mhurhangee/patent-ind-claim-en huggingface dataset:
A method carried out by a network access node, comprising: receiving a connection request in uplink signaling from a user equipment, the user equipment being located in a cell; making a determination whether the user equipment can be connected; if it is determined that the user equipment cannot be connected, informing the user equipment by downlink signaling comprising a radio resource control, RRC, connection reject message, as a response to the connection request, that the user equipment cannot be connected, characterized by the RRC connection reject message comprising information that indicates that the user equipment should de-prioritize a current carrier frequency or current radio access technology. receiving a connection request in uplink signaling from a user equipment, the user equipment being located in a cell; making a determination whether the user equipment can be connected; if it is determined that the user equipment cannot be connected, informing the user equipment by downlink signaling comprising a radio resource control, RRC, connection reject message, as a response to the connection request, that the user equipment cannot be connected, characterized by the RRC connection reject message comprising information that indicates that the user equipment should de-prioritize a current carrier frequency or current radio access technology.
A belt comprising a tensile cord embedded in the belt , extending in a longitudinal direction and comprising two components: a tensile component and a sacrificed component , wherein the tensile component comprises one or more continuous filament yarns of high modulus fibers, and the sacrificed component comprises a second yarn or monofilament which is broken into a plurality of segments distributed longitudinally throughout the tensile cord .
Method for measuring distance, comprising the following steps: - Capture (S1) of at least two temporally sequential images by means of a contactless sensor device ; - Assignment (S2) of semantic information to at least one image region in the at least two images, wherein the assignment (S2) of semantic information to various image regions is executed by means of an artificial neural network ; - Selection (S3) of at least one subregion in one or more image regions of the at least two images which is appropriate for the determination of distance, by reference to the assigned semantic information, wherein the at least one subregion selected shows a ground plane in the images ; - Determination (S4) of an optical flux by reference to the at least one selected subregion in the at least two images ; and - Determination (S5) of the distance completed by reference to the optical flux thus determined, wherein the distance completed is determined by reference to a height of the contactless sensor device above a ground plane , the optical flux determined and the focal length of the contactless sensor device . - Capture (S1) of at least two temporally sequential images by means of a contactless sensor device ; - Assignment (S2) of semantic information to at least one image region in the at least two images, wherein the assignment (S2) of semantic information to various image regions is executed by means of an artificial neural network ; - Selection (S3) of at least one subregion in one or more image regions of the at least two images which is appropriate for the determination of distance, by reference to the assigned semantic information, wherein the at least one subregion selected shows a ground plane in the images ; - Determination (S4) of an optical flux by reference to the at least one selected subregion in the at least two images ; and - Determination (S5) of the distance completed by reference to the optical flux thus determined, wherein the distance completed is determined by reference to a height of the contactless sensor device above a ground plane , the optical flux determined and the focal length of the contactless sensor device .
A method for producing a polymer latex resin powder, comprising steps of supplying a polymer latex and a flocculant to a first flocculation tank having a cylindrical form, stirring the polymer latex and flocculant in the first flocculation tank in a closed system and supplying the polymer slurry in the first flocculation tank into a second flocculation tank , wherein the method utilizes an apparatus comprising the first flocculation tank to which the polymer latex and the flocculant are each supplied, wherein the first flocculation tank is provided with a stirring part including a rotation axis and one or more impellers mounted on the rotation axis , and a discharge line , respectively, the discharge line is connected to the top region of the first flocculation tank , and the first flocculation tank is provided so as to operate in a closed system upon operating the stirring part , wherein operating in a closed system means that 100% of the volume of the first flocculation tank is filled with polymer slurry, characterized in that the discharge line is connected along the tangential direction to the first flocculation tank based on the center axis (C) of the first flocculation tank , and connected to the first flocculation tank so as to be inclined at an angle of 45° based on the vertical center axis (C) of the first flocculation tank and the rotation axis of the stirring part . wherein the method utilizes an apparatus comprising the first flocculation tank to which the polymer latex and the flocculant are each supplied, wherein the first flocculation tank is provided with a stirring part including a rotation axis and one or more impellers mounted on the rotation axis , and a discharge line , respectively, the discharge line is connected to the top region of the first flocculation tank , and the first flocculation tank is provided so as to operate in a closed system upon operating the stirring part , wherein operating in a closed system means that 100% of the volume of the first flocculation tank is filled with polymer slurry, characterized in that the discharge line is connected along the tangential direction to the first flocculation tank based on the center axis (C) of the first flocculation tank , and connected to the first flocculation tank so as to be inclined at an angle of 45° based on the vertical center axis (C) of the first flocculation tank and the rotation axis of the stirring part .
Spunbonded nonwoven fabric comprising a polypropylene homopolymer having a) 0.0 to below 0.8 wt% of a C 2 or C 4 to C 10 alpha olefin comonomer b) a melt flow rate (MFR, 230°C, 2.16 kg, ISO 1133) of 15 to 120 g/10 min and c) a molecular weight distribution (Mw/Mn) > 4.3 (measured by size exclusion chromatography according to ISO 16014) d) a melting temperature (DSC, ISO 11357-1 & -2) in the range of 155°C to 162°C and e) is free of phthalic acid esters as well as their respective decomposition products and wherein the polypropylene homopolymer has been visbroken whereby the ratio of the MFR after visbreaking [MFR final] to the MFR before visbreaking [MFR start] [MFR final]/ [MFR start] is > 5, whereby the polypropylene homopolymer has been polymerized in the presence of a) a Ziegler-Natta catalyst (ZN-C) comprising compounds (TC) of a transition metal of Group 4 to 6 of IUPAC, a Group 2 metal compound (MC) and an internal donor (ID), wherein said internal donor (ID) is a non-phthalic compound and is a citraconate; b) optionally a co-catalyst (Co), and c) optionally an external donor (ED). a) 0.0 to below 0.8 wt% of a C 2 or C 4 to C 10 alpha olefin comonomer b) a melt flow rate (MFR, 230°C, 2.16 kg, ISO 1133) of 15 to 120 g/10 min and c) a molecular weight distribution (Mw/Mn) > 4.3 (measured by size exclusion chromatography according to ISO 16014) d) a melting temperature (DSC, ISO 11357-1 & -2) in the range of 155°C to 162°C and e) is free of phthalic acid esters as well as their respective decomposition products and wherein the polypropylene homopolymer has been visbroken whereby the ratio of the MFR after visbreaking [MFR final] to the MFR before visbreaking [MFR start] [MFR final]/ [MFR start] is > 5,
A capsulotomy device for accessing a lens capsule through a cornea of an eye, the device comprising: a handpiece ; a stem mounted to the handpiece ; a cutting element directly mounted to the stem , the cutting element for cutting a portion of the lens capsule, the cutting element included within a suction cup ; and a compression mechanism comprising arms mounted to an arm base , the arms and the arm base designed to be able to translate relative to the handpiece , the compression mechanism positioned to allow deployment of the cutting element through an incision in the cornea of the eye and configured to cause lateral compression of the cutting element during deployment of the cutting element through the incision, and the cutting element configured to expand inside an anterior chamber into a cutting position on the lens capsule; wherein the arms are configured to slide within the handpiece , such that sliding the arms distally within the handpiece causes a compression of the suction cup . a handpiece ; a stem mounted to the handpiece ; a cutting element directly mounted to the stem , the cutting element for cutting a portion of the lens capsule, the cutting element included within a suction cup ; and a compression mechanism comprising arms mounted to an arm base , the arms and the arm base designed to be able to translate relative to the handpiece , the compression mechanism positioned to allow deployment of the cutting element through an incision in the cornea of the eye and configured to cause lateral compression of the cutting element during deployment of the cutting element through the incision, and the cutting element configured to expand inside an anterior chamber into a cutting position on the lens capsule; wherein the arms are configured to slide within the handpiece , such that sliding the arms distally within the handpiece causes a compression of the suction cup .
An anti-biofouling system for an object that during use is at least partly submerged in water and is selected from the group consisting of a vessel and an infrastructural object, the anti-biofouling system comprising: - a UV emitting element for emitting UV radiation, wherein the UV emitting element comprises one or more light sources configured for providing said UV radiation and is configured to irradiate with said UV radiation during an irradiation stage one or more of (i) a part of an external surface of said object and (ii) water adjacent to said part of said external surface , and - a control system configured to control the one or more light sources at least such that the UV radiation has a UV radiation level between a first UV radiation level and a second UV radiation level, the first UV radiation level being larger than the second UV radiation level, wherein the control system is configured to control said UV radiation level as function of input information comprising information of one or more of (i) a location of the object , in the case that the object is a vessel, and (ii) a distance (d) of the object to a second object . - a UV emitting element for emitting UV radiation, wherein the UV emitting element comprises one or more light sources configured for providing said UV radiation and is configured to irradiate with said UV radiation during an irradiation stage one or more of (i) a part of an external surface of said object and (ii) water adjacent to said part of said external surface , and - a control system configured to control the one or more light sources at least such that the UV radiation has a UV radiation level between a first UV radiation level and a second UV radiation level, the first UV radiation level being larger than the second UV radiation level,
An apparatus , comprising: - a detector unit comprising a detector configured to detect an actuation action performable via said detector unit to an actuation button of a medical device to cause said medical device to eject at least a portion of a medicament comprised in said medical device , wherein said detector is configured to detect said actuation action based on a detection of a force and/or a touch applied to said detector unit as part of said actuation action, wherein said detector unit is placeable on top of said actuation button or forms an upper part of said actuation button itself and - an electric unit connected to said detector and configured to store and/or provide information related to said detected actuation action, - wherein said electric unit is configured to determine a length of time interval during which said actuation action is applied, and to store and/or provide information related to said determined length of said time interval and/or to store and/or provide said information related to said detected actuation action in dependence on said determined length of time interval. - a detector unit comprising a detector configured to detect an actuation action performable via said detector unit to an actuation button of a medical device to cause said medical device to eject at least a portion of a medicament comprised in said medical device , wherein said detector is configured to detect said actuation action based on a detection of a force and/or a touch applied to said detector unit as part of said actuation action, wherein said detector unit is placeable on top of said actuation button or forms an upper part of said actuation button itself and - an electric unit connected to said detector and configured to store and/or provide information related to said detected actuation action, - wherein said electric unit is configured to determine a length of time interval during which said actuation action is applied, and to store and/or provide information related to said determined length of said time interval and/or to store and/or provide said information related to said detected actuation action in dependence on said determined length of time interval.
A method of manufacturing a customized mask for a pressure support system, comprising the steps of: generating surface geometry data of a face of a patient , the surface geometry data corresponding to and representing a surface geometry of the face of the patient; generating original cushion geometry data using the surface geometry data, the original cushion geometry data having first data representing a first facial portion and second data representing a first base portion extending from the first facial portion, the first facial portion having a number of regions and being shaped to match the surface geometry of the patient as represented by the surface geometry data; generating modified cushion geometry data using the original cushion geometry data, the modified cushion geometry data having third data representing a second facial portion and fourth data representing a second base portion , wherein the second facial portion is shaped differently than the first facial portion by changing portions of the first data corresponding to at least one of the regions of the first facial portion; producing a rigid support member using the modified cushion geometry data such that it is shaped according to the modified cushion geometry data, the support member being made of a unitary material; and coupling a sealing flap to the support member, the sealing flap being structured to engage the face of the patient, wherein the generating modified cushion geometry data step further comprises: employing a predetermined algorithm to change the portions of the first data, based on information of tissue depth/hardness of a face of patient. generating surface geometry data of a face of a patient , the surface geometry data corresponding to and representing a surface geometry of the face of the patient; generating original cushion geometry data using the surface geometry data, the original cushion geometry data having first data representing a first facial portion and second data representing a first base portion extending from the first facial portion, the first facial portion having a number of regions and being shaped to match the surface geometry of the patient as represented by the surface geometry data; generating modified cushion geometry data using the original cushion geometry data, the modified cushion geometry data having third data representing a second facial portion and fourth data representing a second base portion , wherein the second facial portion is shaped differently than the first facial portion by changing portions of the first data corresponding to at least one of the regions of the first facial portion; producing a rigid support member using the modified cushion geometry data such that it is shaped according to the modified cushion geometry data, the support member being made of a unitary material; and coupling a sealing flap to the support member, the sealing flap being structured to engage the face of the patient,
A method for processing data in an optical network, wherein the method comprises: extracting (S301), by an optical network device, Ethernet data from a data frame of a first optical transport network, OTN, path, converting the Ethernet data into another Ethernet format, and placing the Ethernet data converted into the another Ethernet format into a data frame of a second OTN path, wherein the optical network device is a destination device of the first OTN path and a source device of the second OTN path; and extracting (S302), by the optical network device, overhead information from the data frame of the first OTN path, and inserting the overhead information into the data frame of the second OTN path. extracting (S301), by an optical network device, Ethernet data from a data frame of a first optical transport network, OTN, path, converting the Ethernet data into another Ethernet format, and placing the Ethernet data converted into the another Ethernet format into a data frame of a second OTN path, wherein the optical network device is a destination device of the first OTN path and a source device of the second OTN path; and extracting (S302), by the optical network device, overhead information from the data frame of the first OTN path, and inserting the overhead information into the data frame of the second OTN path.
A photodetection device comprising a substrate and a network of diodes, the substrate comprising an absorption layer and each diode comprising a collection region with a first type of doping in the absorption layer, the photodetection device further comprising a conduction mesh under the surface of the substrate, the conduction mesh comprising at least one conduction channel inserted between the collection regions of two adjacent diodes, the at least one conduction channel having a second type of doping opposite the first type of doping and a higher doping density than the absorption layer, wherein the absorption layer has the first type of doping.
Isolated probiotic micro-organism Pediococcus acidilactici TAK 589 Coccobest DSM 32372.
An arrangement for handling one or more tyres simultaneously in storage shelving of a high bay warehouse , where the tyres are brought in and stored and from where the tyres are taken, wherein the arrangement comprises a shelving track and a load handling device arranged to move along the shelving track , which load handling device comprises: - a horizontal longitudinal picking bar having a first end and a second end and which longitudinal picking bar is arranged to handle one or more tyres simultaneously in an axial direction of the tyres when the tyres stand in upright position one after the other so that the longitudinal picking bar is arrangeable to the centre of the tyre , and - a rear support arranged to the longitudinal picking bar , characterised in that a size of the rear support is arranged to be adjustable with extension plates in a height direction which is perpendicular to the length direction of the horizontal longitudinal picking bar , so that the rear support can be fitted with the size of the tyres to be handled. - a horizontal longitudinal picking bar having a first end and a second end and which longitudinal picking bar is arranged to handle one or more tyres simultaneously in an axial direction of the tyres when the tyres stand in upright position one after the other so that the longitudinal picking bar is arrangeable to the centre of the tyre , and - a rear support arranged to the longitudinal picking bar ,
A nuclear medical imaging system comprising: a plurality of detectors configured to detect radiation events, the radiation events localized to a plurality of pixels of the detectors ; one or more acquisition modules configured to estimate the energy levels of the detected radiation events, wherein the estimated energy levels are expressed in a binary representation; one or more first-stage energy correction modules configured to scale the estimated energy levels with scaling parameters that scale the energy centroids of the plurality of pixels to target values differing by offsets around a common target value, the target values differing with spatial location of the plurality of pixels; a second-stage energy correction module configured to remove target value offsets from the scaled energy levels; and an energy histogram module configured to combine the detected radiation events into an energy histogram using the energy levels from the second-stage energy correction module ; characterized in that the one or more first-stage energy correction modules are configured to compress the estimated energy levels by dropping bits from their binary representation before scaling and to uncompress the scaled energy levels by appending bits to their binary representation subsequent to scaling. a plurality of detectors configured to detect radiation events, the radiation events localized to a plurality of pixels of the detectors ; one or more acquisition modules configured to estimate the energy levels of the detected radiation events, wherein the estimated energy levels are expressed in a binary representation; one or more first-stage energy correction modules configured to scale the estimated energy levels with scaling parameters that scale the energy centroids of the plurality of pixels to target values differing by offsets around a common target value, the target values differing with spatial location of the plurality of pixels; a second-stage energy correction module configured to remove target value offsets from the scaled energy levels; and an energy histogram module configured to combine the detected radiation events into an energy histogram using the energy levels from the second-stage energy correction module ; characterized in that the one or more first-stage energy correction modules are configured to compress the estimated energy levels by dropping bits from their binary representation before scaling and to uncompress the scaled energy levels by appending bits to their binary representation subsequent to scaling.