mhurhangee/patent-ind-claim-en huggingface dataset:
A disposable diaper having a longitudinal direction, a width direction, and a thickness direction that intersect each other, the disposable diaper comprising: side flaps ; pieces of fastening tape respectively arranged on widthwise side portions of the side flaps ; and joining portions each of which joins a portion of each piece of the fastening tape to a non-skin side of the side flaps in the thickness direction, in an unfolded state, for each of the pieces of fastening tape , a magnitude of force (F1S) applied at a time when the joining portion is peeled off when a region of the fastening tape that is outward in the width direction with respect to the joining portion is pulled in an outward direction along the width direction being greater than a minimum value of an magnitude of force (F2S) applied at a time when the joining portion is peeled off when a region of the fastening tape that is inward in the width direction with respect to the joining portion is pulled in any direction between the outward direction along the width direction and an outward direction along the thickness direction. side flaps ; pieces of fastening tape respectively arranged on widthwise side portions of the side flaps ; and joining portions each of which joins a portion of each piece of the fastening tape to a non-skin side of the side flaps in the thickness direction, in an unfolded state, for each of the pieces of fastening tape , a magnitude of force (F1S) applied at a time when the joining portion is peeled off when a region of the fastening tape that is outward in the width direction with respect to the joining portion is pulled in an outward direction along the width direction being greater than a minimum value of an magnitude of force (F2S) applied at a time when the joining portion is peeled off when a region of the fastening tape that is inward in the width direction with respect to the joining portion is pulled in any direction between the outward direction along the width direction and an outward direction along the thickness direction. in an unfolded state, for each of the pieces of fastening tape , a magnitude of force (F1S) applied at a time when the joining portion is peeled off when a region of the fastening tape that is outward in the width direction with respect to the joining portion is pulled in an outward direction along the width direction being greater than a minimum value of an magnitude of force (F2S) applied at a time when the joining portion is peeled off when a region of the fastening tape that is inward in the width direction with respect to the joining portion is pulled in any direction between the outward direction along the width direction and an outward direction along the thickness direction.
An EUV pellicle comprising: a pellicle frame; and a pellicle membrane mounted on the pellicle frame and comprising a film of bundles of carbon nanotubes, CNTs, wherein within any 2 μm × 2 μm region of the film: an average number of CNTs per bundle is at least 5, an average bundle diameter is in a range from 6 to 16 nm, an average areal density is in a range from 0.4 to 6 μg/cm 2 an inter-bundle spacing is 250 nm or less, and a number of walls per CNT is 6 or less. a pellicle frame; and a pellicle membrane mounted on the pellicle frame and comprising a film of bundles of carbon nanotubes, CNTs, wherein within any 2 μm × 2 μm region of the film: an average number of CNTs per bundle is at least 5, an average bundle diameter is in a range from 6 to 16 nm, an average areal density is in a range from 0.4 to 6 μg/cm 2 an inter-bundle spacing is 250 nm or less, and a number of walls per CNT is 6 or less. an average number of CNTs per bundle is at least 5, an average bundle diameter is in a range from 6 to 16 nm, an average areal density is in a range from 0.4 to 6 μg/cm 2 an inter-bundle spacing is 250 nm or less, and a number of walls per CNT is 6 or less.
An actuator for moving and securing an object in a specific orientation, the actuator extending essentially along a longitudinal axis (AA l ) thereof and comprising: a flexible structure having a plurality of inflatable chambers , wherein, in a pressurized state of the actuator , on account of a pressure difference created between the chambers , at least one of the plurality of chambers is in an inflated state, facilitating bending of the flexible structure at least about one axis extending perpendicular to the longitudinal axis of the actuator; and a stiffening means mechanically connected to the flexible structure at least along two positions located at an offset to the longitudinal axis of the actuator, the stiffening means being configured to provide additional bending stiffness to the actuator and to firmly secure the actuator in the specific orientation, characterized in that the actuator further comprises a top plate and a bottom plate each being mechanically secured to the flexible structure , wherein one of the top and the bottom plates is designed and adapted to receive the object directly on a surface thereof, and wherein the stiffening means is pivotally connected to the top and bottom plates (3 & 4), through one or more hinge elements provided on the top and bottom plates, and the hinge elements provide two mutually perpendicular axes of rotation for the actuator, characterised in that the stiffening means is an outer universal joint, surrounding and wrapping around the flexible structure and positioned in a manner located at a radial offset to the peripheral portion of the flexible structure . a flexible structure having a plurality of inflatable chambers , wherein, in a pressurized state of the actuator , on account of a pressure difference created between the chambers , at least one of the plurality of chambers is in an inflated state, facilitating bending of the flexible structure at least about one axis extending perpendicular to the longitudinal axis of the actuator; and a stiffening means mechanically connected to the flexible structure at least along two positions located at an offset to the longitudinal axis of the actuator, the stiffening means being configured to provide additional bending stiffness to the actuator and to firmly secure the actuator in the specific orientation, characterized in that the actuator further comprises a top plate and a bottom plate each being mechanically secured to the flexible structure , wherein one of the top and the bottom plates is designed and adapted to receive the object directly on a surface thereof, and wherein the stiffening means is pivotally connected to the top and bottom plates (3 & 4), through one or more hinge elements provided on the top and bottom plates, and the hinge elements provide two mutually perpendicular axes of rotation for the actuator, characterised in that the stiffening means is an outer universal joint, surrounding and wrapping around the flexible structure and positioned in a manner located at a radial offset to the peripheral portion of the flexible structure .
Method for motion planning for a conveyor system (TS) of a servo press installation (PL), wherein, in the servo press installation (PL), at least a first servo press (P1) and a second servo press (P2) are provided, and wherein the conveyor system (TS) comprises at least one conveyor apparatus (T) for the movement of a product (M) which is to be processed by the servo press installation (PL), and the motion of the at least one conveyor apparatus (T) is controlled by a motion controller (C) of the conveyor system (TS), characterized by the following steps: - determination (S1) of a motion segment that concerns only the region outside respective pressing workspaces of the first servo press (P1) and the second servo press (P2); - definition (S2) of a time interval for motion within the motion segment, and from the first servo press (P1) to the second servo press (P2); - calculation (S3) of a motion curve for motion within the motion segment, with reference to the defined time interval, wherein, as marginal conditions for the motion curve, a first position on a first margin of the motion segment at a starting time point of the time interval, and a second position on a second margin of the motion segment at an end time point of the time interval, are established, and - controlling the conveyor apparatus (T) based on the calculated motion curve. - determination (S1) of a motion segment that concerns only the region outside respective pressing workspaces of the first servo press (P1) and the second servo press (P2); - definition (S2) of a time interval for motion within the motion segment, and from the first servo press (P1) to the second servo press (P2); - calculation (S3) of a motion curve for motion within the motion segment, with reference to the defined time interval, wherein, as marginal conditions for the motion curve, a first position on a first margin of the motion segment at a starting time point of the time interval, and a second position on a second margin of the motion segment at an end time point of the time interval, are established, and - controlling the conveyor apparatus (T) based on the calculated motion curve.
Frost-proof outlet fitting, comprising a valve housing which forms a valve seat , an outlet housing , an intermediate spindle which is accommodated in an intermediate pipe that connects the outlet housing to the valve housing , the outlet housing being provided with an output-side non-return valve and an input-side non-return valve which is upstream of the output-side non-return valve in the flow direction, and the input-side non-return valve being arranged in the outlet housing , characterised by a ventilation element (60, 61; 59) that is automatically actuated by a spindle of a valve upper part connected to the outlet housing , which ventilation element is provided upstream of the input-side non-return valve in the flow direction and is provided with a bypass channel .
A method comprising: communicating, at a first network access point , with a core network entity using a user plane protocol, said communicating comprising receiving user data from the core network entity on a first bearer , the first bearer capable of being split at the first network access point with a second network access point such that at least some of the user data is provided to the second network access point, the first network access point and the second network access point configured to communicate wirelessly with a plurality of user equipments, and the first network access point configured not to communicate with the core network using a control plane protocol associated with the first bearer, wherein the first network access point is a secondary network access point and the second network access point is a master network access point .
A method of wireless communication, comprising: grouping , by a network device, rate matching resources into a plurality of first groups for communication with a wireless terminal, transmitting a channel control indicator identifying at least a first group from the plurality of first groups of rate matching resources, wherein at least some rate matching resources in at least one of the plurality of first groups correspond to a quasi-co-located, QCL, reference signal set, and wherein transmission configuration states are grouped in a plurality of second groups and the identified first group from the first groups of rate matching resources is determined based on a mapping that associates the plurality of first groups with the plurality of second groups. grouping , by a network device, rate matching resources into a plurality of first groups for communication with a wireless terminal, transmitting a channel control indicator identifying at least a first group from the plurality of first groups of rate matching resources, wherein at least some rate matching resources in at least one of the plurality of first groups correspond to a quasi-co-located, QCL, reference signal set, and wherein transmission configuration states are grouped in a plurality of second groups and the identified first group from the first groups of rate matching resources is determined based on a mapping that associates the plurality of first groups with the plurality of second groups.
An apparatus comprising: processing circuitry to perform data processing in one of a plurality of modes including at least a handler mode and a thread mode; exception control circuitry responsive to an exception condition to control the processing circuitry to switch to processing of an exception handler in the handler mode; and an instruction decoder to decode instructions to control the processing circuitry to perform the data processing; in which: at least when the processing circuitry is in the handler mode, in response to an intermodal calling branch instruction specifying a branch target address, the instruction decoder is configured to control the processing circuitry to: save a function return address to a function return address storage location; switch a current mode of the processing circuitry to the thread mode; and branch to an instruction identified by the branch target address. processing circuitry to perform data processing in one of a plurality of modes including at least a handler mode and a thread mode; exception control circuitry responsive to an exception condition to control the processing circuitry to switch to processing of an exception handler in the handler mode; and an instruction decoder to decode instructions to control the processing circuitry to perform the data processing; in which: at least when the processing circuitry is in the handler mode, in response to an intermodal calling branch instruction specifying a branch target address, the instruction decoder is configured to control the processing circuitry to: save a function return address to a function return address storage location; switch a current mode of the processing circuitry to the thread mode; and branch to an instruction identified by the branch target address. save a function return address to a function return address storage location; switch a current mode of the processing circuitry to the thread mode; and branch to an instruction identified by the branch target address.
Method for operating a washing machine for treating laundry , having a drum mounted in a rotatable manner in a tub , having a drive motor for the drum , having a control device , having a water-supply system , having a measuring device for determining a quantity of aqueous liquid introduced into the tub , having a heating device for heating the aqueous liquid in the tub , and having a temperature sensor , which serves for regulating the heating device in such a manner that the temperatures to be set can be set, wherein in the method the following steps are carried out: (a) introducing a first quantity q 1 of aqueous liquid at a temperature T q1 into the tub ; (b) heating the quantity q 1 of aqueous liquid to a predetermined temperature T 1 > T q1 ; wherein the quantity q 1 can be introduced in one step or in a state in which it is divided into a plurality of sub-quantities q 1 ', and heating to the temperature T 1 can begin following the introduction of q 1 or after one or more sub-quantities q 1 ' have been added, wherein q 1 and a first sub-quantity q 1 " introduced are each greater than a quantity q min , which is necessary for covering the heating device ; (c) adding a second aqueous quantity q 2 at a temperature T q2 < T 1 to the heated aqueous quantity q 1 ; and (d) carrying out a washing phase with the laundry in the presence of a detergent, wherein the quantity q 1 is determined as a function of a maximum predetermined energy E max which can be used for the method and the predetermined temperature T 1 , wherein a connection between E Max , T 1 and q 1 is stored in the control device . (a) introducing a first quantity q 1 of aqueous liquid at a temperature T q1 into the tub ; (b) heating the quantity q 1 of aqueous liquid to a predetermined temperature T 1 > T q1 ; wherein the quantity q 1 can be introduced in one step or in a state in which it is divided into a plurality of sub-quantities q 1 ', and heating to the temperature T 1 can begin following the introduction of q 1 or after one or more sub-quantities q 1 ' have been added, wherein q 1 and a first sub-quantity q 1 " introduced are each greater than a quantity q min , which is necessary for covering the heating device ; (c) adding a second aqueous quantity q 2 at a temperature T q2 < T 1 to the heated aqueous quantity q 1 ; and (d) carrying out a washing phase with the laundry in the presence of a detergent, wherein the quantity q 1 is determined as a function of a maximum predetermined energy E max which can be used for the method and the predetermined temperature T 1 , wherein a connection between E Max , T 1 and q 1 is stored in the control device .
A method of determining the capacity of glass containers , the method comprising the following steps: - using an X-ray computed-tomography apparatus to acquire a plurality of X-ray images (I) of the container at different projection angles; - transmitting the X-ray images to a computer ; and - analyzing the X-ray images with the computer for constructing a digital model (M) of the container from the X-ray images; characterized in that : - acquiring the X-ray images (I) for an empty container in order to cause only the material of the container to appear in the X-ray images; - determining the support surface of the container; and - analyzing the X-ray images in order to: - determine the inside surface (Sf) of the digital model of the container; - position a filling level plane (Pn) on the digital model of the container parallel to the support surface and at a nominal distance (Hn) from the top of the digital model of the container; and - measure by calculation the inside volume of the digital model of the container as defined by the inside surface (Sf) of the digital model and by the filling level plane, this measurement being the filling capacity (Cn) of the container. - using an X-ray computed-tomography apparatus to acquire a plurality of X-ray images (I) of the container at different projection angles; - transmitting the X-ray images to a computer ; and - analyzing the X-ray images with the computer for constructing a digital model (M) of the container from the X-ray images; - acquiring the X-ray images (I) for an empty container in order to cause only the material of the container to appear in the X-ray images; - determining the support surface of the container; and - analyzing the X-ray images in order to: - determine the inside surface (Sf) of the digital model of the container; - position a filling level plane (Pn) on the digital model of the container parallel to the support surface and at a nominal distance (Hn) from the top of the digital model of the container; and - measure by calculation the inside volume of the digital model of the container as defined by the inside surface (Sf) of the digital model and by the filling level plane, this measurement being the filling capacity (Cn) of the container. - determine the inside surface (Sf) of the digital model of the container; - position a filling level plane (Pn) on the digital model of the container parallel to the support surface and at a nominal distance (Hn) from the top of the digital model of the container; and - measure by calculation the inside volume of the digital model of the container as defined by the inside surface (Sf) of the digital model and by the filling level plane, this measurement being the filling capacity (Cn) of the container.
Cable drum comprising: - a flange having an inner surface delimiting a storage space (E) of a cable, a cavity (C) being formed in the flange , - a beacon at least partially housed in the cavity (C) and comprising a communication interface to emit signals transporting data relating to the cable drum and/or to the cable stored in the storage space (E), characterised in that the cavity (C) opens into the inner surface . - a flange having an inner surface delimiting a storage space (E) of a cable, a cavity (C) being formed in the flange , - a beacon at least partially housed in the cavity (C) and comprising a communication interface to emit signals transporting data relating to the cable drum and/or to the cable stored in the storage space (E), characterised in that the cavity (C) opens into the inner surface .
Process for producing a ready-to-use rubber mixture, wherein the ready-to-use rubber mixture is produced using a mixing apparatus having: - a first mixing chamber, where the first mixing chamber is bounded by a first chamber housing, a first introduction opening and a first ejection opening, and - a second mixing chamber disposed beneath the first mixing chamber, where the second mixing chamber is bounded by a second chamber housing, at least a second introduction opening and a second ejection opening, wherein the process comprises the following steps: A) mixing at least one rubber, at least one silanizing agent and silica in the first mixing chamber of the mixing apparatus, so as to form an at least partly silanized preliminary rubber mixture, where a silanization accelerator is added and mixed in addition to the silanizing agent, B) adding at least one oil or at least one liquid polymer to the at least partly silanized preliminary rubber mixture and mixing the at least one oil or at least one liquid polymer with the at least partly silanized preliminary rubber mixture in the first mixing chamber, so as to form a base rubber mixture, C) mixing one or more vulcanization chemicals and at least one further rubber in the second mixing chamber of the mixing apparatus, so as to form a preliminary vulcanization mixture, D) adding the base rubber mixture produced in step B) to the preliminary vulcanization mixture produced in step C) in the second mixing chamber and mixing the preliminary vulcanization mixture with the base rubber mixture, so as to form a ready-to-use rubber mixture. - a first mixing chamber, where the first mixing chamber is bounded by a first chamber housing, a first introduction opening and a first ejection opening, and - a second mixing chamber disposed beneath the first mixing chamber, where the second mixing chamber is bounded by a second chamber housing, at least a second introduction opening and a second ejection opening, A) mixing at least one rubber, at least one silanizing agent and silica in the first mixing chamber of the mixing apparatus, so as to form an at least partly silanized preliminary rubber mixture, where a silanization accelerator is added and mixed in addition to the silanizing agent, B) adding at least one oil or at least one liquid polymer to the at least partly silanized preliminary rubber mixture and mixing the at least one oil or at least one liquid polymer with the at least partly silanized preliminary rubber mixture in the first mixing chamber, so as to form a base rubber mixture, C) mixing one or more vulcanization chemicals and at least one further rubber in the second mixing chamber of the mixing apparatus, so as to form a preliminary vulcanization mixture, D) adding the base rubber mixture produced in step B) to the preliminary vulcanization mixture produced in step C) in the second mixing chamber and mixing the preliminary vulcanization mixture with the base rubber mixture, so as to form a ready-to-use rubber mixture.