mhurhangee/patent-ind-claim-en huggingface dataset:
Separating element for a perforated sterilization basket for sterilizing medical instruments, comprising two lateral wall portions and a central wall portion located therebetween, wherein the separating element is substantially planar, and the central wall portion has a plurality of throughopenings , characterized in that one lateral wall portion has a slot-shaped cut-out , and so the lateral region of this lateral wall portion separated by the slot-shaped cut-out is in the form of a resilient portion , wherein the resilient portion has a number of projections which extend at least in the lateral direction, wherein the resilient portion is elastically deformable toward the central wall portion to such an extent that the maximum lateral extension of the separating element is reduced, and the other lateral wall portion has a number of projections which extend at least partially in the lateral direction, wherein the number of projections is adapted to be anchored in a wall of a perforated sterilization basket and/or in another separating element . two lateral wall portions and a central wall portion located therebetween, wherein the separating element is substantially planar, and the central wall portion has a plurality of throughopenings , characterized in that one lateral wall portion has a slot-shaped cut-out , and so the lateral region of this lateral wall portion separated by the slot-shaped cut-out is in the form of a resilient portion , wherein the resilient portion has a number of projections which extend at least in the lateral direction, wherein the resilient portion is elastically deformable toward the central wall portion to such an extent that the maximum lateral extension of the separating element is reduced, and the other lateral wall portion has a number of projections which extend at least partially in the lateral direction, wherein the number of projections is adapted to be anchored in a wall of a perforated sterilization basket and/or in another separating element .
A method for wireless communication using multiple co-existence wireless systems having overlapping coverage and which form part of a small cell, wherein the small cell includes a co-located access point providing a WLAN Service and a femto cell providing a cellular service, the method comprising: identifying , by a small cell controller for the small cell, a user equipment, UE, located within coverage of the multiple co-existence wireless systems and communicating with a first wireless system among the multiple co-existence wireless systems; determining , by the small cell controller, metrics of the UE for the multiple co-existence wireless systems, the metrics being related to efficiency, or service charge, or service subscription, or application type, or buffer size, or a combination thereof; and determining , by the small cell controller, whether to switch the UE from the first wireless system to another one of the multiple co-existence wireless systems based on the metrics of the UE for the multiple co-existence wireless systems. identifying , by a small cell controller for the small cell, a user equipment, UE, located within coverage of the multiple co-existence wireless systems and communicating with a first wireless system among the multiple co-existence wireless systems; determining , by the small cell controller, metrics of the UE for the multiple co-existence wireless systems, the metrics being related to efficiency, or service charge, or service subscription, or application type, or buffer size, or a combination thereof; and determining , by the small cell controller, whether to switch the UE from the first wireless system to another one of the multiple co-existence wireless systems based on the metrics of the UE for the multiple co-existence wireless systems.
A carrier scheduling method for carrier aggregation, CA, applied to a network side, characterized by comprising: within a transmission time interval, TTI, when a number of times of overlapping between a plurality of search spaces of a plurality of pieces of user equipment, UE, to be scheduled satisfies a preset determination condition, selecting a UE-specific downlink control information, DCI, format from a plurality of DCI formats; marking the selected UE-specific DCI format, and setting scheduling of a physical downlink shared channel, PDSCH, corresponding to the UE-specific DCI format onto an anchor carrier component; setting a plurality of physical downlink control channels, PDCCHs, corresponding to remaining DCI formats other than the UE-specific DCI format onto a plurality of carrier components for scheduling PDSCHs corresponding to the remaining DCI formats; and sending the set anchor carrier component and the plurality of carrier components set corresponding to the remaining DCI formats to the pieces of UE to be scheduled. within a transmission time interval, TTI, when a number of times of overlapping between a plurality of search spaces of a plurality of pieces of user equipment, UE, to be scheduled satisfies a preset determination condition, selecting a UE-specific downlink control information, DCI, format from a plurality of DCI formats; marking the selected UE-specific DCI format, and setting scheduling of a physical downlink shared channel, PDSCH, corresponding to the UE-specific DCI format onto an anchor carrier component; setting a plurality of physical downlink control channels, PDCCHs, corresponding to remaining DCI formats other than the UE-specific DCI format onto a plurality of carrier components for scheduling PDSCHs corresponding to the remaining DCI formats; and sending the set anchor carrier component and the plurality of carrier components set corresponding to the remaining DCI formats to the pieces of UE to be scheduled.
Method for determining movement information describing a cyclical movement of a patient in a magnetic resonance device , wherein the movement information is used to control the recording and optionally to evaluate magnetic resonance data with the magnetic resonance device and the movement information is determined by evaluating movement data of a movement measuring means, wherein both a navigator sequence to be carried out with the magnetic resonance device and also a movement sensor arranged on the patient are used as movement measuring means, wherein the navigator data recorded by means of the navigator sequence is evaluated as movement data and the sensor data measured by the movement sensor is evaluated at least partly together as movement data, characterised in that at least one recording parameter for the recording of the magnetic resonance data is selected as movement information as a function of a characteristic value describing the temporal course of the movement.
A method of manufacturing a carbonaceous material for a non-aqueous electrolyte secondary battery negative electrode, comprising: an alkali impregnating step of adding 3.0 wt.% to 40.0 wt.% of a compound containing an alkali metal element to a plant-derived char to obtain a plant-derived char impregnated with alkali; a heat treating step of heat treating the plant-derived char impregnated with alkali at 500°C to 1000°C in a non-oxidizing gas atmosphere to obtain an alkali-treated carbonaceous material precursor; a gas phase de-mineralizing step of heat treating the alkali-treated carbonaceous material precursor at 500°C to 1250°C in an inert gas atmosphere containing a halogen compound; a step of pulverizing the carbonaceous material precursor obtained by gas phase de-mineralizing; a step of main firing the pulverized carbonaceous material precursor at 800°C to 1600°C in a non-oxidizing gas atmosphere; and a step of coating the fired material with pyrolytic carbon. an alkali impregnating step of adding 3.0 wt.% to 40.0 wt.% of a compound containing an alkali metal element to a plant-derived char to obtain a plant-derived char impregnated with alkali; a heat treating step of heat treating the plant-derived char impregnated with alkali at 500°C to 1000°C in a non-oxidizing gas atmosphere to obtain an alkali-treated carbonaceous material precursor; a gas phase de-mineralizing step of heat treating the alkali-treated carbonaceous material precursor at 500°C to 1250°C in an inert gas atmosphere containing a halogen compound; a step of pulverizing the carbonaceous material precursor obtained by gas phase de-mineralizing; a step of main firing the pulverized carbonaceous material precursor at 800°C to 1600°C in a non-oxidizing gas atmosphere; and a step of coating the fired material with pyrolytic carbon.
An induction heating cooker configured for transferring power to a power receiving apparatus , the induction heating cooker comprising: a support on which the power receiving apparatus is placed; a coil disposed below the support and configured to generate a high-frequency magnetic field upon receiving supply of a high-frequency current; a communication device disposed below the support and configured to perform radio communication with the power receiving apparatus ; characterized by a first magnetic shield member made of an electric conductor, the first magnetic shield member being disposed between the communication device and the coil ; and a second magnetic shield member made of an electric conductor or a magnetic body, the second magnetic shield member being disposed on at least one of a lower surface and a lateral surface of the communication device , wherein the first magnetic shield member and the second magnetic shield member are formed integrally with each other. a support on which the power receiving apparatus is placed; a coil disposed below the support and configured to generate a high-frequency magnetic field upon receiving supply of a high-frequency current; a communication device disposed below the support and configured to perform radio communication with the power receiving apparatus ; characterized by a first magnetic shield member made of an electric conductor, the first magnetic shield member being disposed between the communication device and the coil ; and a second magnetic shield member made of an electric conductor or a magnetic body, the second magnetic shield member being disposed on at least one of a lower surface and a lateral surface of the communication device , wherein the first magnetic shield member and the second magnetic shield member are formed integrally with each other.
A nutritional composition in gel form comprising at least 40wt% of one or more maltodextrin(s) having: (i) a dextrose equivalent (DE) of from 0.5 to 4, preferably 1 to 3.5, more preferably 2 to 3; and (ii) an amylose content below 5wt% of the maltodextrin, preferably below 3wt%, more preferably below 1wt%; and wherein the composition has an osmolality ranging from 270 to 330 mOmol kg -1 as determined using a vapor pressure osmometer, by the method defined in the description. (i) a dextrose equivalent (DE) of from 0.5 to 4, preferably 1 to 3.5, more preferably 2 to 3; and (ii) an amylose content below 5wt% of the maltodextrin, preferably below 3wt%, more preferably below 1wt%;
A bone tethering screw system comprising: a bone screw having a threaded shank and a head portion , the head portion including inner walls defining a slot and a recess distal of the slot ; an elongate fastening member configured to be received in the recess of the head portion of the bone screw ; and a securing member having an engaging portion and a set screw rotatably coupled with the engaging portion , the engaging portion configured to secure the elongate fastening member in the recess of the head portion of the bone screw , the set screw configured to threadably engage the inner walls of the head portion of bone screw , wherein when the set screw threadably engages the inner walls of the head portion of the bone screw , the engaging portion advances relative to the fastening member to secure the fastening member in the recess of the head portion ; characterized in that the engaging portion of the securing member defines a bore configured to receive a portion of the set screw , and comprises pins , and the set screw defines a post configured to be rotatably received in the bore of the engaging portion of the securing member , the post including a flange configured to engage the pins of the engaging portion to inhibit relative axial displacement between the set screw and the engaging portion . a bone screw having a threaded shank and a head portion , the head portion including inner walls defining a slot and a recess distal of the slot ; an elongate fastening member configured to be received in the recess of the head portion of the bone screw ; and a securing member having an engaging portion and a set screw rotatably coupled with the engaging portion , the engaging portion configured to secure the elongate fastening member in the recess of the head portion of the bone screw , the set screw configured to threadably engage the inner walls of the head portion of bone screw , wherein when the set screw threadably engages the inner walls of the head portion of the bone screw , the engaging portion advances relative to the fastening member to secure the fastening member in the recess of the head portion ; characterized in that the engaging portion of the securing member defines a bore configured to receive a portion of the set screw , and comprises pins , and the set screw defines a post configured to be rotatably received in the bore of the engaging portion of the securing member , the post including a flange configured to engage the pins of the engaging portion to inhibit relative axial displacement between the set screw and the engaging portion .
A method for controlling a vehicle comprising a drivetrain comprising a drive device adapted to generate mechanical power, the method comprising: - controlling the vehicle to perform a mission comprising a plurality of stages (MS1-MS12), - collecting operational data relevant to the operation of the drivetrain, wherein the operational data indicate a de-rate of a component of the drivetrain, a fault of a component of the drivetrain, and/or an environmental condition which influences the drivetrain operation, wherein the operational data, relevant to the operation of the drivetrain, is collected during the mission, and - determining an expected mission stage (MS1-MS12), characterized in that the method further comprises: - determining, in dependence on the operational data, the propulsive capacity (CA1-CA3) in at least two different operational areas (A1-A3) of the drive device , the operational areas (A1-A3) being defined by respective different intervals of a rotational speed of the drive device, - mapping the operational area propulsive capacities (CA1-CA3) to the expected mission stage (MS1-MS12), wherein said mapping comprises comparing the operational area propulsive capacities to respective capacity threshold values (Ta-Tak) of the operational area propulsive capacities in the expected mission stage, wherein each capacity threshold value provides a lower limit of the respective operational area propulsive capacity (CA1-CA3) in the expected mission stage (MS1-MS12), and - controlling the vehicle in dependence on said mapping. - controlling the vehicle to perform a mission comprising a plurality of stages (MS1-MS12), - collecting operational data relevant to the operation of the drivetrain, wherein the operational data indicate a de-rate of a component of the drivetrain, a fault of a component of the drivetrain, and/or an environmental condition which influences the drivetrain operation, wherein the operational data, relevant to the operation of the drivetrain, is collected during the mission, and - determining an expected mission stage (MS1-MS12), - determining, in dependence on the operational data, the propulsive capacity (CA1-CA3) in at least two different operational areas (A1-A3) of the drive device , the operational areas (A1-A3) being defined by respective different intervals of a rotational speed of the drive device, - mapping the operational area propulsive capacities (CA1-CA3) to the expected mission stage (MS1-MS12), wherein said mapping comprises comparing the operational area propulsive capacities to respective capacity threshold values (Ta-Tak) of the operational area propulsive capacities in the expected mission stage, wherein each capacity threshold value provides a lower limit of the respective operational area propulsive capacity (CA1-CA3) in the expected mission stage (MS1-MS12), and - controlling the vehicle in dependence on said mapping.
An electronic device , comprising: a plurality of hardware devices ; and at least one processor configured to: execute a first operating system, OS, and control a first part of the plurality of hardware devices to process first data from a first program executed based on the first OS , obtain a command for executing the second OS while the first OS is executed, based on the command for executing the second OS , generate a container for executing the second OS based on a kernel of the first OS , execute the second OS based on the generated container , execute a second program based on the second OS , obtain second data regarding the second program from the second OS , by a control application executed based on the first OS , and control a second part of the plurality of hardware devices to process the second data regarding the second program , based on the first OS using the control application . a plurality of hardware devices ; and at least one processor configured to: execute a first operating system, OS, and control a first part of the plurality of hardware devices to process first data from a first program executed based on the first OS , obtain a command for executing the second OS while the first OS is executed, based on the command for executing the second OS , generate a container for executing the second OS based on a kernel of the first OS , execute the second OS based on the generated container , execute a second program based on the second OS , obtain second data regarding the second program from the second OS , by a control application executed based on the first OS , and control a second part of the plurality of hardware devices to process the second data regarding the second program , based on the first OS using the control application . execute a first operating system, OS, and control a first part of the plurality of hardware devices to process first data from a first program executed based on the first OS , obtain a command for executing the second OS while the first OS is executed, based on the command for executing the second OS , generate a container for executing the second OS based on a kernel of the first OS , execute the second OS based on the generated container , execute a second program based on the second OS , obtain second data regarding the second program from the second OS , by a control application executed based on the first OS , and control a second part of the plurality of hardware devices to process the second data regarding the second program , based on the first OS using the control application .
Use of a thermosetting polymeric powder composition in a Selective Laser Sintering process to produce a 3D duroplast, wherein the composition comprises at least one curable polymeric binder material and wherein during each pass of the SLS process said polymeric binder material is at least partially cured within the layer thus formed and also at least partially crosslinked with the previous layer.
Bicycle component with a measuring device with a housing and at least one measuring probe connected therewith, comprising at least one unheated probe body having at least one exterior opening , the exterior opening being connected through an air guide with at least one barometric pressure sensor disposed remote from the exterior opening , characterized in that the air guide comprises at least two air ducts and at least one internal chamber connected with at least two air ducts , wherein one of the air ducts is configured as a supply duct and begins at the exterior opening , and wherein another air duct serves as a sensor duct and connects the internal chamber with the barometric pressure sensor , and wherein at least one of the air ducts has a minimum clear diameter of less than 2.5 mm.
An apparatus comprising: means for establishing to a serving wireless network a wireless connection with a relay context for the apparatus to act as a relay node to relay data between the serving wireless network and one or more second apparatuses using sidelink communication between the apparatus and the one or more second apparatuses, wherein the one or more second apparatuses using sidelink are acting as one or more remote nodes and the relay context comprises an identity assigned by the serving wireless network to the apparatus; means for determining , in response to preset criteria being fulfilled , that a role switch between the apparatus and a second apparatus amongst the one or more remote nodes is to take place; means for sending , in response to the means for determining determining that the role switch is to take place, over a sidelink to the second apparatus a first message comprising at least the relay context with said identity for the second apparatus to start to act as the relay node; means for stopping , in response to the means for sending sending said first message to the second apparatus, to act as the relay node, and for starting to act as a remote node, and for using the sidelink communication to the second apparatus for data transmission between the apparatus and the serving wireless network. means for establishing to a serving wireless network a wireless connection with a relay context for the apparatus to act as a relay node to relay data between the serving wireless network and one or more second apparatuses using sidelink communication between the apparatus and the one or more second apparatuses, wherein the one or more second apparatuses using sidelink are acting as one or more remote nodes and the relay context comprises an identity assigned by the serving wireless network to the apparatus; means for determining , in response to preset criteria being fulfilled , that a role switch between the apparatus and a second apparatus amongst the one or more remote nodes is to take place; means for sending , in response to the means for determining determining that the role switch is to take place, over a sidelink to the second apparatus a first message comprising at least the relay context with said identity for the second apparatus to start to act as the relay node; means for stopping , in response to the means for sending sending said first message to the second apparatus, to act as the relay node, and for starting to act as a remote node, and for using the sidelink communication to the second apparatus for data transmission between the apparatus and the serving wireless network.
A pulsed power drilling apparatus for passing a pulsed electrical current through a substrate to break the substrate , the apparatus comprising: a spiker pulsed power system for generating at least one high voltage pulse; a sustainer pulsed power system for generating at least one high current pulse; a center electrode ; a surrounding electrode ; and said two pulsed power systems comprising a spiker-sustainer power system configured to provide the at least one high voltage pulse followed by the at least one high current pulse wherein the two pulsed power systems are further configured to fire one right after the other. a spiker pulsed power system for generating at least one high voltage pulse; a sustainer pulsed power system for generating at least one high current pulse; a center electrode ; a surrounding electrode ; and said two pulsed power systems comprising a spiker-sustainer power system configured to provide the at least one high voltage pulse followed by the at least one high current pulse wherein the two pulsed power systems are further configured to fire one right after the other.