mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for economically charging an electric vehicle, the apparatus comprising: an input unit configured to receive an input of charge state information of a vehicle from a charger, wherein the charge state information comprises a remaining charge amount of a battery; a storage unit configured to store the charge state information and a charge schedule a control unit configured to control the charger in accordance with the charge schedule, characterized in that the control unit is further configured to control the charger to charge the battery for a preset predetermined amount of time and to calculate a charge slope of the vehicle, wherein the charge slope is calculated based on remaining charge amount of the battery before and after the battery is charged for the predetermined amount of time; and to compute the charge schedule based on the charge slope and a power rate for each time slot, wherein the charge schedule is set such that the battery is fully charged within an end-of charge time, and the power rate required to fully charge the battery when charging the battery in accordance with the charge schedule is the minimum. an input unit configured to receive an input of charge state information of a vehicle from a charger, wherein the charge state information comprises a remaining charge amount of a battery; a storage unit configured to store the charge state information and a charge schedule a control unit configured to control the charger in accordance with the charge schedule, characterized in that the control unit is further configured to control the charger to charge the battery for a preset predetermined amount of time and to calculate a charge slope of the vehicle, wherein the charge slope is calculated based on remaining charge amount of the battery before and after the battery is charged for the predetermined amount of time; and to compute the charge schedule based on the charge slope and a power rate for each time slot, wherein the charge schedule is set such that the battery is fully charged within an end-of charge time, and the power rate required to fully charge the battery when charging the battery in accordance with the charge schedule is the minimum.
Electromagnetically actuatable suction valve for a high-pressure pump in a fuel injection system, in particular in a common-rail injection system, comprising an electromagnet for acting on an armature which can perform stroke movements and which is acted on by the spring force of a pressure spring in the direction of a valve plunger which can perform stroke movements, such that, when the electromagnet is electrically deenergized, the armature is mechanically coupled to the valve plunger and holds the latter in an open position, characterized in that the armature is extended through by a central bore which connects pressure chambers (6, 7) formed to both sides of the armature, and a pin-like displacement body element is provided which protrudes into the bore at least during a stroke movement of the armature.
A medical communication device (600, 900, 2700) implantable in a body, comprising: a substrate layer (560, 2709) defining a surface and an opposite surface, and comprising at least one coil (670, 970, 980, 2770) disposed around a core area of the communication device, wherein the core area corresponds to an interior region of an area bounded by the coil; a processor disposed in a layer stacked on the surface of the substrate layer and stacked on the core area and configured to establish wireless communication with a device external of the body through the coil; and a discrete element (510, 610, 910, 2710) disposed in the layer or in an opposite layer stacked on the opposite surface of the substrate layer on the coil of the substrate layer, and connected to the processor in the layer through a vertical interconnect access 'via'; wherein the processor is connected to electrodes (410, 2010) arranged to cover a target (190, 2090), and is configured to receive an electrical signal from or provide an electrical signal to some of the electrodes. a substrate layer (560, 2709) defining a surface and an opposite surface, and comprising at least one coil (670, 970, 980, 2770) disposed around a core area of the communication device, wherein the core area corresponds to an interior region of an area bounded by the coil; a processor disposed in a layer stacked on the surface of the substrate layer and stacked on the core area and configured to establish wireless communication with a device external of the body through the coil; and a discrete element (510, 610, 910, 2710) disposed in the layer or in an opposite layer stacked on the opposite surface of the substrate layer on the coil of the substrate layer, and connected to the processor in the layer through a vertical interconnect access 'via'; wherein the processor is connected to electrodes (410, 2010) arranged to cover a target (190, 2090), and is configured to receive an electrical signal from or provide an electrical signal to some of the electrodes.
Grinding tool for a grinding device comprising an oscillatory drive, in particular a rotary oscillatory drive, the drive shaft of which can be driven in oscillation about its longitudinal axis, wherein the grinding tool comprises a holder which has a mount for securing to the drive shaft of the oscillatory drive, and on which a form profile including an abrasive material is mounted, characterised in that the holder comprises a profile mount for the detachable connection of the form profile, and in that the profile mount comprises a clamping area into which the form profile can be inserted and fixed with a holding section and which can be expanded elastically for releasing the form profile and in that on the clamping area at least one grip (50, 51) is formed for the elastic expansion of the clamping area.
A method for improving seed germination, said method comprising the step of contacting the seed, the medium to be planted by the seed or both with natamycin.
An arc welding control method for controlling arc welding, the arc welding forming a plurality of scaly beads continuously arranged on a base material in a welding cycle (C, T4), the welding cycle (C, T4) being a sum of an arc ON period (A, Ts+Tp, T1) and an arc OFF period (B, Tn, T3), the arc ON period (A, Ts+Tp, T1) being a period during which a welding current flows to a welding wire, the arc OFF period (B, Tn, T3) being a period after the arc ON period (A, Ts+Tp, T1) and during which the welding current does not flow to the welding wire, the arc welding control method comprising: an initial condition setting step of setting an initial value of a welding condition for arc-welding the base material; and a scaly bead formation step of forming the plurality of scaly beads in a predetermined welding section of the base material while continuously moving a torch holding the welding wire in the predetermined welding section of the base material at a predetermined welding speed (Vw), wherein the welding condition includes the arc ON period (A, Ts+Tp, T1), the arc OFF period (B, Tn, T3), and a plurality of welding parameters, the plurality of welding parameters including at least one of the welding current, the welding speed (Vw), and an interval between adjacent scaly beads among the scaly beads, and the arc welding control method further includes a welding condition change step of, before the scaly bead formation step, determining whether to change the initial value based on a predetermined finish condition for the scaly beads, and when a result of the determining is affirmative, changing at least one of the plurality of welding parameters so as to satisfy the predetermined finish condition. an initial condition setting step of setting an initial value of a welding condition for arc-welding the base material; and a scaly bead formation step of forming the plurality of scaly beads in a predetermined welding section of the base material while continuously moving a torch holding the welding wire in the predetermined welding section of the base material at a predetermined welding speed (Vw), wherein the welding condition includes the arc ON period (A, Ts+Tp, T1), the arc OFF period (B, Tn, T3), and a plurality of welding parameters, the plurality of welding parameters including at least one of the welding current, the welding speed (Vw), and an interval between adjacent scaly beads among the scaly beads, and the arc welding control method further includes a welding condition change step of, before the scaly bead formation step, determining whether to change the initial value based on a predetermined finish condition for the scaly beads, and when a result of the determining is affirmative, changing at least one of the plurality of welding parameters so as to satisfy the predetermined finish condition.
Method for the stepwise compression of a gas in a compressor arrangement (100, 200, 300) having compression stages (I-VI) which are sequentially connected to one another via a main line, in which compression stages the gas conducted through the main line is in each case compressed from a suction-side to a pressure-side pressure level and heated by said compression from a suction-side to a pressure-side temperature level, wherein a return quantity of the gas conducted through the main line is removed at least intermittently from the main line downstream of one of the compression stages, is supplied to an expansion means and is fed back into the main line upstream of the same compression stage, and wherein the pressure-side pressure level of the compression stage downstream of which the return quantity is removed from the main line is a supercritical pressure level, characterized in that the return quantity is expanded to a subcritical pressure level, in that the return quantity is supplied to the expansion means at the pressure-side temperature level of the compression stage downstream of which said return quantity is removed from the main line, and in that the return quantity is cooled only after being expanded and before and/or after being fed back into the main line.
An isolated immunogen consisting of an isolated peptide of 30 amino acid residues or fewer comprising the amino sequence ILSAFSVYV (SEQ ID NO: 1) with two or fewer amino acid substitutions, wherein the immunogen is capable of binding to human leukocyte antigen, wherein the immunogen is optionally linked to any one of: an immunogenic carrier, a Toll-like receptor agonist, an immunogenic peptide known to stimulate a T helper cell type immune response, a cytokine, an antibody, a receptor ligand, a lipid, a multiple antigenic peptide, polyethylene glycol, a leader sequence, a secretory sequence, or a sequence employed for purification of the peptide.
A method of wireless communication at a user equipment, UE, comprising: receiving a first component carrier transmitted according to a first coverage enhancement technique; and receiving a second component carrier transmitted according to a second coverage enhancement technique, wherein the second coverage enhancement technique is different from the first coverage enhancement technique; wherein the first coverage enhancement technique and the second coverage enhancement technique each comprise bundling; and all control channels are allocated to the component carrier requiring the least coverage enhancement and thus having the least bundling. receiving a first component carrier transmitted according to a first coverage enhancement technique; and receiving a second component carrier transmitted according to a second coverage enhancement technique, wherein the second coverage enhancement technique is different from the first coverage enhancement technique; wherein the first coverage enhancement technique and the second coverage enhancement technique each comprise bundling; and all control channels are allocated to the component carrier requiring the least coverage enhancement and thus having the least bundling.
A transmittance variable film comprising a first substrate member comprising a first electrode film, a first alignment film formed on said first electrode film, and ball spacers fixed to said first alignment film, a second substrate member comprising a second electrode film and a second alignment film formed on said second electrode film, and a liquid crystal layer formed between said first alignment film and said second alignment film, wherein the first alignment film has a surface roughness of 3 nm to 100 nm which secures the dispersibility of the ball spacers; the first alignment film comprises an alignment film material and nanoparticles; the nanoparticles exist in a state dispersed in the first alignment film, such that the surface roughness of the first alignment film is adjusted; and the second alignment film has a pre tilt angle of 0.2 to 89 degrees.
A reference signal transmission method, wherein the method comprises: converting a frequency domain reference signal from frequency domain to time domain, to generate a time domain reference signal, wherein the frequency domain reference signal comprises a reference signal sequence mapped to a frequency domain resource group, the reference signal sequence is determined based on a Zadoff-Chu sequence with a fixed length and wherein the Zadoff-Chu sequence is unrelated to a resource allocation size and a length of the reference signal sequence, a length value of the Zadoff-Chu sequence is greater than a quantity of subcarriers comprised in a maximum frequency domain resource that can be allocated, and a bandwidth of the frequency domain resource group is less than or equal to the maximum frequency domain resource that can be allocated, wherein a reference signal sequence on which blind detection is performed is further determined based on a location of the frequency domain resource group in the maximum frequency domain resource that can be allocated; and sending the time domain reference signal. converting a frequency domain reference signal from frequency domain to time domain, to generate a time domain reference signal, wherein the frequency domain reference signal comprises a reference signal sequence mapped to a frequency domain resource group, the reference signal sequence is determined based on a Zadoff-Chu sequence with a fixed length and wherein the Zadoff-Chu sequence is unrelated to a resource allocation size and a length of the reference signal sequence, a length value of the Zadoff-Chu sequence is greater than a quantity of subcarriers comprised in a maximum frequency domain resource that can be allocated, and a bandwidth of the frequency domain resource group is less than or equal to the maximum frequency domain resource that can be allocated, wherein a reference signal sequence on which blind detection is performed is further determined based on a location of the frequency domain resource group in the maximum frequency domain resource that can be allocated; and sending the time domain reference signal.
Balancing or measuring adapter which comprises a main body (4, 5), with a receptacle for the component for balancing or measuring, and a clamping device, which is assigned to the main body (4, 5) and which has a movable clamping element for clamping and releasing the component in relation to the main body (4, 5), characterized in that, on the movable clamping element, there is arranged a brake device for generating a constant advancing speed of the clamping element during the release movement thereof, wherein the brake device comprises one or more fluid brakes (30, 31; 41, 42).
A protective gas welding control device which is configured as fluid unit, comprising a controllable protective gas flow valve for controlling the amount of protective gas, a controllable cooling water flow valve for controlling the amount of cooling water, and a controllable pneumatic valve for controlling a scavenging air flow, wherein the valves are combined in the exchangeable, common fluid unit and in the fluid unit no welding current or robot current control devices are mounted, characterized by a protective gas flow regulator in the form of a protective gas mass flow regulator, wherein the protective gas flow valve is part of the protective gas flow regulator, and/or a cooling water flow regulator in the form of a cooling water mass flow regulator, wherein the cooling water flow valve is part of the cooling water flow regulator, and/or a scavenging gas flow regulator in the form of a scavenging gas mass flow regulator, wherein the pneumatic valve is part of the scavenging gas flow regulator, wherein the protective gas welding control device includes a common fluid channel block with flow channels for the protective gas, the cooling water and the scavenging gas, wherein the protective gas flow regulator and/or the cooling water flow regulator and/or the scavenging gas flow regulator each is formed as separate module releasable from the fluid channel block and wherein the module or the modules is/are prefabricated elements releasably and exchangeably mounted on the fluid channel block.
A filtration system comprising: a filtration chamber; a screening element located within the filtration chamber; and a suction scanner for self-cleaning the screening element by suctioning fluid through the screening element upon activation of a self-cleaning session, wherein the suction scanner is configured to move linearly with respect to the screening element; and wherein the filtration system is characterized by: a switching mechanism configured to automatically terminate the self-cleaning session when a condition is met; and a location tracker being configured to communicate to the switching mechanism during the self-cleaning session a signal indicative of an axial location of the suction scanner with respect to the screening element, wherein the axial location of the suction scanner comprises a relative linear offset of positions between the suction scanner and the screening element, wherein the switching mechanism is configured to determine whether the condition is met based at least one of: a predetermined change in the signal; and the relative linear offset of the positions between the screening element and the suction scanner as indicated by the signal, exceeding a threshold value. a filtration chamber; a screening element located within the filtration chamber; and a suction scanner for self-cleaning the screening element by suctioning fluid through the screening element upon activation of a self-cleaning session, wherein the suction scanner is configured to move linearly with respect to the screening element; and wherein the filtration system is characterized by: a switching mechanism configured to automatically terminate the self-cleaning session when a condition is met; and a location tracker being configured to communicate to the switching mechanism during the self-cleaning session a signal indicative of an axial location of the suction scanner with respect to the screening element, wherein the axial location of the suction scanner comprises a relative linear offset of positions between the suction scanner and the screening element, wherein the switching mechanism is configured to determine whether the condition is met based at least one of: a predetermined change in the signal; and the relative linear offset of the positions between the screening element and the suction scanner as indicated by the signal, exceeding a threshold value. a switching mechanism configured to automatically terminate the self-cleaning session when a condition is met; and a location tracker being configured to communicate to the switching mechanism during the self-cleaning session a signal indicative of an axial location of the suction scanner with respect to the screening element, wherein the axial location of the suction scanner comprises a relative linear offset of positions between the suction scanner and the screening element, wherein the switching mechanism is configured to determine whether the condition is met based at least one of: a predetermined change in the signal; and the relative linear offset of the positions between the screening element and the suction scanner as indicated by the signal, exceeding a threshold value.
A method performed by a receiver for detecting delayed or lost control signaling messages received from a transmitter, wherein the control signaling messages are Radio Resource Control, RRC, messages, and wherein the RRC messages are receivable both over a M aster N ode, MN, and a S econdary N ode, SN, and wherein detecting delayed or lost RRC messages is based on sequence number, wherein each RRC message further include a message type identifier, which identifies whether said RRC message must be processed in-sequence with previously transmitted RRC messages, the method comprising: - detecting a gap in sequence numbers of received RRC messages, and - determining, based on said detecting, whether there is a need to initiate a recovery procedure or if a current RRC command can be executed without waiting for a former RRC message. - detecting a gap in sequence numbers of received RRC messages, and - determining, based on said detecting, whether there is a need to initiate a recovery procedure or if a current RRC command can be executed without waiting for a former RRC message.
A method of handling Public Land Mobile Network selection by auser equipment, the method comprising: performing, by the user equipment, a cell-selection procedure that selects a first cell that serves a first Public Land Mobile Network operated by a first carrier; establishing, by the user equipment, a radio connection to the first Public Land Mobile Network where the user equipment enters a connected mode at a radio resource control layer; transitioning, by the user equipment, from the connected mode to an inactive mode at the radio resource control layer; identifying, by the user equipment, a second cell that serves a second Public Land Mobile Network operated by a second carrier; performing, by the user equipment, a cell-reselection procedure that selects the second cell that serves the second Public Land Mobile Network; determining that the second Public Land Mobile Network is not an equivalent Public Land Mobile Network, to which the user equipment can register, on a list of equivalent Public Land Mobile Networks to the first Public Land Mobile Network; and responsive to determining that the second Public Land Mobile Network is not an equivalent Public Land Mobile Network to the first Public Land Mobile Network: transitioning, by the user equipment, a non-access stratum layer of the user equipment to enter an idle mode; and sending an indication to a radio resource control layer of the user equipment that triggers an action. performing, by the user equipment, a cell-selection procedure that selects a first cell that serves a first Public Land Mobile Network operated by a first carrier; establishing, by the user equipment, a radio connection to the first Public Land Mobile Network where the user equipment enters a connected mode at a radio resource control layer; transitioning, by the user equipment, from the connected mode to an inactive mode at the radio resource control layer; identifying, by the user equipment, a second cell that serves a second Public Land Mobile Network operated by a second carrier; performing, by the user equipment, a cell-reselection procedure that selects the second cell that serves the second Public Land Mobile Network; determining that the second Public Land Mobile Network is not an equivalent Public Land Mobile Network, to which the user equipment can register, on a list of equivalent Public Land Mobile Networks to the first Public Land Mobile Network; and responsive to determining that the second Public Land Mobile Network is not an equivalent Public Land Mobile Network to the first Public Land Mobile Network: transitioning, by the user equipment, a non-access stratum layer of the user equipment to enter an idle mode; and sending an indication to a radio resource control layer of the user equipment that triggers an action. transitioning, by the user equipment, a non-access stratum layer of the user equipment to enter an idle mode; and sending an indication to a radio resource control layer of the user equipment that triggers an action.