mhurhangee/patent-ind-claim-en huggingface dataset:
A bearing element , in particular a rotor hub bearing, for the bearing of a component to be subjected to a radial force and/or an axial force and a tilting torque , comprising at least one inner ring element and at least one outer ring element , which, in an unloaded condition, are arranged coaxially to one another with respect to a central longitudinal axis , wherein a sliding bearing is formed between the inner ring element and the outer ring element , which is formed by at least two plain bearings arranged at an axial distance from one another, wherein each of the plain bearings is coupled with one of the ring elements on a receiving side , and a sliding surface is formed opposite each receiving side , which interacts with a running surface of the opposite ring element , wherein a tangent applied to the running surface of the ring element interacting with the plain bearings is arranged at a third angle with respect to the central longitudinal axis , characterized in that in the new state of the plain bearing , the sliding surface of the plain bearing has at least one first segment and one second segment in a cross-sectional view, wherein a tangent applied to the first segment is arranged at a first angle with respect to the central longitudinal axis and a tangent applied to the second segment is arranged at a second angle with respect to the central longitudinal axis , wherein the first angle differs in size from the second angle , wherein in an unloaded state the third angle of the running surface has the same size as the first angle of the first segment of the sliding surface , wherein the running surface is formed rotationally symmetrically with respect to the central longitudinal axis and has the shape of a frustum, and wherein the first segment and the second segment are formed by straight lines in a cross-sectional view, which are connected via a transition radius .
A pharmaceutical aqueous solution formulation comprising (a) 1-(4-{[4-(dimethylamino)piperidin-1-yl]carbonyl}phenyl)-3-[4-(4,6-dimorpholin-4-yl-1,3,5-triazin-2-yl)phenyl]urea, or a methanesulphonate salt thereof, methanesulphonic acid and water, wherein 1-(4-{[4-(dimethylamino)piperidin-1-yl]carbonyl}phenyl)-3-[4-(4,6-dimorpholin-4-yl-1,3,5-triazin-2-yl)phenyl]urea is present at a solution concentration of less than 35mg/ml or up to 30mg/ml and sufficient methanesulphonic acid is present to provide a solution which is essentially free from any visible particulates; or (b) 1-(4-{[4-(dimethylamino)piperidin-1-yl]carbonyl}phenyl)-3-[4-(4,6-dimorpholin-4-yl-1,3,5-triazin-2-yl)phenyl]urea, or an ethanesulphonate salt thereof, ethanesulphonic acid and water, wherein 1-(4-{[4-(dimethylamino)piperidin-1-yl]carbonyl}phenyl)-3-[4-(4,6-dimorpholin-4-yl-1,3,5-triazin-2-yl)phenyl]urea is present at a solution concentration of less than 35mg/ml or up to 30mg/ml and sufficient ethanesulphonic acid is present to provide a solution which is essentially free from any visible particulates.
Field-effect gate transistor comprising a) a substrate , b) a source terminal , c) a drain terminal , d) a channel between said source terminal and said drain terminal , said channel being a layer of Cu x Cr y O 2 , characterized in that the y/x ratio in Cu x Cr y O 2 is superior to 1 and said channel of Cu x Cr y O 2 presents a gradient of positive charge carriers concentration. a) a substrate , b) a source terminal , c) a drain terminal , d) a channel between said source terminal and said drain terminal , said channel being a layer of Cu x Cr y O 2 ,
A method performed by a session management Function, SMF , of a cellular communication network, the method comprising: sending a first charging data update request to a charging function, CHF , of the cellular communication network, the first charging data update request specifying a) a first data session associated with a data connection and b) a first amount of data used by the data connection and associated with the first data session; determining that a charging data response was not received from the CHF; assigning a second amount of data for the data connection in association with the first data session; determining that the CHF has become available; and in response to determining that the CHF has become available, sending a charging data initial request to the CHF, wherein the charging data initial request specifies a) a second data session to be associated with the data connection, b) the second amount of data used in the first data session, wherein the second amount of data corresponds to an amount of data that was used without being confirmed by the CHF, c) a third amount of data requested for the second data session, and d) a total amount of data used in the first data session. sending a first charging data update request to a charging function, CHF , of the cellular communication network, the first charging data update request specifying a) a first data session associated with a data connection and b) a first amount of data used by the data connection and associated with the first data session; determining that a charging data response was not received from the CHF; assigning a second amount of data for the data connection in association with the first data session; determining that the CHF has become available; and in response to determining that the CHF has become available, sending a charging data initial request to the CHF, wherein the charging data initial request specifies a) a second data session to be associated with the data connection, b) the second amount of data used in the first data session, wherein the second amount of data corresponds to an amount of data that was used without being confirmed by the CHF, c) a third amount of data requested for the second data session, and d) a total amount of data used in the first data session.
A cosmetic packaging bottle restricting backflow, including a soft tube packaging bottle and a liquid discharge head , and also including a non-return valve sheet , which is placed within the liquid discharge head , the non-return valve sheet has a one-way flow restriction function, so that contents of the soft tube packaging bottle are squeezed out in one direction and cannot flow back, a middle part of the non-return valve sheet is provided with a cross-shaped cutout , the non-return valve sheet is closed in the normal state, the non-return valve sheet is squeezed by the contents to open upward to discharge contents, the mouth of the soft tube packaging bottle is provided with a flow restriction seat , the non-return valve sheet is attached to an upper part of the flow restriction seat , and the flow restriction seat is provided with a flow restriction channel; the liquid discharge head has a concave cavity at the bottom, the liquid discharge head is capped on the flow restriction seat , pressed against the circumference of the non-return valve sheet , a middle part of the liquid discharge head is provided with a liquid discharge cavity , and the cross-shaped cutout of the non-return valve sheet can be opened in the direction of the liquid discharge cavity , characterised in that the bottom of the flow restriction seat is a concave cavity structure, the flow restriction channel includes a through-port placed at the side wall of the flow restriction seat , a side groove channel placed between an outer side wall of the flow restriction seat and the liquid discharge head , and an upper groove channel placed in an upper surface of the flow restriction seat ; the through-port , side groove channel , and upper groove channel are connected to each other in turn.
A hemostatic wound dressing comprising: a porous gelatin-chitosan polyelectrolyte matrix for use as a hemostatic drug carrier for the stopping of bleeding; the said porous gelatin-chitosan polyelectrolyte matrix comprising interconnected pores of different size to supply and transfer of hemostatic drugs when applied to a wound; wherein the hemostatic drugs comprise tranexamic acid, calcium chloride and thrombin.
A micro-light-emitting diode (micro-LED, 100) with a size thereof smaller than 100 μm X 100 μm or 0.01 mm 2 , comprising: a first type semiconductor layer ; a second type semiconductor layer disposed on or above the first type semiconductor layer ; a first dielectric layer disposed on the second type semiconductor layer , the first dielectric layer having at least one opening (O1) therein to expose at least one part of the second type semiconductor layer, wherein a first shortest distance (D1) between an edge of the opening (O1) of the first dielectric layer and a side surface of the second type semiconductor layer is greater than or equal to 1 μ m; a first electrode partially disposed on the first dielectric layer and electrically coupled with the exposed part of the second type semiconductor layer through the opening (O1) of the first dielectric layer , characterized in that the first electrode is made of a transparent conductive material; a second dielectric layer disposed on the first type semiconductor layer , the second dielectric layer having at least one opening therein to expose at least one part of the first type semiconductor layer , wherein a second shortest distance (D2) between an edge of the opening of the second dielectric layer and a side surface of the first type semiconductor layer is greater than or equal to 1 μm; and a second electrode partially disposed on the second dielectric layer and electrically coupled with the exposed part of the first type semiconductor layer through the opening of the second dielectric layer . a first type semiconductor layer ; a second type semiconductor layer disposed on or above the first type semiconductor layer ; a first dielectric layer disposed on the second type semiconductor layer , the first dielectric layer having at least one opening (O1) therein to expose at least one part of the second type semiconductor layer, wherein a first shortest distance (D1) between an edge of the opening (O1) of the first dielectric layer and a side surface of the second type semiconductor layer is greater than or equal to 1 μ m; a first electrode partially disposed on the first dielectric layer and electrically coupled with the exposed part of the second type semiconductor layer through the opening (O1) of the first dielectric layer , characterized in that the first electrode is made of a transparent conductive material; a second dielectric layer disposed on the first type semiconductor layer , the second dielectric layer having at least one opening therein to expose at least one part of the first type semiconductor layer , wherein a second shortest distance (D2) between an edge of the opening of the second dielectric layer and a side surface of the first type semiconductor layer is greater than or equal to 1 μm; and a second electrode partially disposed on the second dielectric layer and electrically coupled with the exposed part of the first type semiconductor layer through the opening of the second dielectric layer .
A method for increasing the performance and / or working life of pistons, the method comprising the steps of: a. fixing at least one piston with surface portions (144, 145 A, 145 B) to be coated in a substrate receptacle which is arranged on a substrate holding device using a coupling system , b. introducing the substrate holding device including the piston to be coated into a coating area of the coating chamber, c. coating the surface portions to be coated , characterized in that d. at least one PVD coating source having target , which coating source is arranged on a wall of the coating chamber, is operated at least temporarily during coating, the target surface to be vaporized is at least largely parallel to the vertical axis, and the surface portions are at least temporarily positioned in front of the target surface in the coating area using the holding device, wherein e. using a rotation system, which is simultaneously designed as a coupling system or which is arranged on the coupling system or which is realized as part of the coupling system , the substrate receptacle is at least periodically set in rotational motion in its own axis of rotation (G ), and the axis of rotation (G) forms an angle α greater than 10 ° and less than 180 ° with respect to the vertical axis, such that each part of the individual surface portions is reached at least once by the coating material . a. fixing at least one piston with surface portions (144, 145 A, 145 B) to be coated in a substrate receptacle which is arranged on a substrate holding device using a coupling system , b. introducing the substrate holding device including the piston to be coated into a coating area of the coating chamber, c. coating the surface portions to be coated , characterized in that d. at least one PVD coating source having target , which coating source is arranged on a wall of the coating chamber, is operated at least temporarily during coating, the target surface to be vaporized is at least largely parallel to the vertical axis, and the surface portions are at least temporarily positioned in front of the target surface in the coating area using the holding device, wherein e. using a rotation system, which is simultaneously designed as a coupling system or which is arranged on the coupling system or which is realized as part of the coupling system , the substrate receptacle is at least periodically set in rotational motion in its own axis of rotation (G ), and the axis of rotation (G) forms an angle α greater than 10 ° and less than 180 ° with respect to the vertical axis, such that each part of the individual surface portions is reached at least once by the coating material .
An electrosurgical device comprising: a probe extending in a longitudinal direction between a proximal end and a distal end , wherein the probe includes a proximal region and a distal region , wherein an inner diameter of the probe defines a lumen , wherein the probe has an electrically insulated portion extending from the proximal region to the distal region and an electrically exposed conductive portion located at the distal region , wherein the electrically exposed conductive portion delivers radiofrequency energy to an area of tissue adjacent the distal region of the probe ; and a heat transfer system for removing thermal energy from the area of tissue, wherein the heat transfer system is in thermal contact with the area of tissue, wherein the heat transfer system removes from about 0.1 Watts to about 50 Watts of energy from the area of tissue, and the heat transfer system comprises a heat removal material in thermal contact with the area of tissue, characterized in that the heat removal material comprises a heat transfer material and a heat sink , the heat transfer material comprises at least two Peltier circuits (138A-F) positioned within the lumen and a connection exists between the at least two Peltier circuits (138A-F) and the distal region of the probe , each Peltier circuit (138A-F) comprising a hot side (139A-F) and a cold side (140A-F), wherein the hot side (139A-F) is in thermal contact with the heat sink , with the hot side (139A-F) positioned closer to the proximal end of the probe and the cold side (140A-F) positioned closer to the distal end of the probe . a probe extending in a longitudinal direction between a proximal end and a distal end , wherein the probe includes a proximal region and a distal region , wherein an inner diameter of the probe defines a lumen , wherein the probe has an electrically insulated portion extending from the proximal region to the distal region and an electrically exposed conductive portion located at the distal region , wherein the electrically exposed conductive portion delivers radiofrequency energy to an area of tissue adjacent the distal region of the probe ; and a heat transfer system for removing thermal energy from the area of tissue, wherein the heat transfer system is in thermal contact with the area of tissue, wherein the heat transfer system removes from about 0.1 Watts to about 50 Watts of energy from the area of tissue, and the heat transfer system comprises a heat removal material in thermal contact with the area of tissue, characterized in that the heat removal material comprises a heat transfer material and a heat sink , the heat transfer material comprises at least two Peltier circuits (138A-F) positioned within the lumen and a connection exists between the at least two Peltier circuits (138A-F) and the distal region of the probe , each Peltier circuit (138A-F) comprising a hot side (139A-F) and a cold side (140A-F), wherein the hot side (139A-F) is in thermal contact with the heat sink , with the hot side (139A-F) positioned closer to the proximal end of the probe and the cold side (140A-F) positioned closer to the distal end of the probe .
A computer-implemented method of dynamically configuring a client installed on a communication device, the method comprising, at a server operationally connected to the client through a network: obtaining , from the client, environment identification data, the environment identification data identifying an environment in which the client operates, the environment identification data including a type of connection between the communication device and the network, and parameters of the connection; generating , as a function of the environment identification data and of set rules, a configuration for the client; and pushing , to the client, the configuration, the configuration for configuring the client to operate in the environment. obtaining , from the client, environment identification data, the environment identification data identifying an environment in which the client operates, the environment identification data including a type of connection between the communication device and the network, and parameters of the connection; generating , as a function of the environment identification data and of set rules, a configuration for the client; and pushing , to the client, the configuration, the configuration for configuring the client to operate in the environment.
Camera-based method for determining the distance from an object in the surroundings of a vehicle, in the case of a stationary vehicle , wherein a camera is permanently attached to the vehicle , having the following steps: - detecting a first predefined event which relates to a pitching movement of the vehicle ; - activating the camera on the basis of the detection of the first event, in order to capture a first and a second image of the surroundings to the front or rear of the vehicle with a chronological relationship to the pitching movement; - determining an absolute displacement of the camera in the vertical direction and/or by pivoting an image axis of the camera by means of the pitching movement, and - processing the first and second images in order to determine a distance from the object from shifting of the object , which has occurred between the recording times of the first and second images owing to the pitching movement, in the field of vision of the camera , wherein the determined absolute displacement is included in the determination of the distance from the object . - detecting a first predefined event which relates to a pitching movement of the vehicle ; - activating the camera on the basis of the detection of the first event, in order to capture a first and a second image of the surroundings to the front or rear of the vehicle with a chronological relationship to the pitching movement; - determining an absolute displacement of the camera in the vertical direction and/or by pivoting an image axis of the camera by means of the pitching movement, and - processing the first and second images in order to determine a distance from the object from shifting of the object , which has occurred between the recording times of the first and second images owing to the pitching movement, in the field of vision of the camera , wherein the determined absolute displacement is included in the determination of the distance from the object .
A fluted drum for the tobacco processing industry, having receiving troughs for rod-shaped articles for the tobacco processing industry, in particular filter rods and/or filter pieces and/or segmented products, wherein the fluted drum has a drum body which can be rotated about an axis of rotation, wherein the drum body has a series of receiving troughs arranged behind one another transversely axially in the circumferential direction, wherein the receiving troughs each have a groove bottom, wherein the groove bottom of the receiving troughs is delimited in each case by a leading aligning groove segment in the conveying direction of the fluted drum and by a trailing aligning groove segment in the conveying direction of the fluted drum , wherein the aligning groove segments extend parallel to the axis of rotation of the fluted drum at least in sections, wherein a compressed air hole which can be supplied with compressed air and which has an outlet opening in the receiving trough is provided in each case in the groove bottom of the respective receiving troughs and between the aligning groove segments of the respective receiving trough , wherein an air flow asymmetry zone is provided in the region of the outlet opening of the compressed air hole , characterized in that the compressed air hole is arranged in each case between at least two suction air holes in the receiving troughs .
A method of operation for use with a magnetic resonance imaging, MRI, based medical imaging system to automatically correct phase aliasing, the method comprising: receiving, by at least one processor, a set of MRI data representative of an anatomical structure, the set of MRI data comprising respective anatomical structure and velocity for each of a plurality of voxels, characterized by : for each of at least some of the plurality of voxels, identifying, by the at least one processor, sharp gradients in flow velocity near a velocity encoding parameter; connecting, by the at least one processor, all of the voxels identified as having a sharp gradient to define an enclosed boundary; determining, by the at least one processor, whether all of the voxels in the enclosed boundary are aliased; and responsive to determining that all of the voxels in the enclosed boundary are aliased: adding, by the at least one processor, a multiple of the velocity encoding parameter to the velocity for each of the voxels in the enclosed boundary; or subtracting, by the at least one processor, a multiple of the velocity encoding parameter from the velocity for each of the voxels in the enclosed boundary. for each of at least some of the plurality of voxels, identifying, by the at least one processor, sharp gradients in flow velocity near a velocity encoding parameter; connecting, by the at least one processor, all of the voxels identified as having a sharp gradient to define an enclosed boundary; determining, by the at least one processor, whether all of the voxels in the enclosed boundary are aliased; and responsive to determining that all of the voxels in the enclosed boundary are aliased: adding, by the at least one processor, a multiple of the velocity encoding parameter to the velocity for each of the voxels in the enclosed boundary; or subtracting, by the at least one processor, a multiple of the velocity encoding parameter from the velocity for each of the voxels in the enclosed boundary. adding, by the at least one processor, a multiple of the velocity encoding parameter to the velocity for each of the voxels in the enclosed boundary; or subtracting, by the at least one processor, a multiple of the velocity encoding parameter from the velocity for each of the voxels in the enclosed boundary.