mhurhangee/ep-ind-claims huggingface dataset:
Rotary sensor arrangement configured to be used with a rotatable magnetic source, the sensor arrangement comprising - a first pair of magnetic fields sensors (H0, H2) arranged symmetrically with respect to a rotation axis, the magnetic field sensors (H0, H2) of the first pair configured to provide a first and a second sensor value; - a second pair of magnetic fields sensors (H1, H3) arranged symmetrically with respect to the rotation axis, the magnetic field sensors (H1, H3) of the second pair configured to provide a third and a fourth sensor value; and - an evaluation unit (Eval) configured - to determine a first sum value corresponding to a sum of the first and the second sensor value; - to determine a second sum value corresponding to a sum of the third and the fourth sensor value; - to determine a difference value corresponding to a difference between the first and the second sum value; - to compare the difference value or a value derived from the difference value to a threshold value; and - to determine whether a failure status of the sensor arrangement is present based on the comparison result. - a first pair of magnetic fields sensors (H0, H2) arranged symmetrically with respect to a rotation axis, the magnetic field sensors (H0, H2) of the first pair configured to provide a first and a second sensor value; - a second pair of magnetic fields sensors (H1, H3) arranged symmetrically with respect to the rotation axis, the magnetic field sensors (H1, H3) of the second pair configured to provide a third and a fourth sensor value; and - an evaluation unit (Eval) configured - to determine a first sum value corresponding to a sum of the first and the second sensor value; - to determine a second sum value corresponding to a sum of the third and the fourth sensor value; - to determine a difference value corresponding to a difference between the first and the second sum value; - to compare the difference value or a value derived from the difference value to a threshold value; and - to determine whether a failure status of the sensor arrangement is present based on the comparison result.
A headgear for a mask assembly for the provision of gases to subjects, the headgear comprising a strap for positioning the mask assembly on a user's head; the mask assembly including an aperture through which the strap is passable, in use; the strap including first and second adjacent portions, the second portion being folded against the first portion, in use, wherein the second portion is threadable through the aperture; the first and second portions each including a surface for engagement with the complementary surface of the other adjacent portion; characterised in that the headgear further comprises a strap length delimiting means on the first portion that moves in a sliding action along an axis of the strap such that the strap length delimiting means is adjustable in relation to the strap, but has enough friction or resistance to prevent undesired movement, and is thicker or longer than the aperture such that, in use, the strap length delimiting means acts as an optimal setting memory which operates when the user pulls the second portion of the strap while putting the mask assembly on and fastening the straps to prevent the first portion from sliding past an optimal setting marker when the strap length delimiting means comes into contact with the aperture.
Method for protecting an email address of a user, comprising the following steps: - intercepting a message (7:20) sent by the user to a server, said message containing the email address of the user and being transmitted in the context of a procedure for registering the user with the server; - obtaining a substitute address for the user; and - transmitting the intercepted message (9:28) to the server after having replaced, in said message, the email address of the user with said substitute address. - intercepting a message (7:20) sent by the user to a server, said message containing the email address of the user and being transmitted in the context of a procedure for registering the user with the server; - obtaining a substitute address for the user; and - transmitting the intercepted message (9:28) to the server after having replaced, in said message, the email address of the user with said substitute address.
A control apparatus for a vehicle on which an engine and an electric motor (110, 120) coupled to said engine is are mounted, comprising: a control unit selecting, in accordance with operation by a driver, either one of a first mode in which a shift range can be manually changed through the operation by the driver and a rotation speed of said engine is controlled in accordance with a selected shift range and a second mode in which the rotation speed of said engine is controlled so as to reduce an amount of fuel consumption as compared with that in said first mode, and increasing the rotation speed of said engine during deceleration when said first mode is selected, as compared with when said second mode is selected; and a recommendation unit recommending the driver to make a change from said first mode to said second mode when said first mode is selected. a control unit selecting, in accordance with operation by a driver, either one of a first mode in which a shift range can be manually changed through the operation by the driver and a rotation speed of said engine is controlled in accordance with a selected shift range and a second mode in which the rotation speed of said engine is controlled so as to reduce an amount of fuel consumption as compared with that in said first mode, and increasing the rotation speed of said engine during deceleration when said first mode is selected, as compared with when said second mode is selected; and a recommendation unit recommending the driver to make a change from said first mode to said second mode when said first mode is selected.
A method of manufacturing a composite core comprising: wrapping each of a plurality of mandrels with a composite material to form a corresponding plurality of wrapped mandrels, wherein said wrapping comprises: securing each mandrel with a winding jig; orienting slit composite material at a wrap angle to the mandrel, the slit composite material having a prescribed width that is dependent upon the wrap angle and a circumference of the mandrel; and wrapping the slit composite material around a circumference of the mandrel starting from a first end of the mandrel, wherein the step of wrapping the slit composite material around a circumference of the mandrel starting from the first end of the mandrel results in a helical seam, the helical seam being an abutment of a first side portion of the slit to a second side portion of the slit composite material; assembling the plurality of wrapped mandrels; curing the composite material on each of the plurality of wrapped mandrels to form a corresponding plurality of cured core members that are bonded together to form the composite core. wrapping each of a plurality of mandrels with a composite material to form a corresponding plurality of wrapped mandrels, wherein said wrapping comprises: securing each mandrel with a winding jig; orienting slit composite material at a wrap angle to the mandrel, the slit composite material having a prescribed width that is dependent upon the wrap angle and a circumference of the mandrel; and wrapping the slit composite material around a circumference of the mandrel starting from a first end of the mandrel, securing each mandrel with a winding jig; orienting slit composite material at a wrap angle to the mandrel, the slit composite material having a prescribed width that is dependent upon the wrap angle and a circumference of the mandrel; and wrapping the slit composite material around a circumference of the mandrel starting from a first end of the mandrel, wherein the step of wrapping the slit composite material around a circumference of the mandrel starting from the first end of the mandrel results in a helical seam, the helical seam being an abutment of a first side portion of the slit to a second side portion of the slit composite material; assembling the plurality of wrapped mandrels; curing the composite material on each of the plurality of wrapped mandrels to form a corresponding plurality of cured core members that are bonded together to form the composite core.
A compound of formula: or a pharmaceutically acceptable derivative thereof, wherein: R 1 is -halo; R 4 is -H; each R 8 and R 9 is independently -H, -halo, -CH 3, or -CF 3; each halo is independently -F, -Cl, -Br, or -I; and m is the integer 1; wherein the methyl group bonded to the piperazine ring is a -2-methyl group; and the carbon atom at the a position of the a-b bond is in the configuration; wherein the pharmaceutically acceptable derivative is selected from the group consisting of a pharmaceutically acceptable salt, polymorph, pseudopolymorph, solvate, co-crystal, radiolabeled form, and/or tautomer. R 1 is -halo; R 4 is -H; each R 8 and R 9 is independently -H, -halo, -CH 3, or -CF 3; each halo is independently -F, -Cl, -Br, or -I; and m is the integer 1;
Control method for a motor torque of a drive motor of a bicycle, wherein the bicycle is specified for being driven manually by means of a pedalling power exerted by the cyclist on pedals of the bicycle and motorized by means of a motor torque of the drive motor, wherein the control method comprises at least the following steps: - detecting pedalling variables which represent the activation of the pedals by the cyclist; - detecting at least one pedal position of the pedals; characterized by the following steps: - identifying an out-of-the-saddle pedalling action of the cyclist as a function of the detected pedalling variables and the detected pedal position; and - controlling the motor torque of the drive motor for generating a constant propulsion of the bicycle as a function of the pedalling variables and of the identified out-of-the-saddle pedalling action. - detecting pedalling variables which represent the activation of the pedals by the cyclist; - detecting at least one pedal position of the pedals; - identifying an out-of-the-saddle pedalling action of the cyclist as a function of the detected pedalling variables and the detected pedal position; and - controlling the motor torque of the drive motor for generating a constant propulsion of the bicycle as a function of the pedalling variables and of the identified out-of-the-saddle pedalling action.
Cable drive, in particular for cranes or mass hoists, comprising a) a drum and b) a pulling member, b1) which runs on the drum, b2) which is wound and unwound on the drum during operation, and b3) which comprises at least one supporting element. b4) wherein the supporting element consists of strands which are produced from metal wires, the at least one supporting element being at least partially surrounded by a sheath which comprises a polymer and wherein at least a part of the sheath constitutes a bearing surface of the pulling member, wherein at least one of the supporting elements is a stranded cable with six or more outer strands, in particular with exactly nine outer strands, characterized in that the supporting element has a cable lay length of less than or equal to 7.5 times the supporting element diameter, in particular preferably of less than or equal to 6.8 times the supporting element diameter. a) a drum and b) a pulling member, b1) which runs on the drum, b2) which is wound and unwound on the drum during operation, and b3) which comprises at least one supporting element. b4) wherein the supporting element consists of strands which are produced from metal wires, the at least one supporting element being at least partially surrounded by a sheath which comprises a polymer and wherein at least a part of the sheath constitutes a bearing surface of the pulling member, wherein at least one of the supporting elements is a stranded cable with six or more outer strands, in particular with exactly nine outer strands, characterized in that the supporting element has a cable lay length of less than or equal to 7.5 times the supporting element diameter, in particular preferably of less than or equal to 6.8 times the supporting element diameter. b1) which runs on the drum, b2) which is wound and unwound on the drum during operation, and b3) which comprises at least one supporting element. b4) wherein the supporting element consists of strands which are produced from metal wires, the at least one supporting element being at least partially surrounded by a sheath which comprises a polymer and wherein at least a part of the sheath constitutes a bearing surface of the pulling member, wherein at least one of the supporting elements is a stranded cable with six or more outer strands, in particular with exactly nine outer strands, characterized in that the supporting element has a cable lay length of less than or equal to 7.5 times the supporting element diameter, in particular preferably of less than or equal to 6.8 times the supporting element diameter.
A process for making cladribine of formula I comprising: a) coupling a compound of formula II wherein each of R 1, R 2 and R 3 is independently alkyl, alkenyl, alkynyl or aryl, x is 0, 1 or 2, y is 2, 1 or 0, and R 4 is hydrogen or SiR 1 R 2 R 3 with a proviso that when x is 2, y is 0, R 4 is SiR 1 R 2 R 3, with a protected 2-deoxy-ribofuranose of formula III wherein each of R 6 and R 7 is independently a hydroxyl protecting group, and R 5 is a leaving group in an organic solvent and in the presence of a Brønsted acid or sulfonic acid based Lewis acid to obtain a reaction mixture comprising a β-anomer of formula IV wherein x' is 0, 1 or 2, y' is 2, 1 or 0; b) selectively precipitating the β-anomer of formula IV from the reaction mixture to obtain a heterogeneous mixture in the presence of MeCN; c) isolating the precipitated β-anomer of formula IV from the heterogeneous mixture to obtain isolated and substantially enriched β-anomer of formula IV; and d) converting the isolated and substantially enriched β-anomer of formula IV to cladribine. a) coupling a compound of formula II wherein each of R 1, R 2 and R 3 is independently alkyl, alkenyl, alkynyl or aryl, x is 0, 1 or 2, y is 2, 1 or 0, and R 4 is hydrogen or SiR 1 R 2 R 3 with a proviso that when x is 2, y is 0, R 4 is SiR 1 R 2 R 3, with a protected 2-deoxy-ribofuranose of formula III wherein each of R 6 and R 7 is independently a hydroxyl protecting group, and R 5 is a leaving group in an organic solvent and in the presence of a Brønsted acid or sulfonic acid based Lewis acid to obtain a reaction mixture comprising a β-anomer of formula IV wherein x' is 0, 1 or 2, y' is 2, 1 or 0; b) selectively precipitating the β-anomer of formula IV from the reaction mixture to obtain a heterogeneous mixture in the presence of MeCN; c) isolating the precipitated β-anomer of formula IV from the heterogeneous mixture to obtain isolated and substantially enriched β-anomer of formula IV; and d) converting the isolated and substantially enriched β-anomer of formula IV to cladribine.
Apparatus for cutting and joining a continuous strip of products packaged in a row, wherein said products are distanced according to a predefined pitch (p) and separated by a plurality of separation welds, each of which is present between two of said adjacent products, and wherein said separation welds are distanced according to said predefined pitch (p) and are disposed parallel to each other, said apparatus comprising a first motorized dragging member configured to make said continuous strip of products advance in a direction of advance substantially perpendicular to said separation welds; sensor means disposed upstream of said first dragging member and configured to detect a defective section on said continuous strip, while the latter is made to advance by said first dragging member, wherein said defective section comprises one or more defective products; cutting means configured to cut said continuous strip in a direction parallel to said separation welds in order to separate said defective section from said continuous strip, following the detection by said sensor means of said defective section, said cutting means being disposed upstream of said first dragging member with respect to a movement of advance of the continuous strip; said continuous strip thus being separated into two sections (111, 112), a first section and a second section, respectively on one side with respect to said defective section and on another side with respect to said defective section; said apparatus being characterized in that it also comprises a second motorized dragging member configured to move, after removal of the defective section, said first section and/or said second section, so as to move said said first section and second section reciprocally close until the respective free ends (113, 116) meet in order to restore said predefined pitch (p), said second dragging member being disposed upstream of said first dragging member and downstream of said sensor means with respect to the movement of advance of the continuous strip; joining means configured to join together the free ends (13, 116) of said first section and of said second section, after the first and second sections have been made to meet, in such a way as to recreate said continuous strip with the products distanced by said predefined pitch (p); and a control unit connected at least to said sensor means and to said first dragging member and configured to selectively control the latter so that it stops when said joining means carry out the joining of said first section and of said second section, as well as for at least a predefined period of time comprised between when said cutting means make the cut of said defective section and when said second dragging member moves the first section and the second section close to each other.
An elastic thread supply device configured to supply an elastic thread to a processing line, by overend unwinding for sequential drawing of the elastic thread in an axial core direction of a cylindrical elastic thread package around which the elastic thread is wound, comprising: a stress control unit configured to control the stress acting upon the elastic thread drawn from the elastic thread package; and a drive roll configured to supply the elastic thread dispensed from the stress control unit, to the processing line, characterized in that the stress control unit is configured to control the stress acting upon the elastic thread such that the stress becomes lesser than the stress acting upon the elastic thread in the processing line, and the drive roll is configured to, by operating at a supply velocity slower than a conveyance velocity of an article to be conveyed that is conveyed in the processing line, supply the elastic thread to the processing line such that the elastic thread attains a percentage of stretch between the drive roll and the processing line, and also, increase or decrease the supply velocity depending on a fluctuation in the conveyance velocity. a stress control unit configured to control the stress acting upon the elastic thread drawn from the elastic thread package; and a drive roll configured to supply the elastic thread dispensed from the stress control unit, to the processing line, characterized in that
A distributor, comprising: a sprayer, the top of the sprayer configured to connect to a falling film evaporator inlet, and the bottom of the sprayer being provided with spray holes; and an orifice plate disposed at a lower end of the sprayer and provided with multiple distribution holes; characterized in that a centrifugal gas-liquid separating element is disposed in the sprayer and is configured to separate a refrigerant entering the sprayer through the evaporator inlet into a gas phase and a liquid phase. a sprayer, the top of the sprayer configured to connect to a falling film evaporator inlet, and the bottom of the sprayer being provided with spray holes; and an orifice plate disposed at a lower end of the sprayer and provided with multiple distribution holes; characterized in that a centrifugal gas-liquid separating element is disposed in the sprayer and is configured to separate a refrigerant entering the sprayer through the evaporator inlet into a gas phase and a liquid phase.
A method of quantitating sorption of stannous by microbial cells of a biofilm comprising the steps: (a) treating the biofilm with a stannous containing oral care product; (b) labeling microbial cells of the biofilm with a microbial fluorescent probe; (c) incubating the biofilm with a stannous fluorescent probe; and (d) quantitating the labeled cells of the biofilm by measuring fluorescence light emitted from microbial fluorescent labeled cells and by measuring fluorescence light from stannous fluorescent labeled cells. (a) treating the biofilm with a stannous containing oral care product; (b) labeling microbial cells of the biofilm with a microbial fluorescent probe; (c) incubating the biofilm with a stannous fluorescent probe; and (d) quantitating the labeled cells of the biofilm by measuring fluorescence light emitted from microbial fluorescent labeled cells and by measuring fluorescence light from stannous fluorescent labeled cells.
Assembly of two elements (1, 2) and a device for the connection and linear separation of said two elements, i.e. a first element and a second element, linearly connected to one another by connecting means, and having to be securely separated, the separation taking place by warming-up of the connecting means, said warming-up being triggered remotely, the connection and separation device comprising: - the connecting means between the first and second elements; - a pyrogenic material, heat generator, placed close to the connecting means; and - means for remotely pyrotechnically triggering the pyrogenic material, characterised in that: - the pyrogenic material is placed in a tube, same placed between the first element and the second element; and - the connecting means are composed of an adhesive placed between the tube and each of the first and second elements (1, 2). - the connecting means between the first and second elements; - a pyrogenic material, heat generator, placed close to the connecting means; and - means for remotely pyrotechnically triggering the pyrogenic material, characterised in that: - the pyrogenic material is placed in a tube, same placed between the first element and the second element; and - the connecting means are composed of an adhesive placed between the tube and each of the first and second elements (1, 2).