mhurhangee/ep-ind-claims huggingface dataset:
A knee support, comprising: a first zone, a second zone and a third zone, the first zone arranged to extend about a tibia of a user and extend above a knee, the second zone extending above the first zone and arranged to extend about a femur of the user, the second zone being formed from a same material of the first zone, the first, second and third zones (466, 468, 478) are formed from a textile knitted structure, characterized by at least one strap (462,464) extending over and within the first zone, the third zone being surrounded by at least part of the first zone on proximal and distal sides of the third zone, the third zone having greater flexibility than the second zone, wherein the first zone has greater compressibility and less elasticity than the second zone. a first zone, a second zone and a third zone, the first zone arranged to extend about a tibia of a user and extend above a knee, the second zone extending above the first zone and arranged to extend about a femur of the user, the second zone being formed from a same material of the first zone, the first, second and third zones (466, 468, 478) are formed from a textile knitted structure, characterized by at least one strap (462,464) extending over and within the first zone, the third zone being surrounded by at least part of the first zone on proximal and distal sides of the third zone, the third zone having greater flexibility than the second zone, wherein the first zone has greater compressibility and less elasticity than the second zone.
Device for detecting distortively produced otoacoustic emissions, especially at a human ear, comprising: - at least one ear canal probe, which can be placed in the external ear canal or applied to the external ear canal and with which the sound present in the external ear canal in the ear can be received; and - at least one evaluation device, by means of which the sound received by the ear canal probe can be evaluated with regard to distortively produced otoacoustic emissions, characterized in that the evaluation device has the capability of automatically detecting and responding to the presence and/or the absence of technically induced distortion products in the received sound, which can be incorrectly interpreted as the result of otoacoustic emissions. - at least one ear canal probe, which can be placed in the external ear canal or applied to the external ear canal and with which the sound present in the external ear canal in the ear can be received; and - at least one evaluation device, by means of which the sound received by the ear canal probe can be evaluated with regard to distortively produced otoacoustic emissions,
A process for recovering a transition metal tetrahalide from a process stream comprising the steps of: (a) Establishing a mixed stream comprising the transition metal tetrahalide and transition metal haloalkoxides; (b) Forming a falling liquid film from the mixed stream of step (a) at a temperature of from 50 to 85 °C and an absolute pressure of from 100 to 600 hPa (0.1 to 0.6 bars); (c) Establishing from the film of step (b) a first stream containing from 90 to 100 % of recoverable components and a second stream containing about 20 to 80 % of transition metal haloalkoxides. (a) Establishing a mixed stream comprising the transition metal tetrahalide and transition metal haloalkoxides; (b) Forming a falling liquid film from the mixed stream of step (a) at a temperature of from 50 to 85 °C and an absolute pressure of from 100 to 600 hPa (0.1 to 0.6 bars); (c) Establishing from the film of step (b) a first stream containing from 90 to 100 % of recoverable components and a second stream containing about 20 to 80 % of transition metal haloalkoxides.
A toner comprising toner particles, each of which comprises a binder resin, a coloring agent, and a wax, wherein the binder resin comprises a resin (a) having a polyester unit in an amount of 50% or more by mass, the resin (a) being a crystalline resin; and wherein, when an endothermic amount of the toner is measured with a differential scanning calorimeter in accordance with the description, an endothermic peak temperature (Tp) derived from the binder resin is 50°C or higher and 80°C or lower; a total endothermic amount (ΔH) derived from the binder resin is 30 [J/g] or more and 125 [J/g] or less based on mass of the binder resin; when an endothermic amount derived from the binder resin from an initiation temperature of an endothermic process to Tp is represented by ΔH Tp [J/g], ΔH and ΔH Tp satisfy formula below; and when an endothermic amount derived from the binder resin from the initiation temperature of an endothermic process to a temperature 3.0°C lower than Tp is represented by ΔH Tp-3 [J/g], ΔH and ΔH Tp-3 satisfy formula below 0.30 ≤ Δ H Tp / Δ H ≤ 0.50 0.00 ≤ Δ H Tp − 3 / Δ H ≤ 0.20 an endothermic peak temperature (Tp) derived from the binder resin is 50°C or higher and 80°C or lower; a total endothermic amount (ΔH) derived from the binder resin is 30 [J/g] or more and 125 [J/g] or less based on mass of the binder resin; when an endothermic amount derived from the binder resin from an initiation temperature of an endothermic process to Tp is represented by ΔH Tp [J/g], ΔH and ΔH Tp satisfy formula below; and when an endothermic amount derived from the binder resin from the initiation temperature of an endothermic process to a temperature 3.0°C lower than Tp is represented by ΔH Tp-3 [J/g], ΔH and ΔH Tp-3 satisfy formula below 0.30 ≤ Δ H Tp / Δ H ≤ 0.50 0.00 ≤ Δ H Tp − 3 / Δ H ≤ 0.20
A cart having a first end and a second end, said cart comprising: at least four swivel casters (116a, 116b, 116c, 116d) supporting said cart, a first two of said swivel casters (116b, 116c) being adjacent to each other and supporting said cart in the region of said first end, and a second two of said swivel casters (116a, 116d) being adjacent to each other and supporting said cart in the region of said second end, each of said swivel caster including a wheel rotatable about a horizontal axis and being mounted to said cart for swiveling movement about a generally vertical axis; an auxiliary wheel support member disposed between said first end and said second end; an auxiliary swivel caster wheel assembly supporting said cart, said auxiliary swivel caster wheel assembly including an auxiliary wheel rotatable about a horizontal axis; characterized in that: said auxiliary wheel being mounted with said cart for swiveling movement about a vertical axis; and locking means selectably operable to lock said auxiliary swivel caster wheel assembly against said swiveling movement when said auxiliary wheel of said auxiliary swivel caster wheel assembly swivels to a predetermined position, and actuator means for actuating said locking means to selectably engage and disengage said auxiliary swivel caster wheel assembly. at least four swivel casters (116a, 116b, 116c, 116d) supporting said cart, a first two of said swivel casters (116b, 116c) being adjacent to each other and supporting said cart in the region of said first end, and a second two of said swivel casters (116a, 116d) being adjacent to each other and supporting said cart in the region of said second end, each of said swivel caster including a wheel rotatable about a horizontal axis and being mounted to said cart for swiveling movement about a generally vertical axis; an auxiliary wheel support member disposed between said first end and said second end; an auxiliary swivel caster wheel assembly supporting said cart, said auxiliary swivel caster wheel assembly including an auxiliary wheel rotatable about a horizontal axis; said auxiliary wheel being mounted with said cart for swiveling movement about a vertical axis; and locking means selectably operable to lock said auxiliary swivel caster wheel assembly against said swiveling movement when said auxiliary wheel of said auxiliary swivel caster wheel assembly swivels to a predetermined position, and actuator means for actuating said locking means to selectably engage and disengage said auxiliary swivel caster wheel assembly.
A method for processing a picture, comprising: acquiring a first picture and a second picture, wherein the first picture is obtained from processing a first original picture by using processing information and the second picture is to be processed; acquiring the processing information of the first picture, wherein the processing information comprises at least a processing mode and a processing parameter; and processing the second picture using the processing information to obtain a third picture; wherein acquiring the processing information comprises: acquiring the processing information from a correspondence between a picture identifier and the processing information by using the picture identifier of the first picture, wherein acquiring the first picture includes recognizing a face image in the second picture by utilizing face recognition technology, to obtain a face shape of the face image, sending a request message carrying the face shape to a server for the server to acquire at least one corresponding picture from a stored correspondence between processed pictures and face shapes according to the face shape carried in the request message, and sending the at least one picture to a terminal for selection of a picture from the at least one picture by a user to be the first picture; the method further comprising storing the third picture and the face shape correspondingly in the server. acquiring a first picture and a second picture, wherein the first picture is obtained from processing a first original picture by using processing information and the second picture is to be processed; acquiring the processing information of the first picture, wherein the processing information comprises at least a processing mode and a processing parameter; and processing the second picture using the processing information to obtain a third picture; wherein acquiring the processing information comprises: acquiring the processing information from a correspondence between a picture identifier and the processing information by using the picture identifier of the first picture, wherein acquiring the first picture includes recognizing a face image in the second picture by utilizing face recognition technology, to obtain a face shape of the face image, sending a request message carrying the face shape to a server for the server to acquire at least one corresponding picture from a stored correspondence between processed pictures and face shapes according to the face shape carried in the request message, and sending the at least one picture to a terminal for selection of a picture from the at least one picture by a user to be the first picture; the method further comprising storing the third picture and the face shape correspondingly in the server.
A mass spectrometer, comprising: an ion source of the type being configured to continuously generate ions from a sample being supplied thereto, a trapped ion mobility separator (TIMS) being configured to receive the generated ions in accumulated volumes thereof, and further being configured to output these accumulated volumes in pulses of ion species that have been separated in time by their ion mobility, a first mass filter being configured to receive the ion species and select precursor ions therefrom to be fragmented, a fragmentation cell being configured to receive and fragment the selected precursor ions, a second mass filter being configured to receive and select fragment ions resulting from the precursor ions by the fragmentation, and an ion detector being configured to receive and measure an ionic output from the second mass filter, characterized in that the trapped ion mobility separator (TIMS) is configured to use parallel ion accumulation (PATIMS), wherein ions are accumulated in an accumulation unit separated by their ion mobility while scanning the ions according to their ion mobility in a subsequent scanning unit, and the ions are transferred, after each scan, from the accumulation unit to the scanning unit. an ion source of the type being configured to continuously generate ions from a sample being supplied thereto, a trapped ion mobility separator (TIMS) being configured to receive the generated ions in accumulated volumes thereof, and further being configured to output these accumulated volumes in pulses of ion species that have been separated in time by their ion mobility, a first mass filter being configured to receive the ion species and select precursor ions therefrom to be fragmented, a fragmentation cell being configured to receive and fragment the selected precursor ions, a second mass filter being configured to receive and select fragment ions resulting from the precursor ions by the fragmentation, and an ion detector being configured to receive and measure an ionic output from the second mass filter,
A method, performed in a radio network node that is communicating with a wireless device, of configuring transmission properties, the method comprising: - obtaining information indicative of a decoding margin of a successful decoding of a first transport block transmitted, using a set of transmission properties, between the radio network node and the wireless device, wherein the information indicative of the decoding margin comprises an indication of a share of a processing capacity of the radio network node or the wireless device, that was used for the reception and/or decoding of the first transport block, and - reconfiguring the transmission properties to be used for further transmissions between the radio network node and the wireless device, based on the obtained information indicative of a decoding margin. - obtaining information indicative of a decoding margin of a successful decoding of a first transport block transmitted, using a set of transmission properties, between the radio network node and the wireless device, wherein the information indicative of the decoding margin comprises an indication of a share of a processing capacity of the radio network node or the wireless device, that was used for the reception and/or decoding of the first transport block, and - reconfiguring the transmission properties to be used for further transmissions between the radio network node and the wireless device, based on the obtained information indicative of a decoding margin.
A patient support apparatus comprising a base, a frame coupled to the base, the frame having a head end and a foot end, a deck coupled to the frame, the deck being movable relative to the frame along a longitudinal axis of the frame toward the foot end of the frame, a latch coupled between the deck and the frame, the latch movable between a latched position to prevent movement of the deck relative to the frame and an unlatched position to allow longitudinal movement of the deck relative to the frame, an actuator coupled to the latch to move the latch between the latched and unlatched positions, the actuator being coupled to the deck adjacent a foot end portion (24, 26) of the deck for access by a caregiver while moving the deck toward the foot end of the frame, wherein the deck includes a head section and a seat section, characterized in that the deck includes first and second laterally spaced apart outer leg support sections (24, 26) adjacent the seat section, the first and second outer leg support sections (24, 26) being pivotable relative to the seat section of the deck horizontally and vertically to support the bottom of a patient's feet, and in that the actuator is coupled to a foot end of the first outer leg support section.
Arrangement for optical defect inspection of at least one component with: - a defect detection unit for detecting a structural defect (F1, F2, F3) of the component and for determining at least one piece of defect information, and - a means coupled to the defect detection unit for context-dependent insertion of the defect information on a component image in real time, wherein the means for context-dependent insertion of the error information comprises a position determination unit for determining exact information about the position of the component and about the position of the user, a processor unit coupled to the error detection unit and to the position determination unit for processing the information determined by the error detection unit and position determination unit and for integrating the processed information in the component image, and a visualization unit coupled to the processor unit for displaying the component image with the integrated information. - a defect detection unit for detecting a structural defect (F1, F2, F3) of the component and for determining at least one piece of defect information, and - a means coupled to the defect detection unit for context-dependent insertion of the defect information on a component image in real time, wherein the means for context-dependent insertion of the error information comprises a position determination unit for determining exact information about the position of the component and about the position of the user, a processor unit coupled to the error detection unit and to the position determination unit for processing the information determined by the error detection unit and position determination unit and for integrating the processed information in the component image, and a visualization unit coupled to the processor unit for displaying the component image with the integrated information.
Hose extrusion mandrel for manufacturing rubber hoses, which hose extrusion mandrel comprises an elongate core and a rubber compound outer layer which covers the surface of the elongate core, characterized in that the elongate core is a solid thermoplastic, elongate core.
A mobile communication system, comprising: first base stations having first cells; and a second base station having a second cell; wherein the first base stations are configured to send respective first information indicating that preparations for change of the respective first cells to an energy saving state have been completed, to the second base station, wherein the second base station is configured to, when the second base station has received said respective first information from a plurality of the first base stations, enlarge a coverage area of the second cell so as to compensate for a reduction in a coverage area of the plurality of the respective first cells as a result of the change of the respective first cells to an energy saving state; wherein, the second base station is configured to send, upon receiving the first information from all of a predetermined combination of first base stations, to the plurality of first base stations, third information prompting change to the energy saving state; and characterized in that the first base stations are configured to send second information for cancelling change of the first cells to the energy saving state, to the second base station. first base stations having first cells; and a second base station having a second cell; wherein the first base stations are configured to send respective first information indicating that preparations for change of the respective first cells to an energy saving state have been completed, to the second base station, wherein the second base station is configured to, when the second base station has received said respective first information from a plurality of the first base stations, enlarge a coverage area of the second cell so as to compensate for a reduction in a coverage area of the plurality of the respective first cells as a result of the change of the respective first cells to an energy saving state; wherein, the second base station is configured to send, upon receiving the first information from all of a predetermined combination of first base stations, to the plurality of first base stations, third information prompting change to the energy saving state; and characterized in that the first base stations are configured to send second information for cancelling change of the first cells to the energy saving state, to the second base station.
A method for acquiring auxiliary information to assist a diagnosis or treatment of prostate cancer, comprising the following steps,, and, step: a step of acquiring a concentration value of a prostate specific antigen (GalNAc-PSA) having a β-N-acetylgalactosamine residue at a non-reducing terminal of a sugar chain contained in a sample derived from a living body, step: a step of acquiring a volume value of the prostate of the living body, and step: a step of dividing the concentration value of the GalNAc-PSA by the volume value of the prostate of the living body to calculate a value (G-PSA density (G-PSAD)) of the concentration of the GalNAc-PSA per prostate volume, wherein the step is a step of acquiring the concentration value of the GalNAc-PSA by an interaction between a molecule having an affinity for the β-N-acetylgalactosamine residue and the GalNAc-PSA. step: a step of acquiring a concentration value of a prostate specific antigen (GalNAc-PSA) having a β-N-acetylgalactosamine residue at a non-reducing terminal of a sugar chain contained in a sample derived from a living body, step: a step of acquiring a volume value of the prostate of the living body, and step: a step of dividing the concentration value of the GalNAc-PSA by the volume value of the prostate of the living body to calculate a value (G-PSA density (G-PSAD)) of the concentration of the GalNAc-PSA per prostate volume,
An inkjet printer, comprising: - a carriage unit to which a printhead is coupled; - a primary ink tank to store ink; - a controller to cause the primary ink tank to supply said printhead with ink for printing an image on a print medium; and - a secondary ink tank to store ink; - a pressure sensor to sense a pressure level in the primary tank; characterized in that said controller is to determine an ink level in the primary tank based on the pressure level and to actuate a pump provided on a supply line to cause the secondary ink tank to feed the primary ink tank with ink via said supply line. - a carriage unit to which a printhead is coupled; - a primary ink tank to store ink; - a controller to cause the primary ink tank to supply said printhead with ink for printing an image on a print medium; and - a secondary ink tank to store ink; - a pressure sensor to sense a pressure level in the primary tank;
An electrode material for use in a battery comprising: crystalline primary particles and secondary particles, where the primary particle is formed from a plate-shaped single-phase ammonium iron phosphate spheniscidite precursor and a lithium source, the primary particles having the formula Li x FePO 4; where the crystalline primary particles and secondary particles exhibit an LFP phase behaviour including an extended solid-solution range; wherein (i) x is 0.2 < x < 0.8 at a temperature of 45 °C and a primary particle size of 20 - 80 nm, or (ii) x is 0.1 < x < 0.15 at a temperature of o °C and a primary particle size of 20 - 80 nm. crystalline primary particles and secondary particles, where the primary particle is formed from a plate-shaped single-phase ammonium iron phosphate spheniscidite precursor and a lithium source, the primary particles having the formula Li x FePO 4; where the crystalline primary particles and secondary particles exhibit an LFP phase behaviour including an extended solid-solution range; wherein (i) x is 0.2 < x < 0.8 at a temperature of 45 °C and a primary particle size of 20 - 80 nm, or (ii) x is 0.1 < x < 0.15 at a temperature of o °C and a primary particle size of 20 - 80 nm. (i) x is 0.2 < x < 0.8 at a temperature of 45 °C and a primary particle size of 20 - 80 nm, or (ii) x is 0.1 < x < 0.15 at a temperature of o °C and a primary particle size of 20 - 80 nm.