mhurhangee/patent-ind-claim-en huggingface dataset:
An aerosol generating device comprising: a main body comprising a controller and a battery ; and a removable heater module removably combined to the main body , configured to heat an aerosol generating article, and comprising a heater and a first memory , wherein the first memory stores heater module information about intrinsic properties of the removable heater module , the heater module information being obtained during a manufacturing process of the removable heater module , and wherein the controller is configured to obtain the heater module information from the first memory when the removable heater module is combined to the main body , determine a control condition corresponding to the removable heater module by using the obtained heater module information, and control the aerosol generating device based on the determined control condition, wherein the heater module information comprises a first heater parameter related to intrinsic properties of the heater , the control condition includes a voltage or a current applied to the heater , and the controller is further configured to determine the voltage or the current applied to the heater based on a predetermined correlation between the first heater parameter and the voltage or the current applied to the heater , wherein the first heater parameter represents a resistance value of the heater , an inductance value of the heater or a resonance frequency value of the heater obtained during the manufacturing process. a main body comprising a controller and a battery ; and a removable heater module removably combined to the main body , configured to heat an aerosol generating article, and comprising a heater and a first memory , wherein the first memory stores heater module information about intrinsic properties of the removable heater module , the heater module information being obtained during a manufacturing process of the removable heater module , and wherein the controller is configured to obtain the heater module information from the first memory when the removable heater module is combined to the main body , determine a control condition corresponding to the removable heater module by using the obtained heater module information, and control the aerosol generating device based on the determined control condition, wherein the heater module information comprises a first heater parameter related to intrinsic properties of the heater , the control condition includes a voltage or a current applied to the heater , and the controller is further configured to determine the voltage or the current applied to the heater based on a predetermined correlation between the first heater parameter and the voltage or the current applied to the heater , wherein the first heater parameter represents a resistance value of the heater , an inductance value of the heater or a resonance frequency value of the heater obtained during the manufacturing process.
Recessable electric apparatus designed to be able to be recessed in a hole (P3) formed through a wall (P) having two opposing faces, an outer face (P1) and an inner face (P2), said apparatus comprising a main body extending along a longitudinal axis (X1) and being provided with an outer bearing face that is able and intended to bear against said outer face (P1) when the apparatus is in the recessed state in said hole (P3), at least two clamping legs each including a free end and a connecting end connected to said main body so as to enable each clamping leg to move outside said main body between a raised position enabling the apparatus to be inserted into said hole (P3) and a lowered position in which each free end is able and intended to bear with pressure, under the effect of a return force exerted on said clamping legs, against said inner face (P2) when the apparatus is in the recessed state to hold the latter by clamping the wall (P) between said bearing face and said free ends and return means exerting said return force tending to return the latter to the lowered position thereof, the return means being distinct from the clamping legs and each clamping leg being associated with one of the return means and articulated pivotingly at the connecting end thereof on said main body about a pivot axis substantially perpendicular to the longitudinal axis (X1), each return means being connected to the associated clamping leg and to the main body , each return means being supported by the associated clamping leg and comprising an active part mounted in the associated clamping leg and an end connecting part connected to the main body , characterized in that the main body comprises at least two bearing and sliding edges , preferably having a rounded shape, each associated with one of the return means and in that the end connecting part of each return means is connected to the main body , bearing, by sliding contact, on the associated bearing and sliding edge so that, when the clamping leg is moving between the lowered position thereof and the raised position thereof or vice versa, each end connecting part slides on the associated bearing and sliding edge , pivoting about the latter.
A computer-implemented method for designing a virtual model of a customised abutment for use in designing a virtual dental prosthetic comprising the customised abutment, an implant and a restoration, the method comprising the steps of, - obtaining a digital data set representing a dental situation of a patient comprising information on implant type, position and orientation along an implant axis (A), - designing a customised abutment by designing an implant surface for contact to the implant along the implant axis (A) and a restoration surface for contact to a restoration , where an emergence profile of the abutment is designed which separate the implant surface and the restoration surface , - splitting the customised abutment into a customised abutment base , which is suited to be arranged adjacent to the implant, and a customised abutment top adjacent the customised abutment base , where the customised abutment base and the customised abutment top extends along an abutment axis (A). - obtaining a digital data set representing a dental situation of a patient comprising information on implant type, position and orientation along an implant axis (A), - designing a customised abutment by designing an implant surface for contact to the implant along the implant axis (A) and a restoration surface for contact to a restoration , where an emergence profile of the abutment is designed which separate the implant surface and the restoration surface , - splitting the customised abutment into a customised abutment base , which is suited to be arranged adjacent to the implant, and a customised abutment top adjacent the customised abutment base , where the customised abutment base and the customised abutment top extends along an abutment axis (A).
A method for determining a bed temperature setpoint for use with a powder in a selective laser sintering machine, comprising the steps of: providing a powder comprising a polymer for use in a selective laser sintering machine; determining a melt curve for the powder in a temperature range corresponding to a thermal transition between a solid and a liquid of the powder, the melt curve representing the energy required to increase the temperature of the powder in the temperature range using differential scanning calorimetry; determining a second curve representing a ratio of a liquid portion of the powder to a solid portion of the powder as a function of temperature within the temperature range based on the melt curve determined using differential scanning calorimetry; identifying a desired ratio of the liquid portion of the powder to the solid portion of the powder for a build using the selective laser sintering machine; selecting a bed temperature setpoint in the temperature range by selecting the temperature that corresponds to the desired ratio in the second curve. providing a powder comprising a polymer for use in a selective laser sintering machine; determining a melt curve for the powder in a temperature range corresponding to a thermal transition between a solid and a liquid of the powder, the melt curve representing the energy required to increase the temperature of the powder in the temperature range using differential scanning calorimetry; determining a second curve representing a ratio of a liquid portion of the powder to a solid portion of the powder as a function of temperature within the temperature range based on the melt curve determined using differential scanning calorimetry; identifying a desired ratio of the liquid portion of the powder to the solid portion of the powder for a build using the selective laser sintering machine; selecting a bed temperature setpoint in the temperature range by selecting the temperature that corresponds to the desired ratio in the second curve.
An apparatus, configured to adjust and monitor a belt tension and/or a belt stiffness of a belt of an injection-moulding system for processing plastics and other plasticizable masses, the apparatus comprising at least one belt-tensioning device , which is configured to adjust the belt tension and/or the belt stiffness of the belt , the injection-moulding system comprising: a mould-closing unit (F) with an injection mould which is received between mould plates and which comprises a mould cavity which is configured to form an injection-moulded part, characterised in that at least one sensor device is provided, which is configured to monitor the belt tension and/or the belt stiffness of the belt , in that the belt-tensioning device is at least part of the sensor device and the belt is embodied as a fixedly-mounted and finite belt, and in that the sensor device is arranged at one end in the longitudinal direction of the belt . at least one belt-tensioning device , which is configured to adjust the belt tension and/or the belt stiffness of the belt , the injection-moulding system comprising: a mould-closing unit (F) with an injection mould which is received between mould plates and which comprises a mould cavity which is configured to form an injection-moulded part, characterised in that at least one sensor device is provided, which is configured to monitor the belt tension and/or the belt stiffness of the belt , in that the belt-tensioning device is at least part of the sensor device and the belt is embodied as a fixedly-mounted and finite belt, and in that the sensor device is arranged at one end in the longitudinal direction of the belt . a mould-closing unit (F) with an injection mould which is received between mould plates and which comprises a mould cavity which is configured to form an injection-moulded part, characterised in that at least one sensor device is provided, which is configured to monitor the belt tension and/or the belt stiffness of the belt , in that the belt-tensioning device is at least part of the sensor device and the belt is embodied as a fixedly-mounted and finite belt, and in that the sensor device is arranged at one end in the longitudinal direction of the belt .
A tire having a tread , the tread comprising a contact surface , a middle rib formed by two circumferential grooves extending along a tire circumferential direction, and at least one or two further ribs disposed axially outward from the middle rib and a respective one of the two circumferential grooves , wherein at least one of said middle rib and said at least one or two further ribs comprises a row of circumferentially extending tread elements and a plurality of sipes , wherein the sipes are inclined toward the rotational direction of the tire when moving from the contact surface radially inwardly along the sipes and wherein the tread elements have a chamfer at the respective trailing edge of the respective tread element .
An apparatus comprising: a heatsink that includes a first vapor chamber that: contains fluid that dissipates heat; and is at least partially encompassed by a plate that contains at least one slot extending from a top surface of the plate to the first vapor chamber; and at least one fin that: encompasses a second vapor chamber; and is secured within the slot in the plate of the heatsink such that: the fin extends from the heatsink; and the fluid within the first vapor chamber is capable of flowing into the second vapor chamber; wherein: the fin comprises a first plate and a second plate that encompass the second vapor chamber; the first plate of the fin contains at least one indentation; and the second plate of the fin contains at least one additional indentation that makes physical contact with the indentation in the first plate of the fin. a heatsink that includes a first vapor chamber that: contains fluid that dissipates heat; and is at least partially encompassed by a plate that contains at least one slot extending from a top surface of the plate to the first vapor chamber; and contains fluid that dissipates heat; and is at least partially encompassed by a plate that contains at least one slot extending from a top surface of the plate to the first vapor chamber; and at least one fin that: encompasses a second vapor chamber; and is secured within the slot in the plate of the heatsink such that: the fin extends from the heatsink; and the fluid within the first vapor chamber is capable of flowing into the second vapor chamber; encompasses a second vapor chamber; and is secured within the slot in the plate of the heatsink such that: the fin extends from the heatsink; and the fluid within the first vapor chamber is capable of flowing into the second vapor chamber; the fin extends from the heatsink; and the fluid within the first vapor chamber is capable of flowing into the second vapor chamber; wherein: the fin comprises a first plate and a second plate that encompass the second vapor chamber; the first plate of the fin contains at least one indentation; and the second plate of the fin contains at least one additional indentation that makes physical contact with the indentation in the first plate of the fin. the fin comprises a first plate and a second plate that encompass the second vapor chamber; the first plate of the fin contains at least one indentation; and the second plate of the fin contains at least one additional indentation that makes physical contact with the indentation in the first plate of the fin.
A connector assembly for connecting an antenna element to an antenna transmission line , the connector assembly comprising: - an adaptor comprising: - an antenna element attachment portion , for connection of the antenna element to the adaptor , - a signal attachment portion , for connection of a signal conductor of the transmission line to the adaptor , wherein the antenna element attachment portion is in electrical connection with the signal attachment portion , - a ground attachment portion , for connection of a ground conductor of the transmission line to the adaptor , - an impedance matching part , adapted to match the impedance of the antenna element to the antenna transmission line , the connector assembly further comprising: - a shielding metal cage for shielding radio circuits in three spatial dimensions, wherein the adaptor is physically connected to the metal cage and the metal cage is electrically connected to the ground attachment portion of the adaptor , characterised in that : the adaptor and the metal cage form an integral part with a continuous metallic surface constituting both the metal cage and a surface on the adaptor onto which the antenna element attachment portion , the signal attachment portion and the ground attachment portion are formed, wherein the impedance matching part comprises a slit in a portion of the continuous metallic surface with the signal attachment portion positioned on one side of the slit and the ground attachment portion positioned on another side of the slit . - an adaptor comprising: - an antenna element attachment portion , for connection of the antenna element to the adaptor , - a signal attachment portion , for connection of a signal conductor of the transmission line to the adaptor , wherein the antenna element attachment portion is in electrical connection with the signal attachment portion , - a ground attachment portion , for connection of a ground conductor of the transmission line to the adaptor , - an impedance matching part , adapted to match the impedance of the antenna element to the antenna transmission line , - an antenna element attachment portion , for connection of the antenna element to the adaptor , - a signal attachment portion , for connection of a signal conductor of the transmission line to the adaptor , wherein the antenna element attachment portion is in electrical connection with the signal attachment portion , - a ground attachment portion , for connection of a ground conductor of the transmission line to the adaptor , - an impedance matching part , adapted to match the impedance of the antenna element to the antenna transmission line , - a shielding metal cage for shielding radio circuits in three spatial dimensions,
An Ethernet Passive Optical Network over Coax, EPoC, physical layer, PHY, chip for use in a Coaxial Network Unit, CNU , comprising: a PHY controller configured to receive a Medium Access Control (MAC) bit stream , determine a transmission time duration for the MAC bit stream , and translate the transmission time duration into a frame number and a subcarrier group, wherein the frame number identifies an upstream scheduled multi-subcarrier frame and the subcarrier group identifies a plurality of subcarriers of the multi-subcarrier frame; characterized in that the PHY controller is further configured to fill the plurality of subcarriers with bits of the MAC bit stream in a shuffled order.
A non-transitory storage medium storing instructions, which when read and executed by a computer cause the computer to perform a magnetic resonance (MR) image reconstruction method comprising: performing an iterative reconstruction of multiple gradient echo MR imaging data to generate a reconstructed MR image , the iterative reconstruction using a model that links the MR imaging data and the reconstructed MR image wherein the model includes a parameterized magnetic field fluctuation component ; the non-transitory storage medium being characterized in that the MR image reconstruction method further comprises, during the performing of the iterative reconstruction, updating parameters of the parameterized magnetic field fluctuation component of the model to optimize a cost function dependent on partial derivatives of the reconstructed MR image with respect to the parameters of the parameterized magnetic field fluctuation component of the model.
A peg for supporting a yarn supply package (P1) in which a synthetic yarn (Y) made of a synthetic fiber is wound on a yarn supply bobbin (B1), comprising: a yarn supply package support portion which is inserted into the yarn supply bobbin (B1) and supports the yarn supply package (P1); and a peg body which supports the yarn supply package support portion , wherein the yarn supply package support portion includes a rotation mechanism which rotates the yarn supply package (P1), wherein the yarn supply package support portion includes a pair of package support members which extend in one direction, are parallel to each other, and are brought into contact with an inner peripheral surface of the yarn supply bobbin (B1), such that the yarn supply package (P1) is supported at two points by the pair of package support members , characterized in that the rotation mechanism rotates the pair of package support members in a synchronization manner, such that the yarn supply package (P1) is rotated so that the synthetic yarn (Y) is fed from the yarn supply package (P1), wherein the yarn supply package (P1) does not rotate once when one package support member and a other package support member of the pair of package support members rotate once. a yarn supply package support portion which is inserted into the yarn supply bobbin (B1) and supports the yarn supply package (P1); and a peg body which supports the yarn supply package support portion , wherein the yarn supply package support portion includes a rotation mechanism which rotates the yarn supply package (P1), wherein the yarn supply package support portion includes a pair of package support members which extend in one direction, are parallel to each other, and are brought into contact with an inner peripheral surface of the yarn supply bobbin (B1), such that the yarn supply package (P1) is supported at two points by the pair of package support members , characterized in that the rotation mechanism rotates the pair of package support members in a synchronization manner, such that the yarn supply package (P1) is rotated so that the synthetic yarn (Y) is fed from the yarn supply package (P1), wherein the yarn supply package (P1) does not rotate once when one package support member and a other package support member of the pair of package support members rotate once.
, In vitro use of a biomarker selected from the group consisting of laminin and/or galectin for predicting the outcome of the treatment with parvious H1 (H-1PV) of a patient suspected to suffer from a cancer.
A binder composition comprising: a urea-formaldehyde resin; and 1 wt.% to 10 wt.% of a starch, said starch is a native starch or a modified starch, said modified starch is a cationic or anionic starch . a urea-formaldehyde resin; and 1 wt.% to 10 wt.% of a starch, said starch is a native starch or a modified starch, said modified starch is a cationic or anionic starch .