mhurhangee/ep-ind-claims huggingface dataset:
A froth flotation arrangement for treating mineral ore particles suspended in slurry, comprising a flotation cell for separating the slurry into an underflow and an overflow, wherein the arrangement comprises: - a primary line comprising at least three flotation cells connected in series, wherein each subsequent flotation cell is arranged to receive the underflow from the previous flotation cell, - the flotation cell comprising a tank, and the flotation cell comprising an impeller within the tank, and - the flotation cell comprising g a gas supply within the tank, - the tank comprising a volume of at least 200 m 3, - the flotation cell comprising a froth collection launder capable to receive the overflow, - the froth collection launder comprising a froth overflow lip, - the flotation cell having an available froth surface area (A froth), - the flotation cell having a pulp area (A pulp), where the pulp area (A pulp) is calculated as an average from the cross sectional areas of the tank at the height of the impeller, - a ratio between a height (h) from a bottom of the tank to the froth overflow lip of the froth collection launder and the diameter of the tank at the height of the impeller (h/D) is less than 1,5, - characterized in that the third flotation cell or subsequent flotation cell in the series has a ratio between an available froth surface area and the pulp area (A froth /A pulp) less than 0,45; and that the froth collection launders are positioned in radial direction (r) of the tank and an average froth transport distance (d tr) is less than 100 cm. - a primary line comprising at least three flotation cells connected in series, wherein each subsequent flotation cell is arranged to receive the underflow from the previous flotation cell, - the flotation cell comprising a tank, and the flotation cell comprising an impeller within the tank, and - the flotation cell comprising g a gas supply within the tank, - the tank comprising a volume of at least 200 m 3, - the flotation cell comprising a froth collection launder capable to receive the overflow, - the froth collection launder comprising a froth overflow lip, - the flotation cell having an available froth surface area (A froth), - the flotation cell having a pulp area (A pulp), where the pulp area (A pulp) is calculated as an average from the cross sectional areas of the tank at the height of the impeller, - a ratio between a height (h) from a bottom of the tank to the froth overflow lip of the froth collection launder and the diameter of the tank at the height of the impeller (h/D) is less than 1,5, - characterized in that the third flotation cell or subsequent flotation cell in the series has a ratio between an available froth surface area and the pulp area (A froth /A pulp) less than 0,45; and that
A method of operation of a User Equipment, UE, of a cellular communications network comprising: receiving a retransmission that would require a total number of memory accesses to process that is greater than a memory access bandwidth of a soft buffer of the UE; and prioritizing which bits should be read from or written to, the soft buffer of the UE when processing the retransmission based on the memory access bandwidth, any previously received redundancy versions, and/or a currently received redundancy version, wherein prioritizing comprises writing bits to the soft buffer of the UE to maximize a number of bits that overlaps between a previous transmission and the retransmission and therefore not all of the bits will be read from the soft buffer of the UE when processing the retransmission. receiving a retransmission that would require a total number of memory accesses to process that is greater than a memory access bandwidth of a soft buffer of the UE; and prioritizing which bits should be read from or written to, the soft buffer of the UE when processing the retransmission based on the memory access bandwidth, any previously received redundancy versions, and/or a currently received redundancy version, wherein prioritizing comprises writing bits to the soft buffer of the UE to maximize a number of bits that overlaps between a previous transmission and the retransmission and therefore not all of the bits will be read from the soft buffer of the UE when processing the retransmission.
An electronic device, comprising: a pixel comprising: a single photon avalanche diode (SPAD) having a cathode coupled to a high voltage node, and an anode selectively coupled to ground through an enable circuit; and a clamp diode having an anode coupled to the anode of the SPAD and a cathode coupled to a turn-off voltage node; characterized in that the electronic device further comprises a turn-off circuit comprising: a sense circuit (R1, R2) coupled between the turn-off voltage node and ground and configured to generate a feedback voltage; and a regulation circuit (16, 17) configured to sink current from the turn-off voltage node to ground based upon the feedback voltage such that a voltage at the turn-off voltage node maintains generally constant. a single photon avalanche diode (SPAD) having a cathode coupled to a high voltage node, and an anode selectively coupled to ground through an enable circuit; and a clamp diode having an anode coupled to the anode of the SPAD and a cathode coupled to a turn-off voltage node; characterized in that the electronic device further comprises a turn-off circuit comprising: a sense circuit (R1, R2) coupled between the turn-off voltage node and ground and configured to generate a feedback voltage; and a regulation circuit (16, 17) configured to sink current from the turn-off voltage node to ground based upon the feedback voltage such that a voltage at the turn-off voltage node maintains generally constant. a sense circuit (R1, R2) coupled between the turn-off voltage node and ground and configured to generate a feedback voltage; and a regulation circuit (16, 17) configured to sink current from the turn-off voltage node to ground based upon the feedback voltage such that a voltage at the turn-off voltage node maintains generally constant.
Automotive body sheet in the form of an aluminium composite sheet material wherein a clad sheet is applied to at least one side of a core material, and wherein the core material consists of an aluminium alloy selected from the group consisting of AA5022, AA5023, AA5082, AA5182, AA5186, AA5059, AA5083, AA5058 and AA5088-series alloys, and wherein the clad sheet consists of AA5754, AA5051A, AA5018 and AA6016-series alloys.
A polarized mirrored glasses lens, which has, in order from the light incidence side, at least a reflection-polarization film layer and an absorption-polarization film layer, wherein the transmission axes of said layers are aligned, and wherein the light incidence side is a convex spherical or aspherical surface, and characterised in that a colored absorption-polarization film layer is arranged on the light incidence side of the reflection-polarization film layer with the transmission axes of said layers being aligned.
A method performed by a user equipment, UE, that aggregates a cell of a first base station and a cell of a second base station in a communication system, the method comprising: receiving, from the first base station, a radio resource control, RRC, message including information on a threshold value; identifying (611, 631) that a buffer status report, BSR, corresponding to a buffer, is triggered; and transmitting (615, 633) the triggered BSR to the first base station, characterised by, in case that the UE is, after transmitting the triggered BSR to the first base station, allocated with uplink resources from the second base station and an amount of data volume for the UE in the buffer is 15 smaller than the threshold value, a further BSR is transmitted to the second base station. receiving, from the first base station, a radio resource control, RRC, message including information on a threshold value; identifying (611, 631) that a buffer status report, BSR, corresponding to a buffer, is triggered; and transmitting (615, 633) the triggered BSR to the first base station, characterised by, in case that the UE is, after transmitting the triggered BSR to the first base station, allocated with uplink resources from the second base station and an amount of data volume for the UE in the buffer is 15 smaller than the threshold value, a further BSR is transmitted to the second base station.
An electronic device comprising: an input interface; a display; a battery; and a processor configured to: generate a plurality of windows to be displayed on the display, identify a different power consumption level for executing an application program in each window, and execute the application program in each window based on the different power consumption level, wherein the processor is configured to adjust at least one of performance for graphic works, a haptic function, the number of frames, a color palette quantization bit level, and a frequency sampling level, in each window based on the different power consumption level. an input interface; a display; a battery; and a processor configured to: generate a plurality of windows to be displayed on the display, identify a different power consumption level for executing an application program in each window, and execute the application program in each window based on the different power consumption level, generate a plurality of windows to be displayed on the display, identify a different power consumption level for executing an application program in each window, and execute the application program in each window based on the different power consumption level,
A glass-based article comprising: a glass-based substrate comprising opposing first and second surfaces defining a substrate thickness ( t); a central composition at the center of the glass-based article comprising lithium and sodium, and a Li 2 O/Na 2 O molar ratio of greater than or equal to 0.65 and less than or equal to 1.2; and a fracture toughness corresponding to the central composition in the range of greater than or equal to 0.7 MPa*sqrt(m) to less than or equal to 1.3 MPa*sqrt(m). a glass-based substrate comprising opposing first and second surfaces defining a substrate thickness ( t); a central composition at the center of the glass-based article comprising lithium and sodium, and a Li 2 O/Na 2 O molar ratio of greater than or equal to 0.65 and less than or equal to 1.2; and a fracture toughness corresponding to the central composition in the range of greater than or equal to 0.7 MPa*sqrt(m) to less than or equal to 1.3 MPa*sqrt(m).
Combustion chamber of a gas turbine, with a combustion chamber wall and with at least one shingle which comprises a plate-shaped shingle body which has a peripheral shingle edge which is elevated from the side which faces away from the combustion chamber interior, which shingle edge bears against the combustion chamber wall in the mounted state of the shingle, the shingle body being provided with an arrangement of effusion cooling holes, and the combustion chamber wall being provided with an arrangement of impingement cooling holes in the region of the shingle, the arrangement of effusion cooling holes comprising the entire shingle body, and effusion cooling holes being arranged within the spacing, and the arrangement of impingement cooling holes being at a lateral spacing from the shingle edge, which lateral spacing is between 1.5 and 2 times the spacing of the surface of the combustion chamber wall from the surface of the shingle body, characterized in that the spacing of the arrangement of the impingement cooling holes is between 1.1 and 3 times the lateral spacing in those corner regions of the shingle, in which mutually adjoining shingle edges meet.
A graft assembly including a unitary tubular graft element (40, 42) having a length, a first end, a second end and an axis; a plurality of stent elements (54, 56) extending along a majority of the length of the tubular graft element from the first end thereof, to provide a stented first portion of the tubular graft element; the tubular element from an end of the first stented portion to the second end being free of stents and forming a non-stented second portion of the tubular graft element; wherein the second portion is a minor portion of the length of the tubular graft element; the second portion having a circumference at least large as a circumference of the first portion so as to be eversible over the first portion to form a coaxially overlapping cuff to the tubular graft; and wherein the second portion of the tubular graft element (40, 42) has a larger open diameter than in that of the first portion of the tubular graft element.
A composition comprising a micelle construct loaded with an inhibitor of NF-kB, for use in the treatment of cancer in a subject, wherein the inhibitor of NF-kB is curcumin or salt thereof, and wherein the micelle construct is targeted to bind to glut-lvia a glut-1 antibody.
A method of feedback signaling, implemented in a wireless transmit/receive unit, WTRU, comprising: sending, using a high speed dedicated physical control channel, HS-DPCCH, channel quality indicator, CQI, information and hybrid automatic repeat request, HARQ, information associated with a first cell; and sending, using the HS-DPCCH, CQI information and HARQ information associated with a second cell; characterized in that the HARQ information associated with the first cell is concatenated with the HARQ information associated with the second cell, and the CQI information associated with the first cell is concatenated with the CQI information associated with the second cell and sent, appended to the concatenated HARQ information of the first and the second cells, in a same HS-DPCCH subframe. sending, using a high speed dedicated physical control channel, HS-DPCCH, channel quality indicator, CQI, information and hybrid automatic repeat request, HARQ, information associated with a first cell; and sending, using the HS-DPCCH, CQI information and HARQ information associated with a second cell; characterized in that the HARQ information associated with the first cell is concatenated with the HARQ information associated with the second cell, and the CQI information associated with the first cell is concatenated with the CQI information associated with the second cell and sent, appended to the concatenated HARQ information of the first and the second cells, in a same HS-DPCCH subframe.
A method for performing hierarchical super-resolution of an input image (I 0), comprising: - dividing the input image (I 0) into patches (P n); - performing spatial decomposition of the input image (I 0) to at least two lower decomposition levels, wherein at least two lower decomposition level images (I -1, L 2) are obtained; - generating an empty upsampled frame (I 1), wherein for each patch (P n) of the input image a corresponding upsampled patch in the upsampled frame (I 1) is generated; and for each current patch (P n) of the input image (I 0), performing: - searching in the lower decomposition level images (I -1,I -2) one or more similar patches (PN n,1, PN n,2, PN n,3) of same size as the current patch; - for each of the similar patches (PN n,1, PN n,2, PN n,3) found in the searching, determining its respective parent patch (PPN n,1, PPN n,2, PPN n,3) in the next higher decomposition level (I 0, I -1), wherein the parent patches are larger than the current patch; - weighting (w 1, w 2, w 3) the determined parent patches (PPN n,1, PPN n,2, PPN n,3), wherein a weight used for weighting a patch is determined from a sparsity of the patch, wherein the sparsity corresponds to a number of non-zero DCT coefficients in the patch, and wherein weighted determined parent patches are obtained; - accumulating the weighted determined parent patches, wherein an upsampled high-resolution patch (P Hn) is obtained; and - replacing, in the up-sampled frame (I 1), an upsampled patch corresponding to the current patch (P n) with the upsampled high-resolution patch (P Hn). - dividing the input image (I 0) into patches (P n); - performing spatial decomposition of the input image (I 0) to at least two lower decomposition levels, wherein at least two lower decomposition level images (I -1, L 2) are obtained; - generating an empty upsampled frame (I 1), wherein for each patch (P n) of the input image a corresponding upsampled patch in the upsampled frame (I 1) is generated; and - searching in the lower decomposition level images (I -1,I -2) one or more similar patches (PN n,1, PN n,2, PN n,3) of same size as the current patch; - for each of the similar patches (PN n,1, PN n,2, PN n,3) found in the searching, determining its respective parent patch (PPN n,1, PPN n,2, PPN n,3) in the next higher decomposition level (I 0, I -1), wherein the parent patches are larger than the current patch; - weighting (w 1, w 2, w 3) the determined parent patches (PPN n,1, PPN n,2, PPN n,3), wherein a weight used for weighting a patch is determined from a sparsity of the patch, wherein the sparsity corresponds to a number of non-zero DCT coefficients in the patch, and wherein weighted determined parent patches are obtained; - accumulating the weighted determined parent patches, wherein an upsampled high-resolution patch (P Hn) is obtained; and - replacing, in the up-sampled frame (I 1), an upsampled patch corresponding to the current patch (P n) with the upsampled high-resolution patch (P Hn).
An electronic security system, powered by electricity from the mains and/or from an autonomous power supply, and provided for locking and unlocking especially locks of objects, the electronic security system comprises at least one portable electronic controller with an internal memory to store a one-time control code, and at least one separately from the portable electronic controller arranged an electronic release unit with a central memory, a control processor and an actuator of this system, characterized in that a unique set of backup one-time control codes assigned to each portable electronic controller provided to control the relevant electronic release unit is stored in the central memory of each electronic release unit, and its control processor is programmed to pair the one-time control code with a backup one-time control code in the set of the backup one-time control codes by searching through sets of the backup one-time control codes, to put subsequently the actuator into operation, to replace the used one-time control code in the internal memory of the portable electronic controller with a copy of the next following backup one-time control code from the set of the backup one-time control codes, and to make a record of the use for the just used backup one-time control code in the central memory of the relevant electronic release unit to prevent the once used backup one-time control code from being used a second time, wherein the control processor is communicatively connected to both the central memory and to the actuator and to the internal memory as well, whose contact connection with the control processor is realisable by means of an activation contact of the electronic release unit, and of a connection contact of the portable electronic controller.
Method for insertion of a data in a block of image data, referred to as the current block, of a sequence of images, said current block being coded or being intended to be coded in the form of temporally predicted image data from prediction image data defined according to a first prediction mode, said prediction mode defining a partition of said block into one or more sub-blocks, said insertion method being characterized in that it comprises the modification (E10, E100, E110, E120), according to said data to be inserted, of said first prediction mode into a second prediction mode different from the first prediction mode with a view to coding of said current block according to said second prediction mode, said second prediction mode being defined so that the prediction image data obtained with said second prediction mode are identical to the prediction image data obtained with said first prediction mode, whereby said second prediction mode defines a partition of said current block in at least two sub-blocks.
A method of adjusting, by use of a controller, a plurality of initial real time load currents of a corresponding plurality of cutting head motors (22b, 24b, 26b, 28b, 30b, 32b) of a corresponding plurality of cutting head assemblies (22, 24, 26, 28, 30, 32) to form a plurality of adjusted real time load currents of the corresponding plurality of cutting head motors (22b, 24b, 26b, 28b, 30b, 32b) of the corresponding plurality of cutting head assemblies (22, 24, 26, 28, 30, 32) comprising: detecting by use of the controller the plurality of initial real time load currents; and adjusting the plurality of initial real time load currents to form the plurality of adjusted real time load currents through use of the controller so that each of the plurality of adjusted real time load currents is within a range defined by a lower limit and an upper limit in response to the plurality of initial real time load currents; and wherein the upper and lower limit are stored in a computer memory; and further comprising determining, by use of the controller, an average value for the plurality of adjusted real time load currents while the plurality of cutting head assemblies (22, 24, 26, 28, 30, 32) corresponding to the plurality of adjusted real time load currents are actively participating in grinding a material; and further adjusting, by use of the controller, one or more of the adjusted real time load currents to form a plurality of further adjusted real time load currents based on the average value. detecting by use of the controller the plurality of initial real time load currents; and adjusting the plurality of initial real time load currents to form the plurality of adjusted real time load currents through use of the controller so that each of the plurality of adjusted real time load currents is within a range defined by a lower limit and an upper limit in response to the plurality of initial real time load currents; and wherein the upper and lower limit are stored in a computer memory; and further comprising determining, by use of the controller, an average value for the plurality of adjusted real time load currents while the plurality of cutting head assemblies (22, 24, 26, 28, 30, 32) corresponding to the plurality of adjusted real time load currents are actively participating in grinding a material; and further adjusting, by use of the controller, one or more of the adjusted real time load currents to form a plurality of further adjusted real time load currents based on the average value.
Composition comprising a fibre, a binder, an accelerator and optional a paraffin emulsion, wherein the fibre comprises a wood raw material and at least 5% of non-wood material, consisting of a mixture of 0 - 40% inorganic parts, 5 - 81% synthetic organic parts and/or 0 - 22.5% rottable organic parts, wherein the used parts add to 100% non-wood raw material.