mhurhangee/ep-ind-claims huggingface dataset:
A method for managing the operation of a phase-locked loop, the operation of the phase-locked loop comprising a start phase including - delivering to a phase comparator of the loop, a reference signal (CKin/2) having a duty ratio of 50%, - resetting, at each edge of a first type of the reference signal, a first divider of the output signal of the voltage-controlled oscillator of the loop, - delivering by the phase comparator receiving the reference signal (CKin/2) and a return signal (CKfb/2) from said first divider, at each edge of a second type of the reference signal, a drive pulse during which the control voltage (Vcontrol) of the oscillator increases. - delivering to a phase comparator of the loop, a reference signal (CKin/2) having a duty ratio of 50%, - resetting, at each edge of a first type of the reference signal, a first divider of the output signal of the voltage-controlled oscillator of the loop, - delivering by the phase comparator receiving the reference signal (CKin/2) and a return signal (CKfb/2) from said first divider, at each edge of a second type of the reference signal, a drive pulse during which the control voltage (Vcontrol) of the oscillator increases.
A method for fabricating hollow metal nano particles, the method comprising: forming a solution by adding a first metal salt, a second metal salt, and a surfactant to a solvent which is water; and forming hollow metal nano particles by adding a reducing agent to the solution, wherein the forming of the solution comprises forming a micelle by the surfactant, and surrounding an outer portion of the micelle with the first metal salt and the second metal salt, the forming of the hollow metal nano particles comprises forming the micelle region to a hollow form, and a concentration of the surfactant in the solution is 1 time to 5 times a critical micelle concentration to water. forming a solution by adding a first metal salt, a second metal salt, and a surfactant to a solvent which is water; and forming hollow metal nano particles by adding a reducing agent to the solution, wherein the forming of the solution comprises forming a micelle by the surfactant, and surrounding an outer portion of the micelle with the first metal salt and the second metal salt, the forming of the hollow metal nano particles comprises forming the micelle region to a hollow form, and a concentration of the surfactant in the solution is 1 time to 5 times a critical micelle concentration to water.
Apparatus for individualising document bodies, comprising: a separating unit for separating a multiplicity of document bodies stored in a magazine, and an individualising unit having a document holder, wherein the individualising unit is designed to individualise a document body in an individualising position of the document holder, characterised in that the separating unit has a delivery unit, which is designed in such a way as to deliver document bodies in an inclined state, and the document holder of the individualising unit is positioned in relation to the delivery unit such that a separately delivered document body is transported under the action of gravitational force, along a sliding path, to the individualising position of the document holder of the individualising unit. a separating unit for separating a multiplicity of document bodies stored in a magazine, and an individualising unit having a document holder, wherein the individualising unit is designed to individualise a document body in an individualising position of the document holder, characterised in that the separating unit has a delivery unit, which is designed in such a way as to deliver document bodies in an inclined state, and the document holder of the individualising unit is positioned in relation to the delivery unit such that a separately delivered document body is transported under the action of gravitational force, along a sliding path, to the individualising position of the document holder of the individualising unit.
An elevator counterweight (24, 24'), comprising: a frameless stack of a plurality of weights that are connected to maintain a vertical and horizontal alignment of the weights; a plurality of guides (58, 64) configured to guide movement of the counterweight (24; 24') along elevator guiderails, the plurality of guides being directly supported on at least some of the weights; characterized in that: the weights respectively include a channel on each of two oppositely facing lateral edges; the channels are aligned vertically; and the channels are configured to receive a portion of an elevator guiderail within the channel. a frameless stack of a plurality of weights that are connected to maintain a vertical and horizontal alignment of the weights; a plurality of guides (58, 64) configured to guide movement of the counterweight (24; 24') along elevator guiderails, the plurality of guides being directly supported on at least some of the weights; characterized in that: the weights respectively include a channel on each of two oppositely facing lateral edges; the channels are aligned vertically; and the channels are configured to receive a portion of an elevator guiderail within the channel. the weights respectively include a channel on each of two oppositely facing lateral edges; the channels are aligned vertically; and the channels are configured to receive a portion of an elevator guiderail within the channel.
A terminal for connecting a conductor (301, 302) to a connecting bolt of an electrical apparatus, which is provided with an external thread, wherein the terminal has a conductor channel (113, 114) and a threaded hole (116, 118) for receiving a pressure screw, and wherein the threaded hole (116, 118) for receiving the pressure screw is oriented perpendicular to the axis of the conductor channel (113, 114), characterized in that the terminal has a first and a second threaded hole (111, 112), which cross each other perpendicularly, wherein the internal thread of the first and of the second threaded hole (111, 112) match the external thread of the connecting bolt, so that the terminal can be screwed onto the connecting bolt in two different orientations, that the conductor channel runs along an axis, which is parallel to an axial direction of the first threaded hole, and that the terminal has a second pressure screw, which is screwed into the same threaded hole as the connecting bolt, but in the opposite direction as the connecting bolt.
A system, comprising: at least one memory that stores computer-executable instructions; and at least one processor configured to access the at least one memory, wherein the at least one processor is configured to execute the computer executable instructions to: receive vehicle information based at least in part on at least one vehicle; receive other information based at least in part on a charging station for the at least one vehicle; transmit the vehicle information and the other information to a data receiving device; determine a charging profile for the at least one vehicle based at least in part on the vehicle information and the other information; and display information to indicate a recommended time to charge the at least one vehicle and/or a recommended charging duration of the at least one vehicle, based at least in part on the charging profile; wherein the system is configured to utilize the vehicle information and the other information for planning power allocation on a grid, and predicting power usage on the grid. at least one memory that stores computer-executable instructions; and at least one processor configured to access the at least one memory, wherein the at least one processor is configured to execute the computer executable instructions to: receive vehicle information based at least in part on at least one vehicle; receive other information based at least in part on a charging station for the at least one vehicle; transmit the vehicle information and the other information to a data receiving device; determine a charging profile for the at least one vehicle based at least in part on the vehicle information and the other information; and display information to indicate a recommended time to charge the at least one vehicle and/or a recommended charging duration of the at least one vehicle, based at least in part on the charging profile; receive vehicle information based at least in part on at least one vehicle; receive other information based at least in part on a charging station for the at least one vehicle; transmit the vehicle information and the other information to a data receiving device; determine a charging profile for the at least one vehicle based at least in part on the vehicle information and the other information; and display information to indicate a recommended time to charge the at least one vehicle and/or a recommended charging duration of the at least one vehicle, based at least in part on the charging profile; wherein the system is configured to utilize the vehicle information and the other information for planning power allocation on a grid, and predicting power usage on the grid.
A method in a Service Capability Exposure Function, SCEF, the method comprising: receiving a message indicating that non-IP data is to be delivered to a user equipment, UE; retrieving information associated with a Mobility Management Entity, MME, serving the UE; and transmitting a Connection-Management-Request, CMR, message to the MME, the CMR message triggering establishment of a connection between the SCEF and the MME for delivering the non-IP data, wherein there is no existing connection between the MME and the SCEF. receiving a message indicating that non-IP data is to be delivered to a user equipment, UE; retrieving information associated with a Mobility Management Entity, MME, serving the UE; and transmitting a Connection-Management-Request, CMR, message to the MME, the CMR message triggering establishment of a connection between the SCEF and the MME for delivering the non-IP data, wherein there is no existing connection between the MME and the SCEF.
A nanoparticle comprising: (i) a core comprising a metal and/or a semiconductor; (ii) a corona comprising a plurality of ligands covalently linked to the core, wherein at least one of said ligands comprises a carbohydrate moiety; and (iii) at least two different species of peptide non-covalently bound to the corona. (i) a core comprising a metal and/or a semiconductor; (ii) a corona comprising a plurality of ligands covalently linked to the core, wherein at least one of said ligands comprises a carbohydrate moiety; and (iii) at least two different species of peptide non-covalently bound to the corona.
A hot rolled steel sheet comprising a composition containing, on a mass percent basis: 0.03% to 0.10% C; 0.10% to 0.50% Si; 1.4% to 2.2% Mn; 0.025% or less P; 0.005% or less S; 0.005% to 0.10% Al; 0.02% to 0.10% Nb; 0.001% to 0.030% Ti; 0.05% to 0.50% Mo; 0.05% to 0.50% Cr; 0.01% to 0.50% Ni; and further optionally one or more selected from 0.50% or less Cu; 0.10% or less V; 0.0005% or less B; and 0.0005% to 0.0050% Ca, and the balance being Fe and incidental impurities; and a microstructure including a main phase that contains bainitic ferrite and a secondary phase that contains massive martensite having an aspect ratio of less than 5.0 in an area ratio of 1.4% to 15%, wherein the average grain size of the bainitic ferrite is 10 μm or less, wherein the composition is such that Moeq defined by expression described below satisfies the range of 1.5% to 2.2% by mass, Moeq % = Mo + 0.36 ⁢ Cr + 0.77 ⁢ Mn + 0.07 ⁢ Ni where Mn, Ni, Cr, and Mo represent the respective contents (% by mass). 0.03% to 0.10% C; 0.10% to 0.50% Si; 1.4% to 2.2% Mn; 0.025% or less P; 0.005% or less S; 0.005% to 0.10% Al; 0.02% to 0.10% Nb; 0.001% to 0.030% Ti; 0.05% to 0.50% Mo; 0.05% to 0.50% Cr; 0.01% to 0.50% Ni; and further optionally one or more selected from 0.50% or less Cu; 0.10% or less V; 0.0005% or less B; and 0.0005% to 0.0050% Ca, and the balance being Fe and incidental impurities; and a microstructure including a main phase that contains bainitic ferrite and a secondary phase that contains massive martensite having an aspect ratio of less than 5.0 in an area ratio of 1.4% to 15%, wherein the average grain size of the bainitic ferrite is 10 μm or less, wherein the composition is such that Moeq defined by expression described below satisfies the range of 1.5% to 2.2% by mass,
A production method for a welded body in which a first cylindrical body and a second cylindrical body formed of metal are coaxially welded, the production method comprising: (a) a step of preparing the first cylindrical body and the second cylindrical body; (b) a step of coaxially positioning the first cylindrical body and the second cylindrical body to bring into contact with each other while opposing a first end surface serving as an end surface of the first cylindrical body in an axial direction to a second end surface serving as an end surface of the second cylindrical body in the axial direction; and (c) a step of resistance-welding the first end surface and the second end surface to produce the welded body by energizing a contact portion between the first cylindrical body and the second cylindrical body in a state in which the first cylindrical body and the second cylindrical body are pressed in directions to approach each other, characterized in that, in the first cylindrical body and the second cylindrical body prepared in the step (a), at least one of the first end surface and the second end surface is an inclined surface that inclines toward an end portion opposite from the one end surface as the one end surface extends toward a center axis, and the inclined surface inclines so that a distance between the first end surface and the second end surface positioned in the step (b) increases toward the center axis and so that an angle θc between the first end surface and the second end surface is 5° to 15°. (a) a step of preparing the first cylindrical body and the second cylindrical body; (b) a step of coaxially positioning the first cylindrical body and the second cylindrical body to bring into contact with each other while opposing a first end surface serving as an end surface of the first cylindrical body in an axial direction to a second end surface serving as an end surface of the second cylindrical body in the axial direction; and (c) a step of resistance-welding the first end surface and the second end surface to produce the welded body by energizing a contact portion between the first cylindrical body and the second cylindrical body in a state in which the first cylindrical body and the second cylindrical body are pressed in directions to approach each other,
A Wi-Fi client device, comprising: memory configured to store a channel baseline measurement representing prior knowledge of a clear channel according to a government regulation; a processor configured to select a sampling size for a dynamic frequency selection check to identify use of a frequency by a government entity for a probability threshold dictated by the government regulation based on the channel baseline measurement for a dynamic frequency selection Wi-Fi channel subject to dynamic frequency selection regulation, wherein the sampling size is a number of times the dynamic frequency selection Wi-Fi channel is sampled; and a communication interface configured to execute the dynamic frequency selection check using the sampling size on the dynamic frequency selection Wi-Fi channel and to establish a Wi-Fi Direct connection on the clear channel following Wi-Fi Direct protocol for a peer-to-per connection based on the dynamic frequency selection check. memory configured to store a channel baseline measurement representing prior knowledge of a clear channel according to a government regulation; a processor configured to select a sampling size for a dynamic frequency selection check to identify use of a frequency by a government entity for a probability threshold dictated by the government regulation based on the channel baseline measurement for a dynamic frequency selection Wi-Fi channel subject to dynamic frequency selection regulation, wherein the sampling size is a number of times the dynamic frequency selection Wi-Fi channel is sampled; and a communication interface configured to execute the dynamic frequency selection check using the sampling size on the dynamic frequency selection Wi-Fi channel and to establish a Wi-Fi Direct connection on the clear channel following Wi-Fi Direct protocol for a peer-to-per connection based on the dynamic frequency selection check.
A key plate assembly for an ink stick feed system for a phase change ink jet printer, the key plate assembly comprising: a key plate shaped to substantially cover at least a portion of an ink delivery channel of a phase change ink jet printer; wherein the key plate has a key plate opening through the key plate to permit ink sticks having a first perimeter shape to pass through the key plate; and wherein the key plate opening has substantially the first perimeter shape, except that at least one section of the key plate opening has an outwardly directed clearance area, wherein the clearance area has a smaller area than the area encompassed by the key plate opening; the key plate assembly further comrpising a removal tool having at least one leg, wherein the cross section of the removal tool leg is smaller than the clearance area. a key plate shaped to substantially cover at least a portion of an ink delivery channel of a phase change ink jet printer; wherein the key plate has a key plate opening through the key plate to permit ink sticks having a first perimeter shape to pass through the key plate; and wherein the key plate opening has substantially the first perimeter shape, except that at least one section of the key plate opening has an outwardly directed clearance area, wherein the clearance area has a smaller area than the area encompassed by the key plate opening; the key plate assembly further comrpising a removal tool having at least one leg, wherein the cross section of the removal tool leg is smaller than the clearance area.
A method for transporting foamed thermoplastic polymer particles from a container (5, 9) through at least one pipe (7, 11), wherein, for transporting the foamed thermoplastic polymer particles, a gas stream is applied through the pipe (7, 11), wherein the foamed thermoplastic polymer particles are wetted with a watercomprising lubricant.
An in-vitro method for the purification of blood samples, comprising the steps of: - covalently coupling an amphipathic α-helical cathelicidin protein or a biologically active fragment thereof, which retains its antimicrobial capability for the destruction of bacteria, fungi or viruses, or for the inactivation of their pathogenic toxins, to a hydrophilic solid carrier; - incubating the hydrophilic solid carrier coupled to the immobilized α-helical cathelicidin protein or the biologically active fragment thereof with a blood sample; - isolating the treated blood sample. - covalently coupling an amphipathic α-helical cathelicidin protein or a biologically active fragment thereof, which retains its antimicrobial capability for the destruction of bacteria, fungi or viruses, or for the inactivation of their pathogenic toxins, to a hydrophilic solid carrier; - incubating the hydrophilic solid carrier coupled to the immobilized α-helical cathelicidin protein or the biologically active fragment thereof with a blood sample; - isolating the treated blood sample.
Apparatus for applying a layer of material to a leading edge of a wind turbine blade, the apparatus comprising: a flexible substrate capable of supporting the layer of material and being reconfigurable between a presentation configuration in which, in use, a layer of material supported by the flexible substrate can be offered up to the leading edge of the wind turbine blade to define an initial area of contact between the layer of material and the leading edge, and a transfer configuration in which the flexible substrate adopts the contours of at least a portion of the leading edge; and a substrate support configured to support the flexible substrate in the presentation and transfer configurations such that the flexible substrate can be reconfigured from the presentation configuration into the transfer configuration by increasing the area of contact between the layer of material and the leading edge upon relative movement of the flexible substrate and the leading edge towards one another; and wherein the substrate support comprises a resistive element that is configured to apply a resistive force to push the flexible substrate against the leading edge as the flexible substrate and the leading edge are moved towards one another. a flexible substrate capable of supporting the layer of material and being reconfigurable between a presentation configuration in which, in use, a layer of material supported by the flexible substrate can be offered up to the leading edge of the wind turbine blade to define an initial area of contact between the layer of material and the leading edge, and a transfer configuration in which the flexible substrate adopts the contours of at least a portion of the leading edge; and a substrate support configured to support the flexible substrate in the presentation and transfer configurations such that the flexible substrate can be reconfigured from the presentation configuration into the transfer configuration by increasing the area of contact between the layer of material and the leading edge upon relative movement of the flexible substrate and the leading edge towards one another; and wherein the substrate support comprises a resistive element that is configured to apply a resistive force to push the flexible substrate against the leading edge as the flexible substrate and the leading edge are moved towards one another.
A vehicle navigation apparatus, comprising: a vehicle position information obtaining unit adapted to detect a vehicle position; a guidance route calculating unit adapted to calculate a guidance route based on the vehicle position and a set destination; a road information obtaining unit adapted to obtain a road information regarding the vicinity of the vehicle position; a special section detecting unit adapted to detect a special section having a branch point with a leading lane through which a branch path diverges from a main line and a close-distance branch point located on the branch path continued from the leading lane within a predetermined distance from the branch point with the leading lane based on the guidance route ahead of the vehicle position and the road information; and a leading lane shift detecting unit adapted to detect a shift of the vehicle from the main line to the leading lane in the special section, characterized by a branch guiding unit adapted to conduct guidance for the branch point with the leading lane when the special section is detected by the special section detecting unit, and to conduct, in response to the detection of the shift of the vehicle into the leading lane detected by the leading lane shift detecting unit, guidance for the close-distance branch point located on the branch path continued from the leading lane. a vehicle position information obtaining unit adapted to detect a vehicle position; a guidance route calculating unit adapted to calculate a guidance route based on the vehicle position and a set destination; a road information obtaining unit adapted to obtain a road information regarding the vicinity of the vehicle position; a special section detecting unit adapted to detect a special section having a branch point with a leading lane through which a branch path diverges from a main line and a close-distance branch point located on the branch path continued from the leading lane within a predetermined distance from the branch point with the leading lane based on the guidance route ahead of the vehicle position and the road information; and a leading lane shift detecting unit adapted to detect a shift of the vehicle from the main line to the leading lane in the special section,