mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic measuring system configured to determine performance-data of a user relating to one or more pedal-strokes exercised by the user on a pedal of a bicycle , said bicycle is provided with two pedal-cranks designed to rotate around a rotation axis (A), and two pedals which are coupled to said respective two pedal-cranks so that each one describes a pedalling circumference (CP) during the complete rotation of the corresponding pedal-crank around said rotation axis (A), the electronic measuring system comprises: a user interface device which is configured to allow a user to set a pedalling-arc (AP) comprised in said pedalling circumference (CP) of said pedal , provide a user-command (S1) containing said pedalling-arc (AP) set by the user, and a power meter apparatus which is configured to: be operationally connected to said user interface device to receive said user-command (S1) containing the pedalling-arc (AP) set by said user, measure at least one force exerted by the said user during pedalling, when the pedal is moving in the said pedalling-arc (AP) set by said user, determine at least one measurement quantity associated with said force measured in said pedalling-arc (AP) set by said user, and determine the performance data of said user in said pedalling-arc (AP) based on said determined measurement quantity, characterized in that said pedalling-arc (AP) does not have a predetermined fixed value. a user interface device which is configured to allow a user to set a pedalling-arc (AP) comprised in said pedalling circumference (CP) of said pedal , provide a user-command (S1) containing said pedalling-arc (AP) set by the user, and a power meter apparatus which is configured to: be operationally connected to said user interface device to receive said user-command (S1) containing the pedalling-arc (AP) set by said user, measure at least one force exerted by the said user during pedalling, when the pedal is moving in the said pedalling-arc (AP) set by said user, determine at least one measurement quantity associated with said force measured in said pedalling-arc (AP) set by said user, and determine the performance data of said user in said pedalling-arc (AP) based on said determined measurement quantity, characterized in that said pedalling-arc (AP) does not have a predetermined fixed value. be operationally connected to said user interface device to receive said user-command (S1) containing the pedalling-arc (AP) set by said user, measure at least one force exerted by the said user during pedalling, when the pedal is moving in the said pedalling-arc (AP) set by said user, determine at least one measurement quantity associated with said force measured in said pedalling-arc (AP) set by said user, and determine the performance data of said user in said pedalling-arc (AP) based on said determined measurement quantity, characterized in that said pedalling-arc (AP) does not have a predetermined fixed value.
A cell line, or a cell from the cell line, engineered to stably express one heterologous human NaV alpha 9 subunit and two different human NaV beta subunits of a human NaV protein, wherein the human NaV subunits form a human NaV 1.7, wherein the two different human NaV beta subunits are a beta 1 subunit and a beta 2 subunit.
A rotary dryer with multi-drying chambers comprising: - a base frame - a drive assembly installed on the base frame , in which the drive assembly comprises a motor (2.1) and a plurality of rollers (2.2) - a drying chamber assembly having a moist material inlet part at one end and a dried material outlet part at the other end, in which the moist material inlet part and the dried material outlet part are installed on the rollers (2.2) of the drive assembly - a moist material inlet assembly capped to the moist material inlet part and installed on the base frame - a dried material outlet assembly capped to the dried material outlet part and installed on the base frame and - a housing encompassed the drying chamber assembly and installed on the base frame , wherein the drying chamber assembly comprises a plurality of drying chambers formed from an axial core , a plurality of drying chamber partition walls installed around the axial core and a plurality of drying chamber enclosure walls fixed to the plurality of drying chamber partition walls , in which a plurality of material flow control assemblies is provided in each of the plurality of drying chambers , characterized in that each of the plurality of material flow control assemblies is shaped as a plurality of orderly arranged plates (13.1) or a plurality of screw-like connected plates (13.2) and is installed in each of the plurality of drying chambers to cause material flows forward in accordance with a rotation of the drying chamber assembly . - a base frame - a drive assembly installed on the base frame , in which the drive assembly comprises a motor (2.1) and a plurality of rollers (2.2) - a drying chamber assembly having a moist material inlet part at one end and a dried material outlet part at the other end, in which the moist material inlet part and the dried material outlet part are installed on the rollers (2.2) of the drive assembly - a moist material inlet assembly capped to the moist material inlet part and installed on the base frame - a dried material outlet assembly capped to the dried material outlet part and installed on the base frame and - a housing encompassed the drying chamber assembly and installed on the base frame , wherein the drying chamber assembly comprises a plurality of drying chambers formed from an axial core , a plurality of drying chamber partition walls installed around the axial core and a plurality of drying chamber enclosure walls fixed to the plurality of drying chamber partition walls , in which a plurality of material flow control assemblies is provided in each of the plurality of drying chambers , characterized in that each of the plurality of material flow control assemblies is shaped as a plurality of orderly arranged plates (13.1) or a plurality of screw-like connected plates (13.2) and is installed in each of the plurality of drying chambers to cause material flows forward in accordance with a rotation of the drying chamber assembly .
A composition comprising a soluble alkaline phosphatase (sALP) comprising an amino acid sequence having at least 95% sequence identity to the amino acid sequence of SEQ ID NO: 1 for use in treating hypophosphatasia (HPP) in a subject of 5 to 15 years of age having an average modified Performance-Oriented Mobility Assessment - Gait (mPOMA-G) score of 5 or less, wherein said subject did not exhibit an increase in the average mPOMA-G score of at least 0.6, particularly at least 1.0 or more, after administration of said sALP to the subject at a dose providing 6 mg/kg/week during a treatment period of at least one year, and wherein the dosage of the sALP is increased to 9 mg/kg/week.
A method of collaborative computing comprising: displaying a computer generated scenario including a plurality of items on a first surface computer, wherein the first surface computer has an interactive touch-sensitive screen; identifying a first physical token placed on the first surface computer by a first person, wherein the first physical token at least in part identifies credentials of the first person ; authenticating the first person based on the credentials of the first person to determine an authorization of the first person; allowing the first person to edit one or more of the items as permitted by the authorization of the first person; characterised in that the method is a method of collaborative planning and/or gaming, and the method further comprises: displaying the computer generated scenario including a plurality of items on a second surface computer with an interactive touch sensitive screen, at a location remote to the first surface computer; identifying a second physical token placed on the second surface computer by a second person , wherein the second physical token at least in part identifies credentials of the second person; authenticating the second person based on the credentials of the second person to determine an authorization of the second person that is different than the authorization of the first person; and allowing the second person to edit one or more of the items displayed on the second surface computer as permitted by the authorization of the second person, wherein the authorization of the second person permits the second person to edit at least one item that the authorization of the first person does not permit the first person to edit. displaying a computer generated scenario including a plurality of items on a first surface computer, wherein the first surface computer has an interactive touch-sensitive screen; identifying a first physical token placed on the first surface computer by a first person, wherein the first physical token at least in part identifies credentials of the first person ; authenticating the first person based on the credentials of the first person to determine an authorization of the first person; allowing the first person to edit one or more of the items as permitted by the authorization of the first person; displaying the computer generated scenario including a plurality of items on a second surface computer with an interactive touch sensitive screen, at a location remote to the first surface computer; identifying a second physical token placed on the second surface computer by a second person , wherein the second physical token at least in part identifies credentials of the second person; authenticating the second person based on the credentials of the second person to determine an authorization of the second person that is different than the authorization of the first person; and allowing the second person to edit one or more of the items displayed on the second surface computer as permitted by
A mobile communication method, comprising: a step A of transmitting, by a radio base station (eNB), to a mobile station (UE) that is in a connected state in a subordinate cell, a Logged Measurement Configuration Message including a predetermined parameter for neighboring cell measurement in Logged Minimization of Drive Tests, MDT, mode; and a step B of determining, by the mobile station (UE), whether or not a neighboring cell measurement needs to be performed, by using a radio quality of the cell, and the predetermined parameter, when the mobile station (UE) is in an idle state; wherein the radio base station (eNB) notifies a value of the predetermined parameter decided based on at least one of capability information of the mobile station (UE) and subscriber profile information, to the mobile station (UE). a step A of transmitting, by a radio base station (eNB), to a mobile station (UE) that is in a connected state in a subordinate cell, a Logged Measurement Configuration Message including a predetermined parameter for neighboring cell measurement in Logged Minimization of Drive Tests, MDT, mode; and a step B of determining, by the mobile station (UE), whether or not a neighboring cell measurement needs to be performed, by using a radio quality of the cell, and the predetermined parameter, when the mobile station (UE) is in an idle state; wherein the radio base station (eNB) notifies a value of the predetermined parameter decided based on at least one of capability information of the mobile station (UE) and subscriber profile information, to the mobile station (UE).
Axle receiving arrangement for fixing to an axle , said axle receiving arrangement comprising components that can move in opposite directions and in each case move in the direction of an axle that is received by the axle receiving arrangement , wherein the components that can move in opposite directions are part of a tensioning side or compressing side of the axle receiving arrangement , characterised in that - the axle receiving arrangement has at least two components that can be combined with one another on the tensioning side and/or on the compressing side, of which one is the component which is close to the axle, and in the case of fixing the axle receiving arrangement to the axle , participates in a positive-locking and non-positive-locking fixing of the axle by means of the axle receiving arrangement and of which the other is the component which is remote from the axle and ensures the movability in the direction of the axle that is received by the axle receiving arrangement and - the tensioning-side or compressing-side components that can be combined with one another enclose a gap in the combined state. - the axle receiving arrangement has at least two components that can be combined with one another on the tensioning side and/or on the compressing side, of which one is the component which is close to the axle, and in the case of fixing the axle receiving arrangement to the axle , participates in a positive-locking and non-positive-locking fixing of the axle by means of the axle receiving arrangement and of which the other is the component which is remote from the axle and ensures the movability in the direction of the axle that is received by the axle receiving arrangement and - the tensioning-side or compressing-side components that can be combined with one another enclose a gap in the combined state.
A computer-implemented method for identifying at least one mechanical parameter called "target parameter" of an object subjected to a mechanical stress, characterized in that said method comprises the following steps: - Step 1: acquiring, by an imaging means, at least two images of the object taken before and during the application of the mechanical stress and measuring the scale factor of the object; - Step 2: calculating a first functional T CIN (U CIN ) corresponding to the correlation of the digital images depending on the displacement field U CIN represented using a first kinematic base, said displacement field U CIN being measured at any point of the object under stress between the images of the object under load and without load; - Step 3: calculating the calculated displacement field U CAL at any point of the object; - Step 4: calculating a second functional T CAL (U CAL ,{p},{q}) on the basis of the calculated displacement field U CAL represented using a second kinematic base, this second functional corresponding to the variational formulation of a mechanical model of the stress depending on the geometry of the object, the forces applied, the boundary conditions, at least the target parameter {p} and predetermined mechanical parameters {q}; - Step 5: calculating a third functional T PAR (U CIN ,U CAL ) in the form of a quadratic norm, equal to the difference between U CIN and U CAL ; - Step 6: minimizing, with respect to U CIN , U CAL and {p}, a total functional T TOT (U CIN ,U CAL ,{p},{q}) comprising at least the terms: T TOT U CIN U CAL p q = α T CIN U CIN + β T CAL U CAL p q + γ T PAR U CIN U CAL - α, β and γ being three non-zero weighting coefficients. - Step 1: acquiring, by an imaging means, at least two images of the object taken before and during the application of the mechanical stress and measuring the scale factor of the object; - Step 2: calculating a first functional T CIN (U CIN ) corresponding to the correlation of the digital images depending on the displacement field U CIN represented using a first kinematic base, said displacement field U CIN being measured at any point of the object under stress between the images of the object under load and without load; - Step 3: calculating the calculated displacement field U CAL at any point of the object; - Step 4: calculating a second functional T CAL (U CAL ,{p},{q}) on the basis of the calculated displacement field U CAL represented using a second kinematic base, this second functional corresponding to the variational formulation of a mechanical model of the stress depending on the geometry of the object, the forces applied, the boundary conditions, at least the target parameter {p} and predetermined mechanical parameters {q}; - Step 5: calculating a third functional T PAR (U CIN ,U CAL ) in the form of a quadratic norm, equal to the difference between U CIN and U CAL ; - Step 6: minimizing, with respect to U CIN , U CAL and {p}, a total functional T TOT (U CIN ,U CAL ,{p},{q}) comprising at least the terms: T TOT U CIN U CAL p q = α T CIN U CIN + β T CAL U CAL p q + γ T PAR U CIN U CAL - α, β and γ being three non-zero weighting coefficients.
A lighting and/or signaling device for vehicles, comprising: - a container body that delimits a containment seat which extends along a first perimeter edge , closed by a lenticular body which extends along a second perimeter edge at least partially counter-shaped to and overlapping said first perimeter edge , - said containment seat housing at least one LED or mini LED light source adapted to emit a light beam comprising a plurality of light rays which extend along a main optical propagation axis (X-X), and at least one light guide configured to at least partially receive said light rays at an inlet wall thereof and to transmit and/or reflect said light rays onto a rear wall thereof, - said rear wall being provided with a plurality of optical extractor elements which extract the light rays and transmit them externally to the light guide through a front wall of the light guide , opposite to said rear wall , along a transverse direction (T-T), perpendicular to the main optical propagation axis (X-X), - characterized in that with respect to a cross-section plane passing through said main optical propagation axis (X-X) and said transverse direction (T-T), said inlet wall has a middle section with polyline geometry comprising a plurality of rectilinear sections and/or curvilinear sections so as to be overall convex on the side of the at least one light source , wherein the rectilinear and/or curvilinear sections each identify a skirt of the inlet wall , wherein adjacent skirts of the inlet wall are inclined and joined to one another at a vertex line. - a container body that delimits a containment seat which extends along a first perimeter edge , closed by a lenticular body which extends along a second perimeter edge at least partially counter-shaped to and overlapping said first perimeter edge , - said containment seat housing at least one LED or mini LED light source adapted to emit a light beam comprising a plurality of light rays which extend along a main optical propagation axis (X-X), and at least one light guide configured to at least partially receive said light rays at an inlet wall thereof and to transmit and/or reflect said light rays onto a rear wall thereof, - said rear wall being provided with a plurality of optical extractor elements which extract the light rays and transmit them externally to the light guide through a front wall of the light guide , opposite to said rear wall , along a transverse direction (T-T), perpendicular to the main optical propagation axis (X-X), - characterized in that with respect to a cross-section plane passing through said main optical propagation axis (X-X) and said transverse direction (T-T), said inlet wall has a middle section with polyline geometry comprising a plurality of rectilinear sections and/or curvilinear sections so as to be overall convex on the side of the at least one light source ,
In vitro or ex vivo use of at least one peptide compound comprising or consisting in: X 1 -S-X 2 -W-S-X 3 -X 4 -S-X 5 (SEQ ID NO: 1), wherein: X 1 is W or L-NaI2, X 2 is G, V, A, S or Abu, X 3 is S, D or A, X 4 is C* or Abu, X 5 is R-S, R-S-Nm, R-S-C*-G, R-Abu-Nm, R-Abu-C*-G, K-iPr-S-Nm or K-iPr-S-C*-G, Abu corresponds to a 2-aminobutyric acid residue, iPr corresponds to an isopropyl-lysine residue, NaI2 corresponds to a 2-naphthylalanine, Nm indicates that the COOH end has been replaced by a NH 2 end, * indicates that when both X 4 and X 5 represent or comprise a cysteine residue said cysteine residues can be linked by a disulfide bond, for promoting differentiation of stem cells into neural cells. X 1 is W or L-NaI2, X 2 is G, V, A, S or Abu, X 3 is S, D or A, X 4 is C* or Abu, X 5 is R-S, R-S-Nm, R-S-C*-G, R-Abu-Nm, R-Abu-C*-G, K-iPr-S-Nm or K-iPr-S-C*-G, Abu corresponds to a 2-aminobutyric acid residue, iPr corresponds to an isopropyl-lysine residue, NaI2 corresponds to a 2-naphthylalanine, Nm indicates that the COOH end has been replaced by a NH 2 end, * indicates that when both X 4 and X 5 represent or comprise a cysteine residue said cysteine residues can be linked by a disulfide bond,
Device for a separation of exhaust gases containing particles, in which an untreated gas containing particles is conducted by means of a compressor via a tubular line the at least one outlet opening (1.1) thereof into a closed container , to which a filter chamber is connected, wherein an inert material in particle form as a loose fill, an inert liquid or a suspension of an inert material in particle form are contained in the container and the outlet opening(s) (1.1) or at least one outlet opening (1.2.1) of an immersion tube (1.2) into which the outlet opening(s) of the tubular line opens/open out is/are arranged within the inert material, the inert liquid or the suspension, and a fluidized bed is formed with untreated gas in which metallic particles are contained, inert liquid and/or inert particles in the container and untreated gas emerging from the inert material , the inert liquid or the suspension is conducted into the filter chamber which is arranged vertically above the container and in which at least one filter element is arranged, and the treated gas emerging through the at least one filter element is removed into the surroundings or is circulated during a treatment, wherein arranged within the container , upstream of the connection between the container and the filter chamber is a flow conducting element , with which a direct inflow of untreated gas emerging from the inert material , the inert liquid or suspension into the filter chamber is avoidable, characterized in that the vertically upper region of the immersion tube (1.2) is formed as a flow conducting element , by a formation of the immersion tube (1.2) widening conically in the direction of the filter chamber , and the untreated gas emerging from the inert material , the inert liquid or suspension is conducted through a gap, in particular an annular gap, between the vertically upper edge of the flow conducting element and the container wall into the filter chamber .