mhurhangee/ep-ind-claims huggingface dataset:
A method for forming a chewing gum product, the method comprising: providing a gum forming system (12, 102) including at least one roller (14, 14a, 16, 16a); moving a gum composition toward and through said forming system (12, 102) in a direction of flow; and creating a plurality of thickness variations in said gum composition in said direction of said flow and in a direction away from said flow via said at least one roller (14, 14a, 16, 16a) of said forming system (12, 102). providing a gum forming system (12, 102) including at least one roller (14, 14a, 16, 16a); moving a gum composition toward and through said forming system (12, 102) in a direction of flow; and creating a plurality of thickness variations in said gum composition in said direction of said flow and in a direction away from said flow via said at least one roller (14, 14a, 16, 16a) of said forming system (12, 102).
A system for protecting rotating electromechanical systems against damages, comprising: - a rotatable coupling configured to rotatably connect a moment provider with a load, said coupling comprising: - first wireless communication means; - first CPU; - first energy providing means; and - at least one first sensor; - a control unit connected with said moment provider, said control unit comprising: - second wireless communication means; - second energy providing means; - at least one second sensor; - a cutoff switch; and - second CPU; said coupling and said control unit configured to communicate with each other via said first and second wireless communication means; said control unit configured to cutoff said moment provider's power when at least one predetermined threshold is exceeded based on measurements taken by at least one of said at least one first sensor and said at least one second sensor. - a rotatable coupling configured to rotatably connect a moment provider with a load, said coupling comprising: - first wireless communication means; - first CPU; - first energy providing means; and - at least one first sensor; - first wireless communication means; - first CPU; - first energy providing means; and - at least one first sensor; - a control unit connected with said moment provider, said control unit comprising: - second wireless communication means; - second energy providing means; - at least one second sensor; - a cutoff switch; and - second CPU; - second wireless communication means; - second energy providing means; - at least one second sensor; - a cutoff switch; and - second CPU;
A positioning management method performed by a Next Generation-Radio Access Network, NG-RAN, node, wherein the NG-RAN node comprises a Local Location Management Function, LLMF, the positioning management method comprising: receiving a positioning request message from a core network node; performing positioning measurement in accordance with the positioning request message, so as to acquire a positioning measurement result; and acquiring position information about a target User Equipment, UE, in accordance with the positioning measurement result, and feeding the position information back to the core network node, characterized in that the positioning management method further comprises: transmitting a first interface setup request message to the core network node; and receiving a first interface setup response message fed back by the network core node in accordance with the first interface setup request message, wherein the first interface setup request message is used to explicitly or implicitly indicate that the NG-RAN node comprises the LLMF, a first interface is an NG interface or S1 interface, the NG interface is a communication interface between an NG-RAN and a core network, and the S1 interface is a communication interface between a Long Term Evolution, LTE, eNodeB and an Evolved Packet Core, EPC. receiving a positioning request message from a core network node; performing positioning measurement in accordance with the positioning request message, so as to acquire a positioning measurement result; and acquiring position information about a target User Equipment, UE, in accordance with the positioning measurement result, and feeding the position information back to the core network node, characterized in that the positioning management method further comprises: transmitting a first interface setup request message to the core network node; and receiving a first interface setup response message fed back by the network core node in accordance with the first interface setup request message, wherein the first interface setup request message is used to explicitly or implicitly indicate that the NG-RAN node comprises the LLMF, a first interface is an NG interface or S1 interface, the NG interface is a communication interface between an NG-RAN and a core network, and the S1 interface is a communication interface between a Long Term Evolution, LTE, eNodeB and an Evolved Packet Core, EPC. transmitting a first interface setup request message to the core network node; and receiving a first interface setup response message fed back by the network core node in accordance with the first interface setup request message, wherein the first interface setup request message is used to explicitly or implicitly indicate that the NG-RAN node comprises the LLMF, a first interface is an NG interface or S1 interface, the NG interface is a communication interface between an NG-RAN and a core network, and the S1 interface is a communication interface between a Long Term Evolution, LTE, eNodeB and an Evolved Packet Core, EPC.
Micro heating plate device having: a membrane support device; a membrane, which at least partly spans a cavity formed in the membrane support device; and at least one heating line arranged on and/or in the membrane; at least one reflector element, which is suspended on an inner side of the membrane and/or formed on a rear side of the cavity that faces away from the membrane, in such a way that, by means of the at least one reflector element, thermal radiation emitted from the at least one heating line and/or the membrane can be at least partly reflected back onto and/or into the membrane; characterized in that the membrane and/or the at least one reflector element has at least one pattern of plasmonic structures (24a, 24b). a membrane support device; a membrane, which at least partly spans a cavity formed in the membrane support device; and at least one heating line arranged on and/or in the membrane; at least one reflector element, which is suspended on an inner side of the membrane and/or formed on a rear side of the cavity that faces away from the membrane, in such a way that, by means of the at least one reflector element, thermal radiation emitted from the at least one heating line and/or the membrane can be at least partly reflected back onto and/or into the membrane; characterized in that the membrane and/or the at least one reflector element has at least one pattern of plasmonic structures (24a, 24b).
A process for the preparation of sunitinib of Formula I or an acid addition salt thereof, comprising: a) reacting 5-( -(5-fluoro-2-oxoindolin-3-ylidene) methyl)-2,4-dimethyl-1H-pyrrole-3-carboxylic acid of Formula II optionally in an organic solvent and in the presence of a base and a catalyst, with a suitable sulfonylating agent to obtain an activated compound of Formula III, wherein 'X' represents an alkyl or aryl sulfonyloxy group, and b) amidation of the compound of Formula III with N,N-diethylethylenediamine in an organic solvent to obtain sunitinib. a) reacting 5-( -(5-fluoro-2-oxoindolin-3-ylidene) methyl)-2,4-dimethyl-1H-pyrrole-3-carboxylic acid of Formula II optionally in an organic solvent and in the presence of a base and a catalyst, with a suitable sulfonylating agent to obtain an activated compound of Formula III, wherein 'X' represents an alkyl or aryl sulfonyloxy group, and b) amidation of the compound of Formula III with N,N-diethylethylenediamine in an organic solvent to obtain sunitinib.
Agent for dyeing human hair, containing in a cosmetically acceptable carrier at least one natural dye selected from alkaloid dyes, anthraquinone dyes, betalaines, carotenoids, catechins, curcumins, flavins, flavonoids, indigoid dyes, naphthoquinones, and further phenolic dyes, and at least one divalent metal salt, characterized in that the agent further contains at least one amphoteric polymer.
A suturing needle (26,102) to be used in a suturing device and configured to rotate about a rotation axis by a needle rotation drive of the suturing device, comprising: a) a curved body with a pointed end (60,102), a blunt end (62,110), and a gap (59,106) between the pointed end and the blunt end, wherein the curved body covers an arc greater than 180° and less than 360°; b) an opening (66,112) proximate the blunt end configured to engage a terminal end of a suturing material; c) two engagement means (68,114) on the curved body configured to engage the needle rotation drive, and characterised in that each engagement means is an engagement notch (68,114) defined in a radially inner edge of the curved body or a radially outer edge of the curved body, displaced 90° from the radially inner edge; and d) a third notch (70,116) is located in a radially outer edge of the curved body with respect to the rotation axis to interlock with an interlocking mechanism of a suturing device to ensure that the needle rotates only in a single direction on actuation of the needle rotation drive. a) a curved body with a pointed end (60,102), a blunt end (62,110), and a gap (59,106) between the pointed end and the blunt end, wherein the curved body covers an arc greater than 180° and less than 360°; b) an opening (66,112) proximate the blunt end configured to engage a terminal end of a suturing material; c) two engagement means (68,114) on the curved body configured to engage the needle rotation drive, and characterised in that each engagement means is an engagement notch (68,114) defined in a radially inner edge of the curved body or a radially outer edge of the curved body, displaced 90° from the radially inner edge; and d) a third notch (70,116) is located in a radially outer edge of the curved body with respect to the rotation axis to interlock with an interlocking mechanism of a suturing device to ensure that the needle rotates only in a single direction on actuation of the needle rotation drive.
A method of operation of a transmit point in a cellular communications network, the transmit point being one of a plurality of non-co-located transmit points of a shared cell that has a shared cell identifier, comprising: transmitting a Positioning Reference Signal, PRS, having at least one parameter that is a function of a cell portion identifier of the transmit point, the at least one parameter comprising at least one of a group consisting of: a frequency-shift of the PRS, a portion of a system bandwidth in which the PRS is transmitted, and a PRS sequence used for the PRS; wherein the at least one parameter of the PRS that is a function of the cell portion identifier of the transmit point comprises the frequency-shift of the PRS; and wherein the frequency-shift of the PRS is a function of the cell portion identifier of the transmit point and the shared cell identifier. transmitting a Positioning Reference Signal, PRS, having at least one parameter that is a function of a cell portion identifier of the transmit point, the at least one parameter comprising at least one of a group consisting of: a frequency-shift of the PRS, a portion of a system bandwidth in which the PRS is transmitted, and a PRS sequence used for the PRS; wherein the at least one parameter of the PRS that is a function of the cell portion identifier of the transmit point comprises the frequency-shift of the PRS; and wherein the frequency-shift of the PRS is a function of the cell portion identifier of the transmit point and the shared cell identifier.
A system comprising an energy-based instrument for sealing vascular tissue, the instrument comprising: a first deforming member and a second deforming member configured to move relative to one another about a pivot from a first position wherein the first deforming member and second deforming member are disposed in spaced relation relative to one another to a second position wherein the first deforming member and the second deforming member cooperate to deform the vascular tissue; and an optical system configured to illuminate a portion of the vascular tissue with light to seal the vascular tissue, the optical system comprising: a light source configured to generate light; a light distribution element configured to distribute the light over the portion of the vascular tissue; a light guide configured to guide the light from the light source to the light distribution element, wherein at least one of the first deforming member and the second deforming member includes optical reflective material (308, 309) that is configured to reflect light that has passed through the vascular tissue so that the light passes through the vascular tissue a second time; and a sensor configured to sense at least one optical or electrical parameter of the vascular tissue; and a controller configured to control at least one parameter of the light generated by the light source based on the at least one optical or electrical parameter of the vascular tissue sensed by the sensor to control the tissue sealing process. a first deforming member and a second deforming member configured to move relative to one another about a pivot from a first position wherein the first deforming member and second deforming member are disposed in spaced relation relative to one another to a second position wherein the first deforming member and the second deforming member cooperate to deform the vascular tissue; and an optical system configured to illuminate a portion of the vascular tissue with light to seal the vascular tissue, the optical system comprising: a light source configured to generate light; a light distribution element configured to distribute the light over the portion of the vascular tissue; a light guide configured to guide the light from the light source to the light distribution element, a light source configured to generate light; a light distribution element configured to distribute the light over the portion of the vascular tissue; a light guide configured to guide the light from the light source to the light distribution element, wherein at least one of the first deforming member and the second deforming member includes optical reflective material (308, 309) that is configured to reflect light that has passed through the vascular tissue so that the light passes through the vascular tissue a second time; and a sensor configured to sense at least one optical or electrical parameter of the vascular tissue; and a controller configured to control at least one parameter of the light generated by the light source based on the at least one optical or electrical parameter of the vascular tissue sensed by the sensor to control the tissue sealing process.
A catheter having a distal portion including an expandable member having a distal end, the expandable member further having a distal waist portion disposed adjacent the distal end of the expandable member, the distal waist portion having an outside diameter and being affixed to a first tubular member which extends through at least a portion of the expandable member and beyond the distal end of the expandable member to form a tip portion,, the catheter further comprising: a radiopaque means extending along at least a portion of the tip portion so that in use the radiopaque means renders at least a portion of said tip portion visible under fluoroscopy; wherein the inner and outer diameters of the tubular member at a distal end thereof taper from a wider diameter to a narrower diameter as the tubular member extends distally; and wherein the tubular member is a single elongate tube extending through the expandable member and forming the tip portion. a radiopaque means extending along at least a portion of the tip portion so that in use the radiopaque means renders at least a portion of said tip portion visible under fluoroscopy; wherein the inner and outer diameters of the tubular member at a distal end thereof taper from a wider diameter to a narrower diameter as the tubular member extends distally; and wherein the tubular member is a single elongate tube extending through the expandable member and forming the tip portion.
A glenoid device for preparing a shoulder joint of a patient comprising: a reusable guide holder (100, 100A) having a body between an upper surface and a lower surface and a tubular element extending from the upper surface, the tubular element having a bore (112, 114) passing through the body of the guide holder; and a patient-specific glenoid guide having a body between an upper surface and a lower surface, wherein the lower surface of the patient-specific glenoid guide is a patient-specific surface configured as a negative surface of a glenoid face based on an image of a shoulder joint of a patient reconstructed preoperatively from image scans of the shoulder joint of the patient and wherein the upper surface of the glenoid guide is configured to be coupled and contact to the lower surface of the guide holder (100, 100A), such that the bore of the guide holder is aligned along a patient-specific bore (210, 216) through the body of the patient-specific glenoid guide and along a corresponding alignment axis (A, R) of the patient-specific glenoid guide. a reusable guide holder (100, 100A) having a body between an upper surface and a lower surface and a tubular element extending from the upper surface, the tubular element having a bore (112, 114) passing through the body of the guide holder; and a patient-specific glenoid guide having a body between an upper surface and a lower surface, wherein the lower surface of the patient-specific glenoid guide is a patient-specific surface configured as a negative surface of a glenoid face based on an image of a shoulder joint of a patient reconstructed preoperatively from image scans of the shoulder joint of the patient and wherein the upper surface of the glenoid guide is configured to be coupled and contact to the lower surface of the guide holder (100, 100A), such that the bore of the guide holder is aligned along a patient-specific bore (210, 216) through the body of the patient-specific glenoid guide and along a corresponding alignment axis (A, R) of the patient-specific glenoid guide.
Computer-implemented method for determining production values for producing a custom-tailored knitted garment for a limb of a person, comprising the steps of - receiving a three-dimensional dataset of the limb acquired using a 3D scan device, - receiving at least one height value describing the dimension of a knitting row in the lengthwise direction of the limb and at least one total length value for at least one lengthwise section of the garment and determining a number of knitting rows for the at least one section of the garment by dividing the total length value by the height value, - evaluating the three-dimensional dataset to derive a circumference information describing the circumference of the limb along at least the length of the limb covered by the at least one section, - from the circumference information, determining a circumference value for each n-th knitting row or each knitting row except every n-th knitting row, wherein n is a natural number, in the at least one section, - wherein the circumference values are used as and/or for deriving production values for the knitted garment, - characterized in that at least one optics adaptation criterion is applied to at least a part of the circumference values and/or values derived therefrom in the lengthwise direction, wherein, if at least one of the at least one optics adaptation criterion is fulfilled, at least one further production value is chosen according to a rule associated with the fulfilled optics adaptation criterion, wherein the at least one further production value describes the amount of weft threads and/or the pretension of at least one weft thread. - receiving a three-dimensional dataset of the limb acquired using a 3D scan device, - receiving at least one height value describing the dimension of a knitting row in the lengthwise direction of the limb and at least one total length value for at least one lengthwise section of the garment and determining a number of knitting rows for the at least one section of the garment by dividing the total length value by the height value, - evaluating the three-dimensional dataset to derive a circumference information describing the circumference of the limb along at least the length of the limb covered by the at least one section, - from the circumference information, determining a circumference value for each n-th knitting row or each knitting row except every n-th knitting row, wherein n is a natural number, in the at least one section, - wherein the circumference values are used as and/or for deriving production values for the knitted garment, - characterized in that at least one optics adaptation criterion is applied to at least a part of the circumference values and/or values derived therefrom in the lengthwise direction, wherein, if at least one of the at least one optics adaptation criterion is fulfilled, at least one further production value is chosen according to a rule associated with the fulfilled optics adaptation criterion, wherein the at least one further production value describes the amount of weft threads and/or the pretension of at least one weft thread.
A method of processing multimedia data comprising compressed audio data, the method comprising: parsing the compressed audio data of the multimedia data into compressed audio frames; extracting at least two metadata parameters from each of the compressed audio frames, the at least two metadata parameters including side information and scale factors; identifying a root mean square, RMS, value for each of the compressed audio frames based on the extracted at least two metadata parameters; determining a sum of at least one RMS value for at least one frame included in each window of a sliding window having a predetermined time interval, over the determined RMS values arranged in a time series; and determining, as a highlighted part, at least one frame corresponding to a sliding window having the maximum sum among the sum for the each sliding window. parsing the compressed audio data of the multimedia data into compressed audio frames; extracting at least two metadata parameters from each of the compressed audio frames, the at least two metadata parameters including side information and scale factors; identifying a root mean square, RMS, value for each of the compressed audio frames based on the extracted at least two metadata parameters; determining a sum of at least one RMS value for at least one frame included in each window of a sliding window having a predetermined time interval, over the determined RMS values arranged in a time series; and determining, as a highlighted part, at least one frame corresponding to a sliding window having the maximum sum among the sum for the each sliding window.