mhurhangee/ep-ind-claims huggingface dataset:
A method for encoding image data, the method comprising: accessing an input data block including input data block values relating to image data, said input data block comprising a first data block represented as a two-dimensional matrix X; accessing a prediction data block including prediction data block values, said prediction data block comprising a second data block represented as a two-dimensional matrix Y; generating, by a computing system, a projection factor for a projection of the input data block onto the prediction data block, said projection factor comprising a scalar quantity p calculated as a representation of 〈 X, Y 〉 〈 Y, Y 〉, wherein 〈 X, Y 〉 is the inner product of X and Y and 〈 Y,Y 〉 is the inner product of Y and Y; generating, by the computing system, scaled prediction data block values by multiplying the projection factor by the prediction data block values to calculate ρ Y; and generating, by the computing system, residual data block values from a difference between corresponding input data block values and scaled prediction data block values by calculating e = X - ρ Y, wherein a third data block includes the residual data block values in a two-dimensional matrix e. accessing an input data block including input data block values relating to image data, said input data block comprising a first data block represented as a two-dimensional matrix X; accessing a prediction data block including prediction data block values, said prediction data block comprising a second data block represented as a two-dimensional matrix Y; generating, by a computing system, a projection factor for a projection of the input data block onto the prediction data block, said projection factor comprising a scalar quantity p calculated as a representation of 〈 X, Y 〉 〈 Y, Y 〉, wherein 〈 X, Y 〉 is the inner product of X and Y and 〈 Y,Y 〉 is the inner product of Y and Y; generating, by the computing system, scaled prediction data block values by multiplying the projection factor by the prediction data block values to calculate ρ Y; and generating, by the computing system, residual data block values from a difference between corresponding input data block values and scaled prediction data block values by calculating e = X - ρ Y, wherein a third data block includes the residual data block values in a two-dimensional matrix e.
A method for producing a passport book block for a book-like identification, value or security document, the identification, value or security document comprising a cover as well as a passport book block, comprising a data card, a plurality of double pages, an endpaper and a spine tape, the data card comprising a flexible tab connected along a border to the data card, the data card comprising the flexible tab, the double pages, the endpaper and the spine tape being sewn together by way of a seam, and the cover with an inner side being adhesively bonded in a planar manner to an outer side of the endpaper, the method comprising the following steps: - providing an endpaper; - providing a spine tape, the spine tape being supplied as an endless tape and comprising an adhesive layer which has an activation temperature; - cutting the spine tape to the required length; - aligning and placing the spine tape onto the endpaper; and - heating the adhesive layer to the activation temperature, and integrally connecting the spine tape to the endpaper. - providing an endpaper; - providing a spine tape, the spine tape being supplied as an endless tape and comprising an adhesive layer which has an activation temperature; - cutting the spine tape to the required length; - aligning and placing the spine tape onto the endpaper; and - heating the adhesive layer to the activation temperature, and integrally connecting the spine tape to the endpaper.
Building covering element comprising at least one fastening device, preferably arranged to be stationary, comprising an outer section which is directed towards the outside of a building to be provided with the building covering element, at least one film element comprising an outer film layer to be arranged on the outside of the building and anchored to an edge section on the fastening device, and comprising at least one thermal insulating element, characterised in that the thermal insulating element with a first section is arranged on the outer section of the fastening device and with at least one second section bears on the edge section of the outer film layer of at least one film element.
A method for preparing an implant for a dural defect comprising providing a layer of a first solution containing a first hydrogel precursor, the first solution having a first viscosity; applying a layer of a second solution directly onto the layer of a first solution, the second solution having a viscosity lower than the viscosity of the first solution; and lyophilizing the first and second solution to provide a first porous sublayer containing the first hydrogel precursor secured to a second porous sublayer, the method further comprising freezing the first and second solutions and applying a third solution directly onto the second layer prior to lyophilizing, wherein the third solution comprises a second hydrogel precursor, wherein the first and second hydrogel precursors are intended to be activated by the body fluids once the implant is implanted, in order to induce in situ formation of a hydrogel providing both stickiness and sealing properties to the implant.
An apparatus for inducing motion of a fluid relative to the apparatus, the apparatus having an impeller, the impeller comprising: a hub (10;20;30;60;80;100;184) and a blade (12;22;32;34;62A;64A;66A;62B;64B;66B;82;84;86;88;102;104;106;108; 110;112;120;140;144;160;180) supported by the hub, the blade having a proximal end attached to the hub and a distal end, the impeller having a deployed configuration in which the blade extends away from the hub and a stored configuration in which the impeller is radially compressed to move the distal end of the blade towards the hub; and a sleeve (14;24;36), characterized in that the sleeve (14;24;36) is having an expandable portion, in which the impeller is located when in the deployed configuration, and a non-expandable portion, in which the impeller is located when in the stored configuration, and wherein the fluid flows through the expandable portion of the sleeve (14;24;36) when the impeller rotates. a hub (10;20;30;60;80;100;184) and a blade (12;22;32;34;62A;64A;66A;62B;64B;66B;82;84;86;88;102;104;106;108; 110;112;120;140;144;160;180) supported by the hub, the blade having a proximal end attached to the hub and a distal end, the impeller having a deployed configuration in which the blade extends away from the hub and a stored configuration in which the impeller is radially compressed to move the distal end of the blade towards the hub; and a sleeve (14;24;36), the sleeve (14;24;36) is having an expandable portion, in which the impeller is located when in the deployed configuration, and a non-expandable portion, in which the impeller is located when in the stored configuration, and wherein the fluid flows through the expandable portion of the sleeve (14;24;36) when the impeller rotates.
A baffled insulating garment/blanket panel (20, 520) comprising: a first layer; a second layer having folds forming trough-shaped walls comprising a first wall, a second wall (54-2, 54-6) and a third wall (54-3, 54-4), wherein each of the first wall, second wall (54-2, 54-6) and the third wall (54-3, 54-4) has a trough bottom and a trough top and wherein the trough bottom is secured adjacent to the first layer; an insulating particle layer comprising: a first portion (60-1, 80-3) between the first wall and the second wall (54-2, 54-6) and sandwiched between the first layer and the second layer; and a second portion (60-2, 80-1) between the second wall (54-2, 54-6) and the third wall (54-3, 54-4) and sandwiched between the first layer and the second layer; and a third layer having folds forming consecutive trough-shaped walls comprising a fourth wall secured within the first wall and a fifth wall (64-2, 64-3) secured within the third wall (54-3, 54-4), characterised in that portions of the third layer between the fourth wall and the fifth wall (64-2, 64-3) span across the trough top of the second wall (54-2, 54-6). a first layer; a second layer having folds forming trough-shaped walls comprising a first wall, a second wall (54-2, 54-6) and a third wall (54-3, 54-4), wherein each of the first wall, second wall (54-2, 54-6) and the third wall (54-3, 54-4) has a trough bottom and a trough top and wherein the trough bottom is secured adjacent to the first layer; an insulating particle layer comprising: a first portion (60-1, 80-3) between the first wall and the second wall (54-2, 54-6) and sandwiched between the first layer and the second layer; and a second portion (60-2, 80-1) between the second wall (54-2, 54-6) and the third wall (54-3, 54-4) and sandwiched between the first layer and the second layer; and a first portion (60-1, 80-3) between the first wall and the second wall (54-2, 54-6) and sandwiched between the first layer and the second layer; and a second portion (60-2, 80-1) between the second wall (54-2, 54-6) and the third wall (54-3, 54-4) and sandwiched between the first layer and the second layer; and a third layer having folds forming consecutive trough-shaped walls comprising a fourth wall secured within the first wall and a fifth wall (64-2, 64-3) secured within the third wall (54-3, 54-4), characterised in that portions of the third layer between the fourth wall and the fifth wall (64-2, 64-3) span across the trough top of the second wall (54-2, 54-6).
An enclosed carton having a top panel in folded connection with a second panel, the top panel having an interior tuck tab disposed thereon, the interior tuck tab comprising: a perimeter defined by a line of weakness for separating the interior tuck tab from the top panel; a first fold line for hingedly connecting the interior tuck tab to the top panel and a second fold line spaced apart from the first fold line; and characterized in that the interior tuck tab further comprises a pair of notches (121, 123) disposed on the interior tuck tab substantially parallel to the second fold line, the pair of notches (121, 123) comprises at least one of: a pair of slits, a pair of cuts, or a pair of V-shaped notches, formed in adjoining sections at opposite ends of the second fold line. a perimeter defined by a line of weakness for separating the interior tuck tab from the top panel; a first fold line for hingedly connecting the interior tuck tab to the top panel and a second fold line spaced apart from the first fold line; and characterized in that the interior tuck tab further comprises a pair of notches (121, 123) disposed on the interior tuck tab substantially parallel to the second fold line, the pair of notches (121, 123) comprises at least one of: a pair of slits, a pair of cuts, or a pair of V-shaped notches, formed in adjoining sections at opposite ends of the second fold line.
A system for selecting a public land mobile network, PLMN, comprising a mobility management entity, MME, and a base station, wherein the MME is configured to: receive (201, 303) an extended service request message from a terminal device, wherein the extended service request message includes a circuit switched fallback, CSFB, indication indicating that the terminal device intends to execute a CSFB; send (202, 304) an S1 interface application protocol request message to the base station, wherein the S1 interface application protocol request message includes a location area identity, LAI, and the LAI includes a PLMN identity, wherein the PLMN identity identifies a PLMN of a circuit switched, CS, domain to which the mobile switching center/visitor location register, MSC/VLR, selected for the terminal device by the MME belongs; the base station is configured to: receive (202, 304) the S1 interface application protocol request message from the MME; select (204, 306) a target cell of a packet switched handover, PS HO, of the terminal device, according to the PLMN identity. receive (201, 303) an extended service request message from a terminal device, wherein the extended service request message includes a circuit switched fallback, CSFB, indication indicating that the terminal device intends to execute a CSFB; send (202, 304) an S1 interface application protocol request message to the base station, wherein the S1 interface application protocol request message includes a location area identity, LAI, and the LAI includes a PLMN identity, wherein the PLMN identity identifies a PLMN of a circuit switched, CS, domain to which the mobile switching center/visitor location register, MSC/VLR, selected for the terminal device by the MME belongs; the base station is configured to: receive (202, 304) the S1 interface application protocol request message from the MME; select (204, 306) a target cell of a packet switched handover, PS HO, of the terminal device, according to the PLMN identity. receive (202, 304) the S1 interface application protocol request message from the MME; select (204, 306) a target cell of a packet switched handover, PS HO, of the terminal device, according to the PLMN identity.
A device for de-icing an air intake lip of an aircraft nacelle, said device comprising an air circulation network and a pre-exchanger installed in the air circulation network (1, 13), the air circulation network comprising collection means able to collect cool low-pressure air downstream of a fan, two collection means able to collect hot high-pressure air downstream of the compressor (10, 11), as well as controlled valves (6, 7, 8, 9, 14) and check valves (4, 5), the pre-exchanger comprising a low-pressure air intake connected by a piping of the air circulation network to the collection means able to collect cool low-pressure air, a high-pressure air intake, connected by a piping of the air circulation network to the collection means able to collect hot high-pressure air, a low-pressure air outlet and a high-pressure air outlet, characterized in that the low-pressure air outlet is able to open into the air intake lip of the aircraft nacelle via a piping of the air circulation network, and in that a piping of the air circulation network connected to the high-pressure air outlet comprises a check valve.
A device comprising: a processing circuit that receives input associated with a three dimensional 3D scene, wherein the input includes information associated with a first frame sequence at a first frame rate corresponding to a first camera and information associated with a second frame sequence at a second frame rate corresponding to a second camera; the first frame rate is faster than the second frame rate, wherein temporally synchronized image frames recorded in the first frame sequence and the second frame sequence at given timestamps are aligned, a three dimensional 3D model for a dynamic scene at the first frame rate is created, and synthesized image frame sequences associated with a plurality of additional viewpoints are generated at the first frame rate; and a memory that stores information for the processing circuit. a processing circuit that receives input associated with a three dimensional 3D scene, wherein the input includes information associated with a first frame sequence at a first frame rate corresponding to a first camera and information associated with a second frame sequence at a second frame rate corresponding to a second camera; the first frame rate is faster than the second frame rate, wherein temporally synchronized image frames recorded in the first frame sequence and the second frame sequence at given timestamps are aligned, a three dimensional 3D model for a dynamic scene at the first frame rate is created, and synthesized image frame sequences associated with a plurality of additional viewpoints are generated at the first frame rate; and a memory that stores information for the processing circuit.
Device for collecting or picking up fruits or other objects from the ground, said device comprising a container or basket adapted to be rotated on a rotation axis and defined by a plurality of elastic elements which extend between a first and a second opposite anchoring elements disposed or located rotatably along said axis of rotation, said container or basket allowing said fruits or other objects to get inside it due to elastic deformation of said elastic elements during rotation on said axis of said container in contact with the ground, wherein a terminal portion of at least one of said elastic elements is received inside a corresponding receiving seat of at least one of said anchoring elements which extends radially from an inserting or inlet aperture or entrance located on the external circumference of said at least one anchoring element so that an end portion of said at least one elastic element is engaged due to elastic deformation with corresponding engaging means of said at least one anchoring element; wherein access to said terminal portion can be obtained or gained from outside said receiving seat, in such a way that said end portion may be disengaged from said engaging means by elastically deforming said terminal portion, said terminal portion being therefore removable from said receiving seat by disengaging said end portion from said engaging means; characterized in that said receiving seat is blind or closed in the radial direction from said inserting aperture or entrance toward said axis of rotation, in that said terminal portion comprises a curved portion which is located before said end portion along said terminal portion and which confers to said terminal portion a substantially "U" or hook shape, and in that the distance between said end portion and said inserting or inlet aperture or entrance is less than the distance between said end portion and said curved portion.
A method for monitoring water quality in a water supply network, the method comprising: providing a plurality of sensor units at predefined locations along the water supply network communicating a detected sensor value from each respective sensor unit of said plurality of sensor units indicative of a parameter of water at the location of said respective sensor unit to a computer server in real-time said computer server recording the detected sensor values in a storage repository; analyzing said detected sensor values at said computer server in order to detect changes in quality of water moving between said sensor units; comparing by said computer of said communicated detected values from sequentially located sensor units for determining a localized abnormality; sending an alert to a user interface when an abnormality is determined at one or more of said sequentially located sensor units relative to other sequentially located sensor units; characterized by: analyzing at said computer server historical records stored in the repository, by comparing data from the same sensors over time to identify a slowly developing anomaly before it becomes malfunction or failure; recognizing said slowly developing anomaly as a sign of a progressive deterioration in a localized area; and wherein sending an alert includes a notification of said deterioration and a location thereof. providing a plurality of sensor units at predefined locations along the water supply network communicating a detected sensor value from each respective sensor unit of said plurality of sensor units indicative of a parameter of water at the location of said respective sensor unit to a computer server in real-time said computer server recording the detected sensor values in a storage repository; analyzing said detected sensor values at said computer server in order to detect changes in quality of water moving between said sensor units; comparing by said computer of said communicated detected values from sequentially located sensor units for determining a localized abnormality; sending an alert to a user interface when an abnormality is determined at one or more of said sequentially located sensor units relative to other sequentially located sensor units; characterized by: analyzing at said computer server historical records stored in the repository, by comparing data from the same sensors over time to identify a slowly developing anomaly before it becomes malfunction or failure; recognizing said slowly developing anomaly as a sign of a progressive deterioration in a localized area; and wherein sending an alert includes a notification of said deterioration and a location thereof. analyzing at said computer server historical records stored in the repository, by comparing data from the same sensors over time to identify a slowly developing anomaly before it becomes malfunction or failure; recognizing said slowly developing anomaly as a sign of a progressive deterioration in a localized area; and wherein sending an alert includes a notification of said deterioration and a location thereof.
A method comprising: obtaining beam training information by a user equipment, UE, in a wireless communication network, wherein the beam training information comprises a training period, a window size, and resource mapping information; transmitting an uplink pilot signal by the UE over one or more UE beams based on the received beam training information; and receiving a beam training complete command from a base station, BS, wherein the beam training complete command comprises a selected UE beam ID and a timing advance value associated with the selected UE beam for uplink transmission, wherein the uplink pilot signal is transmitted as a random access preamble over a random access channel, RACH, during a RACH procedure, wherein the RACH procedure is non-contention-based for subsequent beam tracking, and wherein the UE receives the random access preamble and a RACH resource via the resource mapping information. obtaining beam training information by a user equipment, UE, in a wireless communication network, wherein the beam training information comprises a training period, a window size, and resource mapping information; transmitting an uplink pilot signal by the UE over one or more UE beams based on the received beam training information; and receiving a beam training complete command from a base station, BS, wherein the beam training complete command comprises a selected UE beam ID and a timing advance value associated with the selected UE beam for uplink transmission, wherein the uplink pilot signal is transmitted as a random access preamble over a random access channel, RACH, during a RACH procedure, wherein the RACH procedure is non-contention-based for subsequent beam tracking, and wherein the UE receives the random access preamble and a RACH resource via the resource mapping information.
A process for the manufacture of a via for three dimensional stacking, packaging and/or heterogeneous integration of semiconductor devices and/or wafers comprising: (a) providing a microstructure on a carrier layer or substrate; (b) encapsulating the microstructure; characterized by the steps of (c) providing the microstructure as a polymer microstructure embodied as a photoresist; (d) coating the polymer microstructure photoresist with a layer of a first electrically conducting material to provide a coated microstructure; (e) encapsulating the coated microstructure photoresist within a second electrically insulating material such that the coated microstructure photoresist forms an interconnect between upper and lower surfaces of the second electrically insulating material. (a) providing a microstructure on a carrier layer or substrate; (b) encapsulating the microstructure; characterized by the steps of (c) providing the microstructure as a polymer microstructure embodied as a photoresist; (d) coating the polymer microstructure photoresist with a layer of a first electrically conducting material to provide a coated microstructure; (e) encapsulating the coated microstructure photoresist within a second electrically insulating material such that the coated microstructure photoresist forms an interconnect between upper and lower surfaces of the second electrically insulating material.