mhurhangee/patent-ind-claim-en huggingface dataset:
A battery remaining power estimation apparatus , comprising: a memory configured to store information about a polarization-voltage curve of a secondary battery, the information being stored with a correlation with a current value and a temperature of the secondary battery; and a circuit configured to estimate a remaining power of the secondary battery, the remaining power being estimated based on a discharge curve of the secondary battery, and the circuit configured to obtain the polarization-voltage curve based on the information in the memory, the polarization-voltage curve being correlated with the current value and the temperature of the secondary battery, and to estimate the discharge curve by subtracting the obtained polarization-voltage curve from an open-circuit voltage curve obtained for the secondary battery. a memory configured to store information about a polarization-voltage curve of a secondary battery, the information being stored with a correlation with a current value and a temperature of the secondary battery; and a circuit configured to estimate a remaining power of the secondary battery, the remaining power being estimated based on a discharge curve of the secondary battery, and the circuit configured to obtain the polarization-voltage curve based on the information in the memory, the polarization-voltage curve being correlated with the current value and the temperature of the secondary battery, and to estimate the discharge curve by subtracting the obtained polarization-voltage curve from an open-circuit voltage curve obtained for the secondary battery.
A method for picking articles / objects (2a..2d), comprising the steps a) removing at least one object (2a..2d) from a source loading aid with the help of a robot and b) placing the at least one object (2a..2d) in a target loading aid (6a..6c) with the help of said robot , wherein c) after removing the object (2a..2d) from the source loading aid it is checked with the help of a first sensor system whether at least one object (2a..2d) is held by the robot , d) a number of the at least one removed object (2a..2d) is ascertained with the help of a second sensor system and e) the process for placing the at least one object (2a..2d) into the target loading aid (6a..6c) is aborted or modified if the check using the first sensor system reveals that e1) no object (2a..2d) is held by the robot or e2) while at least one object (2a..2d) is held by the robot , the check carried out using the second sensor system , however, reveals that the number of the at least one object (2a..2d) removed from the source loading aid is greater than the difference between a desired number and an actual number of the objects contained in the target loading aid, wherein the desired number of objects (2a..2d) in the target loading aid (6a..6c) is defined by a picking order. a) removing at least one object (2a..2d) from a source loading aid with the help of a robot and b) placing the at least one object (2a..2d) in a target loading aid (6a..6c) with the help of said robot , wherein c) after removing the object (2a..2d) from the source loading aid it is checked with the help of a first sensor system whether at least one object (2a..2d) is held by the robot , d) a number of the at least one removed object (2a..2d) is ascertained with the help of a second sensor system and e) the process for placing the at least one object (2a..2d) into the target loading aid (6a..6c) is aborted or modified if the check using the first sensor system reveals that e1) no object (2a..2d) is held by the robot or e2) while at least one object (2a..2d) is held by the robot , the check carried out using the second sensor system , however, reveals that the number of the at least one object (2a..2d) removed from the source loading aid is greater than the difference between a desired number and an actual number of the objects contained in the target loading aid, wherein the desired number of objects (2a..2d) in the target loading aid (6a..6c) is defined by a picking order. e1) no object (2a..2d) is held by the robot or e2) while at least one object (2a..2d) is held by the robot , the check carried out using the second sensor system , however, reveals that the number of the at least one object (2a..2d) removed from the source loading aid is greater than the difference between a desired number and an actual number of the objects contained in the target loading aid, wherein the desired number of objects (2a..2d) in the target loading aid (6a..6c) is defined by a picking order.
A vacuum cleaner comprising: a suction source configured to generate a suction airflow; a dirt collector in fluid communication with the suction source and configured to separate debris from the suction airflow and the dirt collector configured to store the debris separated from the suction airflow; an infrared sensor operable to output a signal corresponding to a distance to an amount of debris stored in the dirt collector ; a controller that receives the signal, the controller operable to determine a fill level in the dirt collector based on the signal; and a visual display that displays the fill level in the dirt collector . a suction source configured to generate a suction airflow; a dirt collector in fluid communication with the suction source and configured to separate debris from the suction airflow and the dirt collector configured to store the debris separated from the suction airflow; an infrared sensor operable to output a signal corresponding to a distance to an amount of debris stored in the dirt collector ; a controller that receives the signal, the controller operable to determine a fill level in the dirt collector based on the signal; and a visual display that displays the fill level in the dirt collector .
Elevator for holding an end portion of a pipe in a drill tower , the elevator having a hole from which, in operational use, the pipe is suspended with an end portion , wherein a minimum diameter of the end portion of the pipe is selected larger than the minimum diameter of the hole , wherein sidewalls of the hole are shaped with a receiving surface (RS) for receiving correspondingly-shaped sidewalls of the end portion of the pipe , wherein, the receiving surface (RS3) comprises a first part (RS3a) and a second part (RS3b) neighbouring the first part (RS3a), the first part (RS3a) defining a frustoconical shape (p1) having a first conicity, characterised in that the second part (RS3b) defines a shape (p2) having at least partially a second conicity lower than the first conicity.
An absorbent article comprising, an absorbent body interposed between a liquid impermeable back sheet and a liquid permeable top sheet , a pair of right and left compressed grooves that extend in an approximately longitudinal direction being formed on a surface of the liquid permeable top sheet, wherein the right and left compressed grooves have separation distance reduced regions , in which a separation distance between the right and left compressed grooves is reduced, formed at back of a region corresponding to a body fluid discharge portion of a wearer, characterized in that each of the right and left compressed grooves comprises one single enlarged portion , in which widths of the compressed grooves are enlarged, formed at positions within the separation distance reduced regions and where the separation distance between the right and left compressed grooves becomes minimum, and the enlarged portions are formed such that both side walls of each of the compressed grooves are projected outward.
A method performed by a user equipment, UE in a communication network, the method comprising: in case that the UE is camped on a visited public land mobile network, VPLMN, and in an idle state , obtaining a cell rank for neighboring cells by measuring signal strengths of the neighboring cells; determining whether the cell rank for the neighboring cells is the same for a certain number of discontinuous reception, DRX, cycles; determining whether a difference between a long term average value of a received reference signal indicator, RSSI, and a short term average value of the RSSI is within a threshold; determining whether accelerometer data indicates that the UE is in a limited mobility state; and in case that the UE is camped on the VPLMN and in the idle state, the cell rank is the same for the certain number of cycles, the difference between the long term average value and the short term average value is within the threshold, and the accelerometer data indicates that the UE is in the limited mobility state, entering an avoid-high-priority-PLMN-search state for the next expiration of a home public land mobile network. HPLMN, search timer. in case that the UE is camped on a visited public land mobile network, VPLMN, and in an idle state , obtaining a cell rank for neighboring cells by measuring signal strengths of the neighboring cells; determining whether the cell rank for the neighboring cells is the same for a certain number of discontinuous reception, DRX, cycles; determining whether a difference between a long term average value of a received reference signal indicator, RSSI, and a short term average value of the RSSI is within a threshold; determining whether accelerometer data indicates that the UE is in a limited mobility state; and in case that the UE is camped on the VPLMN and in the idle state, the cell rank is the same for the certain number of cycles, the difference between the long term average value and the short term average value is within the threshold, and the accelerometer data indicates that the UE is in the limited mobility state, entering an avoid-high-priority-PLMN-search state for the next expiration of a home public land mobile network. HPLMN, search timer.
Guiding device for guiding a furniture drawer which is movable relative to a furniture carcass, the device comprising at least one guide unit having a carcass rail which can be fastened to the furniture carcass by means of fastening means and a pull-out rail which is mounted movably relative thereto and can be fastened to the furniture drawer, and comprising an electric drive by way of which the furniture drawer can be driven to move, wherein the electric drive is integrated into the guide unit and wherein the electric drive has a stator located at the carcass rail and an output member movable relative thereto and coupled to the pull-out rail or forming the latter, wherein the electric drive is designed as a piezoelectric linear drive , wherein the output member is guided for linear movement along the stator , and comprising a piezoelectric actuator system for driving the output member , wherein the piezoelectric actuator system sits on or forms the stator , characterised in that the piezoelectric actuator system is designed such that on excitation a flexural wave running in a circumferential direction of the stator is generated.
A fill system for a vacuum insulated structure that includes a door having a structural wrapper made of a metal or of a metal alloy and defining an insulating cavity , wherein the structural wrapper also defines a fill port being in fluid communication with the insulating cavity for receiving insulation materials therein, the fill system comprising: a connector assembly configured for coupling the door with a materials dispenser , wherein the connector assembly includes: a base plate configured to be disposed adjacent to the structural wrapper of the door , wherein the base plate defines at least one receiving aperture configured to receive the at least one projection formed on the structural wrapper of the door ; a fill tube that extends from the base plate and is configured to align with the fill port formed on the structural wrapper of the door ; and a toggle magnet coupled to the base plate , wherein the toggle magnet is operable between an activated state and a deactivated state, and wherein the toggle magnet is configured to magnetically engage the structural wrapper of the door when in the activated state. a base plate configured to be disposed adjacent to the structural wrapper of the door , wherein the base plate defines at least one receiving aperture configured to receive the at least one projection formed on the structural wrapper of the door ; a fill tube that extends from the base plate and is configured to align with the fill port formed on the structural wrapper of the door ; and a toggle magnet coupled to the base plate , wherein the toggle magnet is operable between an activated state and a deactivated state, and wherein the toggle magnet is configured to magnetically engage the structural wrapper of the door when in the activated state.
A method comprising: reading data to be transmitted to an external device directly from an Ethernet switch ; reading Management Information Base, MIB, statistic data regarding an Ethernet port of the Ethernet switch directly from a microcontroller , wherein the microcontroller reads the MIB statistic data from an MIB register of the Ethernet switch; storing the obtained MIB statistic data in a buffer memory ; encapsulating the obtained MIB statistic data in an Ethernet frame; determining a vacant time slot during which the Ethernet switch is not transmitting the data to the external device; and transmitting the Ethernet frame to the external device during the vacant time slot. reading data to be transmitted to an external device directly from an Ethernet switch ; reading Management Information Base, MIB, statistic data regarding an Ethernet port of the Ethernet switch directly from a microcontroller , wherein the microcontroller reads the MIB statistic data from an MIB register of the Ethernet switch; storing the obtained MIB statistic data in a buffer memory ; encapsulating the obtained MIB statistic data in an Ethernet frame; determining a vacant time slot during which the Ethernet switch is not transmitting the data to the external device; and transmitting the Ethernet frame to the external device during the vacant time slot.
A contact probe for a testing head of an apparatus for testing electronic devices, said contact probe comprising a body extending along a longitudinal axis (H-H) between a first end portion and a second end portion , said second end portion being adapted to electrically contact pads of a device under test, said contact probe being characterized in that it comprises a first section (S1), which extends along said longitudinal axis (H-H) from said first end portion and is made of an electrically non-conductive material, and a second section (S2), which extends along said longitudinal axis (H-H) from said second end portion up to said first section (S1), said second section (S2) being electrically conductive and extending over a distance less than 1000 μm, wherein said sections (S1, S2) follow each other along the longitudinal axis (H-H) of the contact probe so that the first end portion is only included in the first section (S1) and the second end portion is only included in the second section (S2), and wherein the first end portion is adapted to perform only a mechanical contact.
An impeller manufacturing method comprising: an impeller forming step (S1) of integrally forming an impeller by an additive manufacturing method using a metal powder, the impeller including a disk which has a disk shape about an axis (O), a plurality of blades which are formed on a surface facing a first side in an axial direction of the disk with gaps therebetween in a circumferential direction (C) about the axis (O), and a cover which covers the plurality of blades from the first side in the axial direction; an HIP processing step (S2) of processing the impeller , which is formed in the impeller forming step (S1), by a hot isostatic pressing; and a flow path polishing step (S3) of causing a polishing fluid containing abrasive grains to flow through a flow path formed between the disk , the cover , and the blades in the impeller after the HIP processing step (S2) while pressurizing the polishing fluid to perform fluid polishing, characterized in that in the flow path polishing step (S3), a flow path elongation jig is mounted radially outside the impeller and the fluid polishing is performed, wherein the flow path elongation jig is formed in an annular shape and includes an elongation flow path which extends to elongate the flow path of the impeller by communicating with an outlet of the flow path of the impeller, and wherein in the flow path polishing step (S3), the flow path elongation jig is disposed outside the impeller in a radial direction (Dr) in a state where an outer peripheral surface of the impeller is in contact with an inner peripheral surface of the flow path elongation jig . an impeller forming step (S1) of integrally forming an impeller by an additive manufacturing method using a metal powder, the impeller including a disk which has a disk shape about an axis (O), a plurality of blades which are formed on a surface facing a first side in an axial direction of the disk with gaps therebetween in a circumferential direction (C) about the axis (O), and a cover which covers the plurality of blades from the first side in the axial direction; an HIP processing step (S2) of processing the impeller , which is formed in the impeller forming step (S1), by a hot isostatic pressing; and a flow path polishing step (S3) of causing a polishing fluid containing abrasive grains to flow through a flow path formed between the disk , the cover , and the blades in the impeller after the HIP processing step (S2) while pressurizing the polishing fluid to perform fluid polishing, characterized in that in the flow path polishing step (S3), a flow path elongation jig is mounted radially outside the impeller and the fluid polishing is performed, wherein the flow path elongation jig is formed in an annular shape and includes an elongation flow path which extends to elongate the flow path of the impeller by communicating with an outlet of the flow path of the impeller, and wherein in the flow path polishing step (S3), the flow path elongation jig is disposed outside the impeller in a radial direction (Dr) in a state where an outer peripheral surface of the impeller is in contact with an inner peripheral surface of the flow path elongation jig .
A method of wireless communication performed by a remote user equipment, UE , comprising: identifying a relay UE that is operating in a connected discontinuous reception mode, wherein the relay UE and the remote UE are connected to a base station , wherein the relay UE is in the connected discontinuous reception mode on a first link with the base station and a discontinuous reception mode or an active mode on a sidelink with the remote UE, and wherein one or more links between two or more of the remote UE, the relay UE, or the base station are radio resource control configured by the base station; and transmitting one or more layer-2 communications to, or receiving one or more layer-2 communications from, the base station via the relay UE based at least in part on the relay UE being transitioned to another mode, different from the connected discontinuous reception mode, on the link with the base station . identifying a relay UE that is operating in a connected discontinuous reception mode, wherein the relay UE and the remote UE are connected to a base station , wherein the relay UE is in the connected discontinuous reception mode on a first link with the base station and a discontinuous reception mode or an active mode on a sidelink with the remote UE, and wherein one or more links between two or more of the remote UE, the relay UE, or the base station are radio resource control configured by the base station; and transmitting one or more layer-2 communications to, or receiving one or more layer-2 communications from, the base station via the relay UE based at least in part on the relay UE being transitioned to another mode, different from the connected discontinuous reception mode, on the link with the base station .
An automation technology field device (F), comprising: - At least four connecting pin for connecting the field device ; - Field device electronics which are configured to provide a 4-20 mA signal via a first and second connecting pin in a first operating state, to be supplied with a supply voltage via the first and a third connecting pin in a second operating state, and to enable IO-Link communication via a fourth connecting pin or to provide a first switching output via the fourth connecting pin , and additionally to provide a second switching output at the second connecting pin , and to be supplied with the supply voltage via the first and third connecting pins in a third operating state, and to enable IO-Link communication via the fourth connecting pin or to provide the first switching output via the fourth connecting pin , and additionally to provide a 4-20 mA power output at the second connecting pin , wherein the field device electronics are further designed to be configured so that they can be operated in any of the three operating states. - At least four connecting pin for connecting the field device ; - Field device electronics which are configured to provide a 4-20 mA signal via a first and second connecting pin in a first operating state, to be supplied with a supply voltage via the first and a third connecting pin in a second operating state, and to enable IO-Link communication via a fourth connecting pin or to provide a first switching output via the fourth connecting pin , and additionally to provide a second switching output at the second connecting pin , and to be supplied with the supply voltage via the first and third connecting pins in a third operating state, and to enable IO-Link communication via the fourth connecting pin or to provide the first switching output via the fourth connecting pin , and additionally to provide a 4-20 mA power output at the second connecting pin , wherein the field device electronics are further designed to be configured so that they can be operated in any of the three operating states.
Transport connector for connecting a first electrical cable to a second electrical cable to produce a cable harness , - wherein the transport connector has a first receptacle , a second receptacle , a first clamping portion and a second clamping portion , - wherein the transport connector extends along a longitudinal direction between a first longitudinal side and a second longitudinal side arranged lying opposite the first longitudinal side , - wherein the first receptacle extends in the longitudinal direction, and the first clamping portion adjoins the first receptacle in the longitudinal direction on the side facing the first longitudinal side , - wherein the first clamping portion has a first clamping receptacle which is continuous in the longitudinal direction, characterized - in that the second receptacle extends in the longitudinal direction, and the second clamping portion lying opposite in the longitudinal direction to the first clamping portion adjoins the second receptacle , and - in that the second clamping portion has a second clamping receptacle which is continuous in the longitudinal direction. - wherein the transport connector has a first receptacle , a second receptacle , a first clamping portion and a second clamping portion , - wherein the transport connector extends along a longitudinal direction between a first longitudinal side and a second longitudinal side arranged lying opposite the first longitudinal side , - wherein the first receptacle extends in the longitudinal direction, and the first clamping portion adjoins the first receptacle in the longitudinal direction on the side facing the first longitudinal side , - wherein the first clamping portion has a first clamping receptacle which is continuous in the longitudinal direction, characterized - in that the second receptacle extends in the longitudinal direction, and the second clamping portion lying opposite in the longitudinal direction to the first clamping portion adjoins the second receptacle , and - in that the second clamping portion has a second clamping receptacle which is continuous in the longitudinal direction.