbnail image ,
A beamforming method for a massive MIMO system, wherein antennas in the massive MIMO system is a M-row N-column antenna array, and each array element in each antenna pair in the antenna array is cross-polarized, wherein the method comprises steps of: a. performing (S1) horizontal direction baseband beamforming processing to S routes of data streams to be transmitted via the antenna array, to obtain T routes of data streams, wherein the T routes of data streams correspond to a number of CPRI/FH interfaces; b. performing (S2) vertical direction digital beamforming processing to said T routes of data streams, so as to map the T routes of data streams onto corresponding channels according to a predetermined rule, wherein the preset rule comprises: said T routes of data streams and the channels to which they are mapped meet the following condition: AP n × W _ DBF 0 + AP n + 16 × W _ DBF 1 = Tx 4 n , 4 n + 1,4 n + 2,4 n + 3 , n = 0 ... S − 1 , wherein, AP(n) and AP(n+16) denotes the nth -route data stream and the n+16th-route data stream in said T routes of data streams respectively; and, W_DBF0 and W_DBF1 denote corresponding digital beamforming weight coefficients of said AP(n) and AP(n+16) respectively, and Tx(4n,4n+1,4n+2,4n+3) denotes the channels to which they are mapped, wherein S is 16, T is 32; c. performing (S3) analog beamforming processing to a data stream on each channel so as to map the data stream on each channel to a corresponding array element of said antenna array for transmission. a. performing (S1) horizontal direction baseband beamforming processing to S routes of data streams to be transmitted via the antenna array, to obtain T routes of data streams, wherein the T routes of data streams correspond to a number of CPRI/FH interfaces; b. performing (S2) vertical direction digital beamforming processing to said T routes of data streams, so as to map the T routes of data streams onto corresponding channels according to a predetermined rule, wherein the preset rule comprises: said T routes of data streams and the channels to which they are mapped meet the following condition: AP n × W _ DBF 0 + AP n + 16 × W _ DBF 1 = Tx 4 n , 4 n + 1,4 n + 2,4 n + 3 , n = 0 ... S − 1 , wherein, AP(n) and AP(n+16) denotes the nth -route data stream and the n+16th-route data stream in said T routes of data streams respectively; and, W_DBF0 and W_DBF1 denote corresponding digital beamforming weight coefficients of said AP(n) and AP(n+16) respectively, and Tx(4n,4n+1,4n+2,4n+3) denotes the channels to which they are mapped, wherein S is 16, T is 32; c. performing (S3) analog beamforming processing to a data stream on each channel so as to map the data stream on each channel to a corresponding array element of said antenna array for transmission.
A method comprising the following steps: a) providing a device comprising: - a GaN/InGaN structure comprising an electrically conductive doped GaN layer which is locally covered by InGaN mesas , the InGaN mesas successively comprising a doped InGaN layer and an undoped or lightly doped InGaN layer having a thickness ranging from 0.25 to 3 nm, - an electrically insulating layer covering the electrically conductive doped GaN layer between the mesas , b) electrically connecting the electrically conductive doped GaN layer of the device and a counter electrode to a voltage or current generator, c) immersing the device and the counter electrode in an electrolytic solution, d) applying a voltage or a current between the electrically conductive doped GaN layer and the second electrode so as to porosify the doped InGaN layer of the mesas , e) forming an InGaN layer by epitaxy on the InGaN mesas , whereby a relaxed epitaxial InGaN layer is obtained. a) providing a device comprising: - a GaN/InGaN structure comprising an electrically conductive doped GaN layer which is locally covered by InGaN mesas , the InGaN mesas successively comprising a doped InGaN layer and an undoped or lightly doped InGaN layer having a thickness ranging from 0.25 to 3 nm, - an electrically insulating layer covering the electrically conductive doped GaN layer between the mesas , - a GaN/InGaN structure comprising an electrically conductive doped GaN layer which is locally covered by InGaN mesas , the InGaN mesas successively comprising a doped InGaN layer and an undoped or lightly doped InGaN layer having a thickness ranging from 0.25 to 3 nm, - an electrically insulating layer covering the electrically conductive doped GaN layer between the mesas , b) electrically connecting the electrically conductive doped GaN layer of the device and a counter electrode to a voltage or current generator, c) immersing the device and the counter electrode in an electrolytic solution, d) applying a voltage or a current between the electrically conductive doped GaN layer and the second electrode so as to porosify the doped InGaN layer of the mesas , e) forming an InGaN layer by epitaxy on the InGaN mesas , whereby a relaxed epitaxial InGaN layer is obtained.
A method of producing a non-oriented electrical steel sheet by subjecting a steel slab comprising C: 0.015-0.05 mass%, Si: not more than 4 mass%, Mn: 0.05-3 mass%, Al: not more than 3 mass%, S: not more than 0.005 mass%, N: not more than 0.005 mass%, optionally further comprising at least one of Sn and Sb in an amount of 0.005-0.1 mass%, respectively and the remainder being Fe and inevitable impurities to hot rolling, cold rolling and finish annealing, characterized in that the finish annealing is conducted under conditions that an average temperature rising rate during the heating is not less than 100°C/sec and a soaking temperature is a temperature range of 750-1100°C.
A label attaching apparatus for attaching labels to a commodity, the label attaching apparatus comprising: a plurality of label issuing mechanisms configured to issue the labels; a plurality of label attaching mechanisms configured to attach the plurality of labels issued from the plurality of label issuing mechanisms to the commodity; an acquisition part configured to acquire commodity information about the commodity; and a control part configured to control operations of the plurality of label attaching mechanisms, characterized in that the control part is configured to switch to a first mode in which all of the labels to be attached to the commodity are attached to the commodity by the plurality of label attaching mechanisms or to a second mode in which some of the labels to be attached to the commodity are attached to the commodity by one of the label attaching mechanisms and the remaining labels to be attached to the commodity are carried by another label attaching mechanism to an ejection position accessible to an operator's hand to be manually attached to the commodity, and in that the control part is configured to determine, on the basis of the commodity information acquired by the acquisition part, whether or not the plurality of label attaching mechanisms come within a given distance from each other, and switches to the second mode when the plurality of label attaching mechanisms come within the given distance from each other. a plurality of label issuing mechanisms configured to issue the labels; a plurality of label attaching mechanisms configured to attach the plurality of labels issued from the plurality of label issuing mechanisms to the commodity; an acquisition part configured to acquire commodity information about the commodity; and a control part configured to control operations of the plurality of label attaching mechanisms, characterized in that the control part is configured to switch to a first mode in which all of the labels to be attached to the commodity are attached to the commodity by the plurality of label attaching mechanisms or to a second mode in which some of the labels to be attached to the commodity are attached to the commodity by one of the label attaching mechanisms and the remaining labels to be attached to the commodity are carried by another label attaching mechanism to an ejection position accessible to an operator's hand to be manually attached to the commodity, and in that the control part is configured to determine, on the basis of the commodity information acquired by the acquisition part, whether or not the plurality of label attaching mechanisms come within a given distance from each other, and switches to the second mode when the plurality of label attaching mechanisms come within the given distance from each other.
A base station device comprising: a transmitter configured to transmit a transport block that includes a plurality of code block groups; and a receiver configured to receive a confirmation signal which indicates that one or more code block groups of the plurality of code block groups has not been successfully received, wherein the transmitter transmits a control signal after the receiver receives the confirmation signal, and the control signal comprises first information that indicates the one or more code block groups to be retransmitted and second information that indicates user equipment is to either recover data by combining the one or more code block groups being retransmitted with the earlier received one or more code block groups stored in a buffer, or recover data from the one or more code block groups being retransmitted and delete the earlier received one or more code block groups stored in the buffer. a transmitter configured to transmit a transport block that includes a plurality of code block groups; and a receiver configured to receive a confirmation signal which indicates that one or more code block groups of the plurality of code block groups has not been successfully received, wherein the transmitter transmits a control signal after the receiver receives the confirmation signal, and the control signal comprises first information that indicates the one or more code block groups to be retransmitted and second information that indicates user equipment is to either recover data by combining the one or more code block groups being retransmitted with the earlier received one or more code block groups stored in a buffer, or recover data from the one or more code block groups being retransmitted and delete the earlier received one or more code block groups stored in the buffer.
A computer-implemented method of operating a first base station of a network, wherein the method comprises the steps: receiving, from a controller of the network, and storing at the first base station a first access ID list comprising a plurality of first access IDs, the first access ID list being one of a plurality of access ID lists generated by the controller of the network and wherein the first access ID list is assigned only to the first base station; initiating communications with each of one or more mobile devices (MS1, MS2, MS3, MS4), assigning to each of the one or more of mobile devices an access ID of the plurality of the first access IDs received by the first base station and stored therein; determining that a handover trigger has occurred ; and in response to the determination that the handover trigger has occurred, handing over communications with at least one mobile device of the one or more mobile devices to at least one second base station, wherein the handing over comprises: sending a list from the first base station to the at least one second base station , wherein the list includes the access ID for each of the mobile devices that are part of the handover. receiving, from a controller of the network, and storing at the first base station a first access ID list comprising a plurality of first access IDs, the first access ID list being one of a plurality of access ID lists generated by the controller of the network and wherein the first access ID list is assigned only to the first base station; initiating communications with each of one or more mobile devices (MS1, MS2, MS3, MS4), assigning to each of the one or more of mobile devices an access ID of the plurality of the first access IDs received by the first base station and stored therein; determining that a handover trigger has occurred ; and in response to the determination that the handover trigger has occurred, handing over communications with at least one mobile device of the one or more mobile devices to at least one second base station, wherein the handing over comprises: sending a list from the first base station to the at least one second base station , wherein the list includes the access ID for each of the mobile devices that are part of the handover.
An airbag device for a saddle-type vehicle, comprising: a retainer that is provided in front of a seat for a rider; an inflator ; and an airbag that is housed in the retainer , is inflated by means of a gas discharged by the inflator and is deployed in front of the rider, wherein the retainer comprises a top surface opening through which the airbag , which deploys upwardly, passes, the top surface opening being disposed rearward of a steering shaft , and the retainer comprises a rider-side opening that communicates with the top surface opening and is opened rearwardly toward the seat side, characterized in that the rider-side opening is cut out from a top end of a rear surface part of an upper peripheral wall part , of the retainer , that partitions the top surface opening , the retainer comprises a box-shaped case , a rear surface of which is opened, and a cover that covers a rear surface opening of the case , and the rider-side opening is cut out from the top end of the cover , and the top surface opening and the rider-side opening are closed with a cover member that is attached to a top end part of the retainer . a retainer that is provided in front of a seat for a rider; an inflator ; and an airbag that is housed in the retainer , is inflated by means of a gas discharged by the inflator and is deployed in front of the rider, wherein the retainer comprises a top surface opening through which the airbag , which deploys upwardly, passes, the top surface opening being disposed rearward of a steering shaft , and the retainer comprises a rider-side opening that communicates with the top surface opening and is opened rearwardly toward the seat side, characterized in that the rider-side opening is cut out from a top end of a rear surface part of an upper peripheral wall part , of the retainer , that partitions the top surface opening , the retainer comprises a box-shaped case , a rear surface of which is opened, and a cover that covers a rear surface opening of the case , and the rider-side opening is cut out from the top end of the cover , and the top surface opening and the rider-side opening are closed with a cover member that is attached to a top end part of the retainer .
A compound of formula wherein n is 1 or 2; R 1 and R 2 are selected from-CH 3 and -Cl, wherein R 1 and R 2 cannot both be - CH 3 or both be -Cl; R 3 and R 4 are selected from -H and -CH 3 , wherein R 3 and R 4 cannot both be - CH 3 ; R 5 is selected from -C 1 -C 3 alkyl optionally substituted with -OH or -CF 3 ; -OC 1 -C 4 alkyl; C 3 -C 6 cycloalkyl; pyrazolyl, oxazolyl, thiazolyl, or thiadiazolyl, wherein pyrazolyl, oxazolyl, or thiazolyl each may be optionally substituted one to two times with -CH 3 or -CH 2 CH 3 ; pyridinyl, pyridazinyl, pyrimidinyl, or pyrazinyl; and phenyl optionally substituted with -OCH 3 ; provided that when n is 1, R 1 is -CH 3 , R 2 is -Cl and R 3 or R 4 is -CH 3 , then R 5 cannot be cyclopropyl or a pharmaceutically acceptable salt thereof, and further provided that the compound is not tert -butyl N-[ -2-[4-[2-(4-amino-6-chloro-2-methyl-pyrimidin-5-yl)ethyl]-1-piperidyl]-1-methyl-2-oxo-ethyl]carbamate. n is 1 or 2; R 1 and R 2 are selected from-CH 3 and -Cl, wherein R 1 and R 2 cannot both be - CH 3 or both be -Cl; R 3 and R 4 are selected from -H and -CH 3 , wherein R 3 and R 4 cannot both be - CH 3 ; R 5 is selected from -C 1 -C 3 alkyl optionally substituted with -OH or -CF 3 ; -OC 1 -C 4 alkyl; C 3 -C 6 cycloalkyl; pyrazolyl, oxazolyl, thiazolyl, or thiadiazolyl, wherein pyrazolyl, oxazolyl, or thiazolyl each may be optionally substituted one to two times with -CH 3 or -CH 2 CH 3 ; pyridinyl, pyridazinyl, pyrimidinyl, or pyrazinyl; and phenyl optionally substituted with -OCH 3 ; provided that when n is 1, R 1 is -CH 3 , R 2 is -Cl and R 3 or R 4 is -CH 3 , then R 5 cannot be cyclopropyl or a pharmaceutically acceptable salt thereof, and further provided that the compound is not tert -butyl N-[ -2-[4-[2-(4-amino-6-chloro-2-methyl-pyrimidin-5-yl)ethyl]-1-piperidyl]-1-methyl-2-oxo-ethyl]carbamate.
A method for performing a gateway relocation comprising: determining that a gateway relocation is to be performed; allocating a new internet protocol address to a user equipment (UE) or host using an old internet protocol address; performing a gateway relocation after allocating the new internet protocol address; providing an intermediate phase; wherein in the intermediate phase both the old internet protocol address and the new internet protocol address can be used in parallel and the old gateway (S/PGW1; 1220) and the new gateway (S/PGW2; 1220) can be used in parallel; and releasing resources in the old gateway. determining that a gateway relocation is to be performed; allocating a new internet protocol address to a user equipment (UE) or host using an old internet protocol address; performing a gateway relocation after allocating the new internet protocol address; providing an intermediate phase; wherein in the intermediate phase both the old internet protocol address and the new internet protocol address can be used in parallel and the old gateway (S/PGW1; 1220) and the new gateway (S/PGW2; 1220) can be used in parallel; and releasing resources in the old gateway.
Self-scalable footwear comprising a bi-elastic material upper and a mono-elastic , a bi-material outsole in TR and a mounting insole , characterized in that the bi-elastic material of the upper is divided in three layers (8 and 9), the second layer being composed of a latex foam material with SBR (styrene butadiene rubber) with a thickness of 1.3 to 5 mm, preferably 2 mm, and specific gravity between 140 kg/m3 and 350 kg/m 3 , preferably 270 kg/m 3 .
An ultrasound imaging apparatus comprising: - a data interface configured to receive ultrasound data within a field of view and resulting from an ultrasound scan of an object using an ultrasound probe, - a segmentation unit for segmenting anatomical structures of the object in the ultrasound data and arranged to provide segmentation data of the anatomical structures, - a reference determining unit adapted to determine a spatial reference for the ultrasound data on the basis of the segmentation data, wherein the spatial reference comprises a reference frame including at least one reference position and one reference direction of the object, wherein the reference determining unit is adapted to determine a spatial orientation of the object in the field of view of the ultrasound scan on the basis of the spatial reference, and - a confidence determining unit arranged to determine confidence values corresponding to an expected quality and/or reliability of the received ultrasound data which influence a diagnosis based on ultrasound images for different regions of the received ultrasound data, wherein the confidence values are determined on the basis of the spatial orientation of the object in the field of view and hence on the orientation of the ultrasound probe with respect to the anatomical structures of the object. - a data interface configured to receive ultrasound data within a field of view and resulting from an ultrasound scan of an object using an ultrasound probe, - a segmentation unit for segmenting anatomical structures of the object in the ultrasound data and arranged to provide segmentation data of the anatomical structures, - a reference determining unit adapted to determine a spatial reference for the ultrasound data on the basis of the segmentation data, wherein the spatial reference comprises a reference frame including at least one reference position and one reference direction of the object, wherein the reference determining unit is adapted to determine a spatial orientation of the object in the field of view of the ultrasound scan on the basis of the spatial reference, and - a confidence determining unit arranged to determine confidence values corresponding to an expected quality and/or reliability of the received ultrasound data which influence a diagnosis based on ultrasound images for different regions of the received ultrasound data, wherein the confidence values are determined on the basis of the spatial orientation of the object in the field of view and hence on the orientation of the ultrasound probe with respect to the anatomical structures of the object.