mhurhangee/ep-ind-claims huggingface dataset:
A method for presenting control buttons on a device, comprising: providing a first output on a first screen of a device; providing a second output on a second screen of the device; determining, which one of the first and second screens (104, 108) contains information that currently has focus; and displaying, in a touch sensitive configurable area (112, 116) outside of a touch sensitive display area (110, 114), at least a first control button on the determined one of the first and second screens (104, 108) displaying information that currently has focus. providing a first output on a first screen of a device; providing a second output on a second screen of the device; determining, which one of the first and second screens (104, 108) contains information that currently has focus; and displaying, in a touch sensitive configurable area (112, 116) outside of a touch sensitive display area (110, 114), at least a first control button on the determined one of the first and second screens (104, 108) displaying information that currently has focus.
A method for allocating an identifier, ID, of a data radio bearer, DRB, of a user equipment, UE, dually connected to a master node, MN, and a secondary node, SN, wherein the DRB is a data radio bearer of the SN and the SN is independently responsible for establishment, modification and release of the DRB of the SN, wherein the method is carried out bv the MN and comprises: sending an addition request of the SN to the SN through an Xn interface, wherein the addition request is initiated by the MN, carries a DRB ID range available to the SN, and is a request of adding the SN; wherein, when the SN modifies a DRB of the UE, the DRB ID range indicates to the SN to select DRB information within the DRB ID range; wherein the method further comprises: when the MN initiates addition of a DRB of the UE at the SN, sending to the SN, a SN modification request via the Xn interface, wherein the modification request is associated with DRB addition; and receiving, from the SN, an acknowledgement message carrying a DRB ID selected by the SN based on the modification request for a DRB of the UE added by the SN; and when the MN receives DRB ID information about a DRB selected within the DRB ID range by the SN when an addition of a DRB of the UE is initiated at the SN, sending the DRB ID information to the UE. sending an addition request of the SN to the SN through an Xn interface, wherein the addition request is initiated by the MN, carries a DRB ID range available to the SN, and is a request of adding the SN; wherein, when the SN modifies a DRB of the UE, the DRB ID range indicates to the SN to select DRB information within the DRB ID range; wherein the method further comprises: when the MN initiates addition of a DRB of the UE at the SN, sending to the SN, a SN modification request via the Xn interface, wherein the modification request is associated with DRB addition; and receiving, from the SN, an acknowledgement message carrying a DRB ID selected by the SN based on the modification request for a DRB of the UE added by the SN; and when the MN receives DRB ID information about a DRB selected within the DRB ID range by the SN when an addition of a DRB of the UE is initiated at the SN, sending the DRB ID information to the UE. when the MN initiates addition of a DRB of the UE at the SN, sending to the SN, a SN modification request via the Xn interface, wherein the modification request is associated with DRB addition; and receiving, from the SN, an acknowledgement message carrying a DRB ID selected by the SN based on the modification request for a DRB of the UE added by the SN; and sending to the SN, a SN modification request via the Xn interface, wherein the modification request is associated with DRB addition; and receiving, from the SN, an acknowledgement message carrying a DRB ID selected by the SN based on the modification request for a DRB of the UE added by the SN; and when the MN receives DRB ID information about a DRB selected within the DRB ID range by the SN when an addition of a DRB of the UE is initiated at the SN, sending the DRB ID information to the UE.
A head clamp for neurosurgery, comprising; a member for at least partially encircling the head of a subject, and at least first and second skull attachment portions for attaching the member to the head of a subject, characterised in that the head clamp comprises an indexing mechanism that allows the member to be indexed between at least two repeatable relative positions when the head clamp is attached to a head, the at least two repeatable relative positions having a known position relative to each other a member for at least partially encircling the head of a subject, and at least first and second skull attachment portions for attaching the member to the head of a subject,
A heating, ventilation, air conditioning and refrigeration (HVACR) system including a single unit optimizing controller capable of operating the HVACR system, at least one cooling unit and a plurality of sensors each for sensing a unique output of the HVACR system, the controller including: a communications section for communicating with one or more remote controller terminals; and a control section operatively associated with the HVACR system for selectively activating or deactivating the at least one cooling unit based on one or more settings received from the remote controller terminal via the communications section; wherein the controller is responsive to the sensors such that the selectively activating or deactivating the at least one cooling unit is influenced by the one or more of the plurality of sensors and characterised in that the the plurality of sensors includes a biofilm growth sensor for sensing biofilm growth in a water cooling tower and/or a water circuit of the HVACR system. a communications section for communicating with one or more remote controller terminals; and a control section operatively associated with the HVACR system for selectively activating or deactivating the at least one cooling unit based on one or more settings received from the remote controller terminal via the communications section; wherein the controller is responsive to the sensors such that the selectively activating or deactivating the at least one cooling unit is influenced by the one or more of the plurality of sensors and characterised in that the the plurality of sensors includes a biofilm growth sensor for sensing biofilm growth in a water cooling tower and/or a water circuit of the HVACR system.
A toner comprising toner base particles, each of which contains a binder resin and a magnetic material, and organic-inorganic composite fine particles on each of the toner base particles, characterized in that each of the organic-inorganic composite fine particles comprises a vinyl resin particle, and inorganic fine particles which are embedded in the vinyl resin particle, and at least a part of which are exposed, the toner base particles have a volumetric specific heat at 80°C of 3,450 kJ/(m 3 ·°C) or more to 4,200 kJ/(m 3 ·°C) or less measurable by the method described in the description, the organic-inorganic composite fine particles have a volumetric specific heat at 80°C of 2,900 kJ/(m 3 ·°C) or more to 4,200 kJ/(m 3 ·°C) or less measurable by the method described in the description and a number average particle diameter of 50 nm or more to 200 nm or less, and an absolute difference between the volumetric specific heat at 80°C of the toner base particles and the volumetric specific heat at 80°C of the organic-inorganic composite fine particles is 740 kJ/(m 3 ·°C) or less. characterized in that each of the organic-inorganic composite fine particles comprises a vinyl resin particle, and inorganic fine particles which are embedded in the vinyl resin particle, and at least a part of which are exposed, a vinyl resin particle, and inorganic fine particles which are embedded in the vinyl resin particle, and at least a part of which are exposed, the toner base particles have a volumetric specific heat at 80°C of 3,450 kJ/(m 3 ·°C) or more to 4,200 kJ/(m 3 ·°C) or less measurable by the method described in the description, the organic-inorganic composite fine particles have a volumetric specific heat at 80°C of 2,900 kJ/(m 3 ·°C) or more to 4,200 kJ/(m 3 ·°C) or less measurable by the method described in the description and a number average particle diameter of 50 nm or more to 200 nm or less, and an absolute difference between the volumetric specific heat at 80°C of the toner base particles and the volumetric specific heat at 80°C of the organic-inorganic composite fine particles is 740 kJ/(m 3 ·°C) or less.
A storage-stable omeprazole powder system, the system comprising (i) a first powder mixture comprising (a) a therapeutically effective amount of omeprazole, or a pharmaceutically acceptable salt thereof, (b) sodium alginate, and (c) a first buffering agent; and (ii) a second powder mixture comprising sodium alginate and a second buffering agent, wherein the first powder mixture and the second powder mixture are stored separately from each other and are mixed together on or just before constitution with water, and wherein the system contains sodium and potassium at a ratio of from 1:2.6 to 1:3.4 by weight.
Base profile for stiffening an aluminium/plastic composite outer frame and for connecting an outer frame profile to a static bracket of a roller shutter box, having at least the following profile portions: - a stiffening portion for bearing on an outer frame profile; - connecting profile portions, formed in each case in the end regions, with at least one latching protrusion (13, 14) each for connecting to an attachable rolling profile; and - a rounded rolling body, characterized in that at least one pair of profile ribs (15.1, 15.2), which face one another with a protruding portion and between which an undercut receiving slot for a head of a mounting element or for a mounting rail is formed, is provided on the stiffening portion. - a stiffening portion for bearing on an outer frame profile; - connecting profile portions, formed in each case in the end regions, with at least one latching protrusion (13, 14) each for connecting to an attachable rolling profile; and - a rounded rolling body,
A method of detecting death of a cell type or tissue in a subject comprising determining whether cell-free DNA comprised in a blood sample of the subject is derived from the cell type or tissue, wherein said determining is effected by ascertaining the methylation status of at least four methylation sites on a continuous sequence on the same molecule of the cell-free DNA, said sequence comprising no more than 300 nucleotides, wherein a methylation status of each of said at least four methylation sites on said continuous sequence of said same molecule of the DNA characteristic of said cell type or tissue is indicative of death of the cell type or tissue.
Device for receiving a plurality of containers, which are respectively formed for receiving a plurality of security documents, for the purpose of storing security documents, comprising a plurality of storage sites for respectively receiving at least one container, as well as at least one movement apparatus for moving at least one container for the purpose of positioning the container on a storage site and/or withdrawal of the container from a storage site, wherein the device comprises at least one and in particular two depositing apparatuses for depositing such security documents which do not meet defined requirements, in particular quality requirements, and wherein the device comprises at least one supply apparatus, and wherein at least one depositing apparatus is operatively connected to the supply apparatus in such a way that a security document positioned on or in the supply apparatus is transportable by gravity to the depositing apparatus, characterized in that the device comprises at least one container movable with the movement apparatus and receivable on at least one storage site, wherein the container comprises shape elements for parallel alignment of a plurality of security documents received in the container, and that the device comprises a reading apparatus for reading an identification feature arranged on a container for the purpose of identifying the container and/or for the purpose of storing at least one information relating to the read identification feature.
A method of continuous motion digital tomosynthesis, the method comprising: exposing an object to a programed intensity x-ray beam as an x-ray source travels a pre-determined path, wherein the object is positioned between the x-ray source and a detector, the detector having a plurality of pixels; accumulating in at least a portion of the plurality of pixels a signal charge from at least a portion of the x-ray beam after it traverses the object; recording the accumulated signal charge from the plurality of pixels into a digital frame image, the digital frame image representing raw baseline data; acquiring information on the source's position (12...21) and the detector's position when the recording of the plurality of pixels occurs; compressing the raw baseline data into a plurality of compressed views by: using a filtered back projection to group the raw baseline data into a volumetric image domain comprising a plurality of domain groups, and forming each of the plurality of compressed views by applying a fast forward projection and difference operator to a respective domain group of the volumetric image domain; and reconstructing a volumetric breast image by processing each respective compressed view with a reconstruction process function that incorporates the acquired position information and a spatial sampling corresponding to the compressed views. exposing an object to a programed intensity x-ray beam as an x-ray source travels a pre-determined path, wherein the object is positioned between the x-ray source and a detector, the detector having a plurality of pixels; accumulating in at least a portion of the plurality of pixels a signal charge from at least a portion of the x-ray beam after it traverses the object; recording the accumulated signal charge from the plurality of pixels into a digital frame image, the digital frame image representing raw baseline data; acquiring information on the source's position (12...21) and the detector's position when the recording of the plurality of pixels occurs; compressing the raw baseline data into a plurality of compressed views by: using a filtered back projection to group the raw baseline data into a volumetric image domain comprising a plurality of domain groups, and forming each of the plurality of compressed views by applying a fast forward projection and difference operator to a respective domain group of the volumetric image domain; and using a filtered back projection to group the raw baseline data into a volumetric image domain comprising a plurality of domain groups, and forming each of the plurality of compressed views by applying a fast forward projection and difference operator to a respective domain group of the volumetric image domain; and reconstructing a volumetric breast image by processing each respective compressed view with a reconstruction process function that incorporates the acquired position information and a spatial sampling corresponding to the compressed views.
A process for the preparation of kish graphitic lithium-insertion anode materials for lithium-ion batteries comprising the steps of: (a) dissolving polymeric waste precursor in a melt of iron at a temperature in the range of 1,400 to 2,000°C for a duration of 5 minutes to 120 minutes under reducing atmosphere of either flowing nitrogen or a blanket of carbon dioxide formed by the reaction of the carbon precursor with atmospheric oxygen to obtain a mixture; (b) cooling the mixture as obtained in step (a) to a temperature in the range 1,000°C to 1,400 0 C at a rate in the range of 2 to 200°C per minute to obtain the solid mass of precipitated carbon; (c) cutting the solid mass of precipitated carbon as obtained in step (b) into ingots; (d) leaching the ingots as obtained in step (c) with HCl and HF followed by filtering, washing and drying to obtain the kish graphite; (e) preparing a slurry of kish graphite as obtained in step (d) with a conducting carbon and polyvinylidene fluoride binder in N -methyl-2-pyrrolidone; (f) coating the slurry as obtained in step (e) on metal substrates followed by drying and pressing to obtain the lithium-insertion anode. (a) dissolving polymeric waste precursor in a melt of iron at a temperature in the range of 1,400 to 2,000°C for a duration of 5 minutes to 120 minutes under reducing atmosphere of either flowing nitrogen or a blanket of carbon dioxide formed by the reaction of the carbon precursor with atmospheric oxygen to obtain a mixture; (b) cooling the mixture as obtained in step (a) to a temperature in the range 1,000°C to 1,400 0 C at a rate in the range of 2 to 200°C per minute to obtain the solid mass of precipitated carbon; (c) cutting the solid mass of precipitated carbon as obtained in step (b) into ingots; (d) leaching the ingots as obtained in step (c) with HCl and HF followed by filtering, washing and drying to obtain the kish graphite; (e) preparing a slurry of kish graphite as obtained in step (d) with a conducting carbon and polyvinylidene fluoride binder in N -methyl-2-pyrrolidone; (f) coating the slurry as obtained in step (e) on metal substrates followed by drying and pressing to obtain the lithium-insertion anode.
A meat inspection and sorting line comprising - supply means, - a radiation inspection facility, - a cutting facility, - a reject facility, and - control means, wherein meat parts are brought together and fed into the radiation inspection facility by means of a conveyor, wherein an undesired object is detected by the radiation inspection facility by means of e.g. an X-ray technique, a part of the layer of meat parts containing the undesired object is identified and separated from the layer of meat parts by the cutting facility, and the identified and separated part of the layer of meat parts containing the undesired object is rejected by the reject facility from the layer of meat parts, wherein said supply means are configured for supplying meat parts in a relative uniform layer by bringing said meat parts together in an essentially intermingled and/or overlapping manner, and wherein said control means are configured for controlling said cutting facility on the basis of input from said radiation inspection facility, characterized in that said control means are further configured for controlling said cutting facility on an input of said radiation inspection facility relating to the proximity of two or more undesired objects in said part of the layer of meat parts. - supply means, - a radiation inspection facility, - a cutting facility, - a reject facility, and - control means, wherein meat parts are brought together and fed into the radiation inspection facility by means of a conveyor, wherein an undesired object is detected by the radiation inspection facility by means of e.g. an X-ray technique, a part of the layer of meat parts containing the undesired object is identified and separated from the layer of meat parts by the cutting facility, and the identified and separated part of the layer of meat parts containing the undesired object is rejected by the reject facility from the layer of meat parts, wherein said supply means are configured for supplying meat parts in a relative uniform layer by bringing said meat parts together in an essentially intermingled and/or overlapping manner, and wherein said control means are configured for controlling said cutting facility on the basis of input from said radiation inspection facility, characterized in that said control means are further configured for controlling said cutting facility on an input of said radiation inspection facility relating to the proximity of two or more undesired objects in said part of the layer of meat parts.
An orthopedic belt for a user, comprising a first side panel and a second side panel, each of the first side panel and the second side panel having a dorsal end (16, 18) and a distal end (20, 22), the first and second side panels (12, 14) being designed to jointly surround at least one portion of the user's body, the belt defining a central line adapted to be placed against the user's spine, the central line defining a primary direction, the dorsal ends (16, 18) of the first and second side panels (12, 14) being connected to each other, the distal ends (20, 22) of the first and second side panels (12, 14) being adapted to be reversibly attached to each other, the first side panel and the second side panel each being provided with a user gripping element (42, 44) for positioning the belt around the user, the gripping elements (42, 44) being arranged symmetrically on the belt with respect to the central line, characterized in that the first and second side panels (12, 14) are asymmetrical in relation to one another with respect to the central line, such that the distal ends (20, 22) are configured to be placed asymmetrically around the user. the dorsal ends (16, 18) of the first and second side panels (12, 14) being connected to each other, the distal ends (20, 22) of the first and second side panels (12, 14) being adapted to be reversibly attached to each other, the first side panel and the second side panel each being provided with a user gripping element (42, 44) for positioning the belt around the user, the gripping elements (42, 44) being arranged symmetrically on the belt with respect to the central line, characterized in that the first and second side panels (12, 14) are asymmetrical in relation to one another with respect to the central line, such that the distal ends (20, 22) are configured to be placed asymmetrically around the user.
A biodegradable and compostable blend of thermoplastic polymers, comprising: from about 50 wt.% to about 80 wt.% of one or more poly(lactic) acid polymers wherein said PLA polymers, independently, have a weight average molecular weight of from about 125,000 to about 200,000; from about 5 wt.% to about 30 wt.% of one or more compostable polyesters with or without biobased carbon content wherein said polyesters, independently, have a weight average molecular weight of from about 80,000 to about 175,000; from about 7 wt.% to about 15 wt.% of one or more polyethylene glycols (PEGs) with or without biobased carbon content, wherein said PEGs, independently, have a weight average molecular weight of from about 2,000 to about 10,000; wherein the weight average molecular weight of all polymers is determined as indicated in the specification; wherein said weight percent is based upon the total weight of said one or more PLAs, said one or more compostable polyesters, and said one or more polyglycol polymers; and wherein said blend has an elongation of at least 500% at according to ASTM Test D638-10 for injection molded specimens. from about 50 wt.% to about 80 wt.% of one or more poly(lactic) acid polymers wherein said PLA polymers, independently, have a weight average molecular weight of from about 125,000 to about 200,000; from about 5 wt.% to about 30 wt.% of one or more compostable polyesters with or without biobased carbon content wherein said polyesters, independently, have a weight average molecular weight of from about 80,000 to about 175,000; from about 7 wt.% to about 15 wt.% of one or more polyethylene glycols (PEGs) with or without biobased carbon content, wherein said PEGs, independently, have a weight average molecular weight of from about 2,000 to about 10,000; wherein the weight average molecular weight of all polymers is determined as indicated in the specification; wherein said weight percent is based upon the total weight of said one or more PLAs, said one or more compostable polyesters, and said one or more polyglycol polymers; and wherein said blend has an elongation of at least 500% at according to ASTM Test D638-10 for injection molded specimens.