mhurhangee/ep-ind-claims huggingface dataset:
A welding-type power supply, comprising: - a power converter to convert input power to welding-type power based on a weld voltage setpoint and to output the welding-type power via a weld circuit; - a receiver circuit to receive a communication via the weld circuit, the communication including weld voltage feedback information measured at a device remote from the power supply while the current is flowing through the weld circuit; and - a controller to control the welding-type power output by the power converter according to a voltage feedback loop using the weld voltage feedback information to regulate a weld voltage at the remote device to the weld voltage setpoint, characterized in that the communication is received after the current has stopped flowing through the weld circuit. - a power converter to convert input power to welding-type power based on a weld voltage setpoint and to output the welding-type power via a weld circuit; - a receiver circuit to receive a communication via the weld circuit, the communication including weld voltage feedback information measured at a device remote from the power supply while the current is flowing through the weld circuit; and - a controller to control the welding-type power output by the power converter according to a voltage feedback loop using the weld voltage feedback information to regulate a weld voltage at the remote device to the weld voltage setpoint,
A method of imaging tissue or cells, the method comprising: (a) contacting the tissue or cells with an imaging agent comprising a dye or conjugate thereof, the conjugate comprising a targeting ligand attached to the dye, wherein the dye or conjugate has a net charge of +1, 0, or -1 and comprises one or more ionic groups; (b) irradiating the tissue or cells at a wavelength absorbed by the dye or conjugate; (c) detecting an optical signal from the irradiated tissue or cells, wherein the signal-to-background ratio of the detected optical signal is at least about 1.1, thereby imaging the tissue or cells, wherein the dye has the Formula X: (a) contacting the tissue or cells with an imaging agent comprising a dye or conjugate thereof, the conjugate comprising a targeting ligand attached to the dye, wherein the dye or conjugate has a net charge of +1, 0, or -1 and comprises one or more ionic groups; (b) irradiating the tissue or cells at a wavelength absorbed by the dye or conjugate; (c) detecting an optical signal from the irradiated tissue or cells, wherein the signal-to-background ratio of the detected optical signal is at least about 1.1, thereby imaging the tissue or cells,
An implant arrangement with a thread which can be exposed to a jaw bone and which has a first extent in the longitudinal direction of the implant, and in which second extents (R-R1) are assigned to the thread flanks (3, 4) between the inner and outer peripheries of the thread, wherein along all or part, preferably substantial parts, of the first extent of the implant, the thread flanks are arranged with one groove (11', 14) extending in the peripheral direction and situated on the second extents of the thread flanks, wherein the groove is arranged on the undersides of the thread flanks, wherein the thread flanks are provided with oxidation layers or porous layers, wherein the groove width is chosen in the range of 50-300 μm, and wherein the groove depth is chosen in the range of 50-100 μm.
A method for generating mid-air haptic textures comprising: importing a texture image having macro texture features M i and micro texture features m i by an offline component; extracting, by the offline component, M i, and m i from the texture image; constructing a haptic mapping function for a haptic sensation, s i, suitable for providing mid-air haptic texture to a virtual object, x i, wherein the haptic mapping function for a particular haptic sensation, s i, is a function of s i, M i, and m i; applying the haptic mapping function for the haptic sensation, s i, to the haptic sensation, s i, generate an offline component output; on an iterative basis for each value i: a) detecting, by a mid-air tracking system, collision points between a moving human hand and a virtual object x i; b) calculating, by the mid-air tracking system, the center of mass of the collision points X =μ( x i), which is the average of all recorded collision points x i on the moving human hand; c) establishing, by the mid-air tracking system, projecting, using an ultrasonic transducer array, a mid-air haptic defined by the haptic mapping function for a particular haptic sensation s i to X depending on the offline component output. importing a texture image having macro texture features M i and micro texture features m i by an offline component; extracting, by the offline component, M i, and m i from the texture image; constructing a haptic mapping function for a haptic sensation, s i, suitable for providing mid-air haptic texture to a virtual object, x i, wherein the haptic mapping function for a particular haptic sensation, s i, is a function of s i, M i, and m i; applying the haptic mapping function for the haptic sensation, s i, to the haptic sensation, s i, generate an offline component output; on an iterative basis for each value i: a) detecting, by a mid-air tracking system, collision points between a moving human hand and a virtual object x i; b) calculating, by the mid-air tracking system, the center of mass of the collision points X =μ( x i), which is the average of all recorded collision points x i on the moving human hand; c) establishing, by the mid-air tracking system, projecting, using an ultrasonic transducer array, a mid-air haptic defined by the haptic mapping function for a particular haptic sensation s i to X depending on the offline component output. a) detecting, by a mid-air tracking system, collision points between a moving human hand and a virtual object x i; b) calculating, by the mid-air tracking system, the center of mass of the collision points X =μ( x i), which is the average of all recorded collision points x i on the moving human hand; c) establishing, by the mid-air tracking system, projecting, using an ultrasonic transducer array, a mid-air haptic defined by the haptic mapping function for a particular haptic sensation s i to X depending on the offline component output.
Method for regulating a combustion apparatus, the combustion apparatus comprising a combustion chamber and a first temperature sensor in the combustion chamber and a second temperature sensor in the combustion chamber, wherein the second temperature sensor is different from the first temperature sensor, the method comprising the steps: recording a first signal from the first temperature sensor; recording a second signal from the second temperature sensor; ascertaining at least one first combustion power as a function of the first signal using a first characteristic curve, which indicates a progression of the combustion power for the first temperature sensor via the signal of the first temperature sensor; ascertaining at least one second combustion power as a function of the second signal using a second characteristic curve, which indicates a progression of the combustion power for the second temperature signal via the signal of the second temperature sensor; ascertaining a current combustion power of the combustion apparatus as a function of the at least one first combustion power and the at least one second combustion power; and regulating the current combustion power of the combustion apparatus to a setpoint power of the combustion apparatus. recording a first signal from the first temperature sensor; recording a second signal from the second temperature sensor; ascertaining at least one first combustion power as a function of the first signal using a first characteristic curve, which indicates a progression of the combustion power for the first temperature sensor via the signal of the first temperature sensor; ascertaining at least one second combustion power as a function of the second signal using a second characteristic curve, which indicates a progression of the combustion power for the second temperature signal via the signal of the second temperature sensor; ascertaining a current combustion power of the combustion apparatus as a function of the at least one first combustion power and the at least one second combustion power; and regulating the current combustion power of the combustion apparatus to a setpoint power of the combustion apparatus.
A filtration device having a plurality of filtration units, wherein a filtration unit respectively comprises: a first container, configured to receive a medium to be filtered, a second container, configured to receive a filtrate, at least one connection line, which connects the first container to the second container, and a filter medium between the first container and the second container, in order to filter the medium to be filtered; wherein the first container is configured to be subjected to positive pressure, wherein the second container is configured to receive a measuring instrument in the event of ambient pressure, and wherein the at least one connection line extends such that the flow direction of a medium flowing from a first container to a second container changes. a first container, configured to receive a medium to be filtered, a second container, configured to receive a filtrate, at least one connection line, which connects the first container to the second container, and a filter medium between the first container and the second container, in order to filter the medium to be filtered; wherein the first container is configured to be subjected to positive pressure, wherein the second container is configured to receive a measuring instrument in the event of ambient pressure, and wherein the at least one connection line extends such that the flow direction of a medium flowing from a first container to a second container changes.
A communication apparatus, comprising: a communication unit configured to transmit a trigger frame to another communication apparatus being capable of random access, the trigger frame including sub area information in which a sub area is specified from a resource area including wireless communication resources selectable as uplink resources for random access and receive a response frame to the trigger frame, the response frame being transmitted using at least one wireless communication resource selected from the sub area, characterized in that the sub area information includes a plurality of sub area fields, each of the sub area fields including a condition parameter field associated with a sub area, wherein each of the condition parameter fields includes information related to a modulation scheme and a coding rate. a communication unit configured to transmit a trigger frame to another communication apparatus being capable of random access, the trigger frame including sub area information in which a sub area is specified from a resource area including wireless communication resources selectable as uplink resources for random access and receive a response frame to the trigger frame, the response frame being transmitted using at least one wireless communication resource selected from the sub area, characterized in that the sub area information includes a plurality of sub area fields, each of the sub area fields including a condition parameter field associated with a sub area, wherein each of the condition parameter fields includes information related to a modulation scheme and a coding rate.
A method to switch to multicast or broadcast service, MBS, in a network, the method comprising: receiving data from a first radio access node on a unicast packet data unit session; receiving, by a wireless transmit/receive unit, WTRU, first information about a MBS service, the first information about the MBS service comprising a session identifier and a service area; determining, by the WTRU, to join the MBS service based on the first information about the MBS service; based on the determining to join the MBS service, sending a first non-access stratum, NAS, message to request a delivery mode switch from the unicast session to a multicast session; based on the first NAS message to request the delivery mode switch from the unicast session to a multicast session, receiving a second NAS message, wherein the second NAS message is a response comprising second information associated with the MBS service; receiving data associated with the MBS service from the first radio access node in the multicast session; sending an application layer signal to notify a network device about an upcoming switch from the unicast session to the multicast session; switching from the multicast session to a second unicast session when the WTRU is moving from the first radio access node to a second radio access node; and using the second unicast session to receive data for the MBS service from the second radio access node. receiving data from a first radio access node on a unicast packet data unit session; receiving, by a wireless transmit/receive unit, WTRU, first information about a MBS service, the first information about the MBS service comprising a session identifier and a service area; determining, by the WTRU, to join the MBS service based on the first information about the MBS service; based on the determining to join the MBS service, sending a first non-access stratum, NAS, message to request a delivery mode switch from the unicast session to a multicast session; based on the first NAS message to request the delivery mode switch from the unicast session to a multicast session, receiving a second NAS message, wherein the second NAS message is a response comprising second information associated with the MBS service; receiving data associated with the MBS service from the first radio access node in the multicast session; sending an application layer signal to notify a network device about an upcoming switch from the unicast session to the multicast session; switching from the multicast session to a second unicast session when the WTRU is moving from the first radio access node to a second radio access node; and using the second unicast session to receive data for the MBS service from the second radio access node.
Actuator installation method for mounting at least one actuator (54, 55) in a highly curved shell structure, or shell structure enclosing a narrow space, of a profile of a profile body of an aircraft, comprising the steps of: a) providing the shell structure, b) providing at least one actuator (54, 55), which is suitable for deforming a surface region of the shell structure, by providing at least one first actuator for deforming a portion of the surface region formed on a first longitudinal half of the shell structure and providing at least one second actuator for deforming a portion of the surface region formed on a second longitudinal half of the shell structure, and c) fastening the at least one actuator (54, 55) to an inner side of the shell structure by simultaneously fastening the at least one first actuator to the inner side of the first longitudinal half and the at least one second actuator to the inner side of the second longitudinal half, characterized in that step c) comprises: c1) arranging the at least one actuator (54, 55) on a punch for pressing the at least one actuator (54, 55) flat against the inner side of the shell structure, c2) sticking the actuator (54, 55) onto the punch by means of a releasable retaining means, c3) pressing the actuator (54, 55) onto the inner side of the shell structure within the profile by means of the punch, c4) connecting the actuator (54, 55) to the inner side, c5) releasing and/or removing the punch. a) providing the shell structure, b) providing at least one actuator (54, 55), which is suitable for deforming a surface region of the shell structure, by providing at least one first actuator for deforming a portion of the surface region formed on a first longitudinal half of the shell structure and providing at least one second actuator for deforming a portion of the surface region formed on a second longitudinal half of the shell structure, and c) fastening the at least one actuator (54, 55) to an inner side of the shell structure by simultaneously fastening the at least one first actuator to the inner side of the first longitudinal half and the at least one second actuator to the inner side of the second longitudinal half, c1) arranging the at least one actuator (54, 55) on a punch for pressing the at least one actuator (54, 55) flat against the inner side of the shell structure, c2) sticking the actuator (54, 55) onto the punch by means of a releasable retaining means, c3) pressing the actuator (54, 55) onto the inner side of the shell structure within the profile by means of the punch, c4) connecting the actuator (54, 55) to the inner side, c5) releasing and/or removing the punch.
Cell cultures containing in a turbulently agitated cell culture medium one or more water-soluble poly(oxazoline)s, with the proviso that the cell culture medium contains substantially no serum.
A measurement sample handling device comprising a handling unit and a measurement device for taking a liquid sample, the measurement device comprising: - at least one channel, the at least one channel being filled with a solution prior to use, - a measurement surface for being in use contacted with the liquid sample; wherein the measurement surface comprises at least one first channel opening providing access to the at least one channel in the measurement device, - a plug portion having a plurality of electrical contacts, wherein the plug portion is mountable to a socket of a measurement evaluation apparatus, the handling unit having - at least a first opening adapted to have the measurement device inserted, - at least a second opening, and - a removable seal for preventing leakage of the solution from the at least one channel, wherein the first opening provides access to the measurement surface after insertion of the measurement device into the first opening, the second opening provides access to the electrical contacts after insertion of the measurement device, and the first opening and the second opening are so arranged that after insertion of the measurement device into the first opening the handling unit provides an electrical contact seal for sealing the measurement surface from at least one of the plurality of electrical contacts, wherein, when inserted into the handling unit, the plug portion is accessible through the second opening of the handling unit while the measurement surface is accessible through the first opening of the handling unit. - at least one channel, the at least one channel being filled with a solution prior to use, - a measurement surface for being in use contacted with the liquid sample; wherein the measurement surface comprises at least one first channel opening providing access to the at least one channel in the measurement device, - a measurement surface for being in use contacted with the liquid sample; wherein the measurement surface comprises at least one first channel opening providing access to the at least one channel in the measurement device, - a plug portion having a plurality of electrical contacts, wherein the plug portion is mountable to a socket of a measurement evaluation apparatus, - at least a first opening adapted to have the measurement device inserted, - at least a second opening, and - a removable seal for preventing leakage of the solution from the at least one channel, wherein
A method of manufacturing a tin telluride (SnTe) nanomaterial comprising: mixing a tin (Sn) precursor solution and a tellurium (Te) solution to form a solution; maintaining the solution at an elevated temperature for a period of time; repeatedly injecting additional amounts of the Sn precursor solution and the Te solution into the solution at different points in time; and maintaining the solution at an elevated temperature for a period of time following each injection of an additional amount of the Sn precursor solution and the Te solution into the solution prior to a subsequent injection of an additional amount of the Sn precursor solution and the Te solution; wherein the elevated temperature is a temperature greater than ambient or room temperature and wherein the injections occur at time increments between 5 and 30 minutes. mixing a tin (Sn) precursor solution and a tellurium (Te) solution to form a solution; maintaining the solution at an elevated temperature for a period of time; repeatedly injecting additional amounts of the Sn precursor solution and the Te solution into the solution at different points in time; and maintaining the solution at an elevated temperature for a period of time following each injection of an additional amount of the Sn precursor solution and the Te solution into the solution prior to a subsequent injection of an additional amount of the Sn precursor solution and the Te solution; wherein the elevated temperature is a temperature greater than ambient or room temperature and wherein the injections occur at time increments between 5 and 30 minutes.
A cutting method for an inner circumferential face or an outer circumferential face of a work using a cutting tool projecting from a main shaft which turns around a predetermined position serving as a center and for which a turning radius is adjustable, comprising the step of: in the case that a turning angular velocity of the main shaft is represented as ω 1, a distance from a turning center to a tip of the cutting tool is represented as R, and a cutting velocity of the tip of the cutting tool is set to a constant value C, making the cutting velocity of the cutting tool constant by performing control such that ω 1 changes in association with a change in the distance R so that ω 1 = C 2 − R ̇ 2 1 2 / R. is denoted, wherein R denotes a time differential of the distance R; wherein the work is put on a rotational table, and the table is put on a pedestal of a machining center; or wherein the work is held by an arm of a robot. in the case that a turning angular velocity of the main shaft is represented as ω 1, a distance from a turning center to a tip of the cutting tool is represented as R, and a cutting velocity of the tip of the cutting tool is set to a constant value C, making the cutting velocity of the cutting tool constant by performing control such that ω 1 changes in association with a change in the distance R so that ω 1 = C 2 − R ̇ 2 1 2 / R. is denoted, wherein R denotes a time differential of the distance R; wherein the work is put on a rotational table, and the table is put on a pedestal of a machining center; or
A motorcycle having a front storage box lid, the motorcycle comprising a steering handgrip below which a front shade board and a rear shade board assembly are mounted, the rear shade board assembly comprising an upper rear shade board and a lower rear shade board, the upper rear shade board forming a front storage box, which has an opening, which is provided with a front storage box lid, the front storage box lid comprising a rotation arm, which comprises a pivot section, an open slot being formed in the upper rear shade board below the opening to receive the rotation arm of the front storage box lid and the pivot section thereof to extend therethrough, wherein a pivot seat and a base seat are provided on the upper rear shade board below the open slot and the lower rear shade board comprises a constraint mechanism, the pivot section having a pivot pin that is fit into the pivot seat to allow the pivot section to be positioned in the base seat, characterized in that the upper rear shade board has a lower edge forming a hook, the lower rear shade board comprising a barrier wall, which forms a mounting hole, whereby when the lower rear shade board and the upper rear shade board are coupled to each other with the hook being received in and retained by the mounting hole, then the constraint mechanism of the lower rear shade board secures the pivot section in position.