mhurhangee/ep-ind-claims huggingface dataset:
A wireless transmit receive unit, WTRU, comprising: a processor; and a memory comprising instructions that when executed by the processor cause the WTRU to: receive, via Radio Resource Control, RRC, signaling via a primary cell, PCell, with which the WTRU is connected, a configuration from an eNode B, the configuration comprising a parameter that is indicative of a periodicity at which one or more reference signals transmitted in an extension resource carrier are to be measured; perform a measurement on at least one reference signal in accordance with the indicated periodicity, the at least one reference signal received via a secondary cell, SCell, configured for the WTRU; and send a measurement report to the eNode B, the measurement report comprising the measurement, wherein cell-specific reference signals, CRSs, are transmitted from the PCell at a higher density in the time-domain than CRSs transmitted from the SCell. a processor; and a memory comprising instructions that when executed by the processor cause the WTRU to: receive, via Radio Resource Control, RRC, signaling via a primary cell, PCell, with which the WTRU is connected, a configuration from an eNode B, the configuration comprising a parameter that is indicative of a periodicity at which one or more reference signals transmitted in an extension resource carrier are to be measured; perform a measurement on at least one reference signal in accordance with the indicated periodicity, the at least one reference signal received via a secondary cell, SCell, configured for the WTRU; and send a measurement report to the eNode B, the measurement report comprising the measurement, wherein cell-specific reference signals, CRSs, are transmitted from the PCell at a higher density in the time-domain than CRSs transmitted from the SCell. receive, via Radio Resource Control, RRC, signaling via a primary cell, PCell, with which the WTRU is connected, a configuration from an eNode B, the configuration comprising a parameter that is indicative of a periodicity at which one or more reference signals transmitted in an extension resource carrier are to be measured; perform a measurement on at least one reference signal in accordance with the indicated periodicity, the at least one reference signal received via a secondary cell, SCell, configured for the WTRU; and send a measurement report to the eNode B, the measurement report comprising the measurement, wherein cell-specific reference signals, CRSs, are transmitted from the PCell at a higher density in the time-domain than CRSs transmitted from the SCell.
A device for the suction of air in injection molds and the subsequent expulsion of molded pieces, comprising a Venturi ejector connected to a first valve, so that when the mold is closed the first valve causes the suction of air in a mold cavity, the device comprising at least one insert made from porous material through which and by means of a communication duct defines a suction circuit, and a second valve, so that after the solidification of the plastic material, the second valve causes the air to be blown towards said at least one insert made of porous material, cleaning said at least one insert made of porous material, characterized in that said Venturi ejector is connected to the insert made of porous material through a pneumatic double-effect piston, that opens or close a duct connecting the Venturi ejector with the first valve or a duct for pressured air for cleaning the porous material connected with the second valve.
A device for filtering air, comprising: - an air filter comprising: a first and a second component for filtering air; and - a control system configured for receiving a sensed relative humidity of air, characterized in that: the first component is adapted for filtering air having a humidity level falling within a first humidity level range; the second component is adapted for filtering air having a humidity level falling within a second humidity level range different from the first humidity level range; and wherein the control system is further configured for selecting the most efficient component for filtering the air from the first or the second component depending on the sensed relative humidity of the air and depending on filtering efficiency of the first and the second component for the sensed relative humidity of the air. - an air filter comprising: a first and a second component for filtering air; and - a control system configured for receiving a sensed relative humidity of air, the first component is adapted for filtering air having a humidity level falling within a first humidity level range; the second component is adapted for filtering air having a humidity level falling within a second humidity level range different from the first humidity level range; and wherein the control system is further configured for selecting the most efficient component for filtering the air from the first or the second component depending on the sensed relative humidity of the air and depending on filtering efficiency of the first and the second component for the sensed relative humidity of the air.
Antisense oligonucleotide complementary to the TGF-beta2 nucleic acid sequence of SEQ ID NO. 2 of Fig. 2, wherein the oligonucleotide is GACC AGATGCA GGA (SEQ ID NO. 5), wherein nucleotides in bold letters are LNA modified oligonucleotides.
An overlay applicator tray comprising: a cradle comprising a device slot, wherein the device slot is configured to securely hold an electronic device in the cradle; an overlay applicator, wherein the overlay applicator comprises an overlay layer and an adhesive release liner, the overlay layer comprises a top side and a bottom side, the bottom side is configured to be adhered to a screen of the electronic device, and the adhesive release liner is removably attached to the bottom side of the overlay layer; an alignment piece coupling the cradle to the overlay applicator, wherein the alignment piece is configured to align the overlay layer of the overlay applicator with the screen as the overlay layer is applied to the screen when the electronic device is securely held in the device slot, and the overlay applicator is pre-aligned during manufacturing with the device slot of the cradle using the alignment piece; and a first pull tab on the adhesive release liner opposite the alignment piece, wherein the first pull tab is configured to be pulled to remove the adhesive release liner from the bottom side of the overlay layer and expose an adhesive of the overlay layer. a cradle comprising a device slot, wherein the device slot is configured to securely hold an electronic device in the cradle; an overlay applicator, wherein the overlay applicator comprises an overlay layer and an adhesive release liner, the overlay layer comprises a top side and a bottom side, the bottom side is configured to be adhered to a screen of the electronic device, and the adhesive release liner is removably attached to the bottom side of the overlay layer; an alignment piece coupling the cradle to the overlay applicator, wherein the alignment piece is configured to align the overlay layer of the overlay applicator with the screen as the overlay layer is applied to the screen when the electronic device is securely held in the device slot, and the overlay applicator is pre-aligned during manufacturing with the device slot of the cradle using the alignment piece; and a first pull tab on the adhesive release liner opposite the alignment piece, wherein the first pull tab is configured to be pulled to remove the adhesive release liner from the bottom side of the overlay layer and expose an adhesive of the overlay layer.
An embolization microcatheter, comprising: an elongated microcatheter body connectable at a proximal end thereof to a suspension reservoir and configured for passing therein a suspension of particles suspended in a suspension fluid; and a microcatheter head located at a distal end of said microcatheter body, wherein the microcatheter head has a length of from about 5 mm to about 30 mm, a maximal outer diameter of less than about 1.5 mm and comprises a proximal head section and a distal head section, wherein said proximal head section comprises a proximal wall forming a proximal section lumen, said proximal wall comprising a plurality of through-holes, wherein each of the plurality of through holes comprises slits having a length of 200-800 microns, thereby allowing passage therethrough of a portion of the suspension fluid while blocking passage of said particles; wherein said distal head section comprises a distal wall forming a distal section lumen, and a suspension delivery opening at a distal end of said distal end section; wherein said distal section is devoid of said through-holes; and wherein a spacing of said through-holes is set to enable a bending radius of at least 0.5mm while avoiding kinking of said microcatheter. an elongated microcatheter body connectable at a proximal end thereof to a suspension reservoir and configured for passing therein a suspension of particles suspended in a suspension fluid; and a microcatheter head located at a distal end of said microcatheter body, wherein the microcatheter head has a length of from about 5 mm to about 30 mm, a maximal outer diameter of less than about 1.5 mm and comprises a proximal head section and a distal head section, wherein said proximal head section comprises a proximal wall forming a proximal section lumen, said proximal wall comprising a plurality of through-holes, wherein each of the plurality of through holes comprises slits having a length of 200-800 microns, thereby allowing passage therethrough of a portion of the suspension fluid while blocking passage of said particles; wherein said distal head section comprises a distal wall forming a distal section lumen, and a suspension delivery opening at a distal end of said distal end section; wherein said distal section is devoid of said through-holes; and wherein a spacing of said through-holes is set to enable a bending radius of at least 0.5mm while avoiding kinking of said microcatheter.
An in vitro method for preparing a population of cells comprising hematopoietic stem cells enriched with immature primitive progenitors, the method comprising introducing a DNA fragment comprising the sequence of CXCR4 into collected stem cells.
A computer-implemented method for training a machine learning model for detecting irregularities in two-dimensional chest X-ray medical images, the method including: - segmenting at least one predetermined type of body region depicted in a two-dimensional chest X-ray medical image, said body region having a depicted irregularity of a known type, wherein the body region are the lungs; - defining a plurality of image segments each including at least part of the depicted body region; - training a machine learning model based on the image segments to detect similar irregularities 12) in other medical images; characterized in that: - a resolution of the image segments is maintained; - an image segment does not include more than one lung (11, 13); - the depicted irregularity is of known size and position; and - the image segments are defined so that the irregularity is contained in at least one image segment as a whole and there are no image segments that only contain part of the irregularity. - segmenting at least one predetermined type of body region depicted in a two-dimensional chest X-ray medical image, said body region having a depicted irregularity of a known type, wherein the body region are the lungs; - defining a plurality of image segments each including at least part of the depicted body region; - training a machine learning model based on the image segments to detect similar irregularities 12) in other medical images; characterized in that: - a resolution of the image segments is maintained; - an image segment does not include more than one lung (11, 13); - a resolution of the image segments is maintained; - an image segment does not include more than one lung (11, 13); - the depicted irregularity is of known size and position; and - the image segments are defined so that the irregularity is contained in at least one image segment as a whole and there are no image segments that only contain part of the irregularity.
Use of mineral foam curable in the presence of water for covering the surfaces of heaps, in particular of salt spoil heaps from mining, in a total layer thickness of at least 0.2 m, wherein the mineral foam has a raw density in the range from 0.2 to 2.0 kg/L.
A method for improving the yield during the production of crystalline alpha lactose, wherein (a) an aqueous lactose solution is adjusted to a temperature of between about 62 and 67 °C, (b) the solution is then cooled down to between about 20 and 30 °C, (c) the solution is held at this temperature for a period of from 0 to 5 h, (d) the solution is subsequently heated to between about 30 and 45 °C, (e) the solution is held at this temperature for a period of from 0 to 5 h, (f) the solution is then cooled down to about 10 °C, and (g) subsequently, the precipitated first amount of alpha lactose crystals is separated from the mother liquor, (h) an amount of a carbohydrate compound selected from the group consisting of L-glyceraldehyde, dihydroxyacetone, D-erythrose, D-threose; D-ribose, D- and L-xylulose; D-glucose, D-mannose, D-gulose, D-idose, D-galaktose, D-glucronsäure, D-galacturonsäure, N-acetyl-D-glucosamine, D-glucosamine, D-fructose, L-rhamnose; cellobiose, gentiobiose, isomaltose, isomaltulose, lactulose, laminaribiose, maltose, maltulose, melibiose, neohesperidose, neotrehalose, nigerose, rutinose, sophorose, saccharose, trehalose or their mixtures is added to the mother liquor such that the solubility product of the residual amount of lactose that is still soluble is exceeded, (i) the second amount of precipitated alpha lactose crystals is separated from the mother liquor, dried, and (j) both amounts of alpha lactose crystals are combined. (a) an aqueous lactose solution is adjusted to a temperature of between about 62 and 67 °C, (b) the solution is then cooled down to between about 20 and 30 °C, (c) the solution is held at this temperature for a period of from 0 to 5 h, (d) the solution is subsequently heated to between about 30 and 45 °C, (e) the solution is held at this temperature for a period of from 0 to 5 h, (f) the solution is then cooled down to about 10 °C, and (g) subsequently, the precipitated first amount of alpha lactose crystals is separated from the mother liquor, (h) an amount of a carbohydrate compound selected from the group consisting of L-glyceraldehyde, dihydroxyacetone, D-erythrose, D-threose; D-ribose, D- and L-xylulose; D-glucose, D-mannose, D-gulose, D-idose, D-galaktose, D-glucronsäure, D-galacturonsäure, N-acetyl-D-glucosamine, D-glucosamine, D-fructose, L-rhamnose; cellobiose, gentiobiose, isomaltose, isomaltulose, lactulose, laminaribiose, maltose, maltulose, melibiose, neohesperidose, neotrehalose, nigerose, rutinose, sophorose, saccharose, trehalose or their mixtures is added to the mother liquor such that the solubility product of the residual amount of lactose that is still soluble is exceeded, (i) the second amount of precipitated alpha lactose crystals is separated from the mother liquor, dried, and (j) both amounts of alpha lactose crystals are combined.
A method for identifying T lymphocytes that respond to specific target cell antigens by: i. increasing their mass through cellular activation; and/or ii. increasing their mass accumulation rate through activation; and/or iii. decreasing the target cell mass through killing the target cell; said method comprising using label-free optical imaging to identify a change in mass of the T cells and/or the target cells. i. increasing their mass through cellular activation; and/or ii. increasing their mass accumulation rate through activation; and/or iii. decreasing the target cell mass through killing the target cell;
A hearing device for automatically enabling a monitoring mode within the hearing device comprising: ∘ at least one sound reproducing unit arranged for receiving a first audio signal; ∘ an electronic module comprising a processor arranged to mix said received first audio signal and a monitored ambient sound signal, ∘ characterized in that the electronic module is arranged for collecting environment data based on events in the vicinity of said hearing device, and for obtaining said monitored ambient sound signal by automatically enabling of monitoring ambient sounds based on the environment data representing entering of the hearing device into a predefined location where monitoring sounds from the surroundings should be automatically enabled when entering. ∘ at least one sound reproducing unit arranged for receiving a first audio signal; ∘ an electronic module comprising a processor arranged to mix said received first audio signal and a monitored ambient sound signal, ∘ characterized in that the electronic module is arranged for collecting environment data based on events in the vicinity of said hearing device, and for obtaining said monitored ambient sound signal by automatically enabling of monitoring ambient sounds based on the environment data representing entering of the hearing device into a predefined location where monitoring sounds from the surroundings should be automatically enabled when entering.
A method by a user equipment, UE for power saving, the method comprising: receiving, from a special cell, a bandwidth part, BWP, switching message in Downlink Control Information, DCI; switching an active BWP of each of one or more secondary cells from a first BWP to a second BWP after receiving the BWP switching message; and monitoring the active BWP of each of the one or more secondary cells based on a DCI decoding result on a search space configuration of the DCI in the special cell, the search space configuration including locations of resource blocks in at least one of a time domain and a frequency domain for monitoring PDCCH candidates; wherein the active BWP of each of the one or more secondary cells is not configured with any search spaces, the special cell includes a primary cell, PCell, or a primary secondary cell, PSCell, to the UE, and the BWP switching message is an inter-cell BWP switching message. receiving, from a special cell, a bandwidth part, BWP, switching message in Downlink Control Information, DCI; switching an active BWP of each of one or more secondary cells from a first BWP to a second BWP after receiving the BWP switching message; and monitoring the active BWP of each of the one or more secondary cells based on a DCI decoding result on a search space configuration of the DCI in the special cell, the search space configuration including locations of resource blocks in at least one of a time domain and a frequency domain for monitoring PDCCH candidates; wherein the active BWP of each of the one or more secondary cells is not configured with any search spaces, the special cell includes a primary cell, PCell, or a primary secondary cell, PSCell, to the UE, and the BWP switching message is an inter-cell BWP switching message.
A method for implementing an invocation of a local service component by a browser, the method comprising: a client terminal receiving a connection request initiated by a browser terminal, requesting establishment of a communication connection based on a cross-domain communication protocol; the client terminal performing validity verification of the connection request; and the client terminal establishing a communication connection with the browser terminal based on the cross-domain communication protocol to allow the browser terminal to invoke a local service component, being a service component local to the client terminal, if the connection request passes the validity verification, the method being characterised in that J Z the client terminal selects a port of the client terminal, from a port list, for binding with the browser terminal, according to a set port binding priority order upon receiving the connection request initiated by the browser terminal requesting establishment of a communication connection based on the cross-domain communication protocol, the port binding priority order being consistent with a port selection priority order of the browser terminal. a client terminal receiving a connection request initiated by a browser terminal, requesting establishment of a communication connection based on a cross-domain communication protocol; the client terminal performing validity verification of the connection request; and the client terminal establishing a communication connection with the browser terminal based on the cross-domain communication protocol to allow the browser terminal to invoke a local service component, being a service component local to the client terminal, if the connection request passes the validity verification, the method being characterised in that J Z the client terminal selects a port of the client terminal, from a port list, for binding with the browser terminal, according to a set port binding priority order upon receiving the connection request initiated by the browser terminal requesting establishment of a communication connection based on the cross-domain communication protocol, the port binding priority order being consistent with a port selection priority order of the browser terminal.
Complex particles for a negative electrode active material, comprising composite particles including: a graphite material, a solid electrolyte, and a conductive material, wherein the complex particles have a granular shape by overlapping flaky and/or platy graphite particles, wherein the graphite material is derived from any one of natural graphite and artificial graphite, and gaps between the overlapping flaky and/or platy graphite particles are filled with the mixture including the conductive material and the solid electrolyte, and an outer surface of the graphite particles is coated with the mixture in whole or at least in part; wherein an amount of the graphite material is 70 weight% to 95 weight% based on 100 weight% of the complex particles, wherein an amount of the solid electrolyte is 3 weight% to 30 weight% based on 100 weight% of the complex particles, wherein an amount of the conductive material is 1 weight% to 10 weight% based on 100 weight% of the complex particles. a graphite material, a solid electrolyte, and a conductive material, wherein the complex particles have a granular shape by overlapping flaky and/or platy graphite particles, wherein the graphite material is derived from any one of natural graphite and artificial graphite, and gaps between the overlapping flaky and/or platy graphite particles are filled with the mixture including the conductive material and the solid electrolyte, and an outer surface of the graphite particles is coated with the mixture in whole or at least in part; wherein an amount of the graphite material is 70 weight% to 95 weight% based on 100 weight% of the complex particles, wherein an amount of the solid electrolyte is 3 weight% to 30 weight% based on 100 weight% of the complex particles, wherein an amount of the conductive material is 1 weight% to 10 weight% based on 100 weight% of the complex particles.