mhurhangee/ep-ind-claims huggingface dataset:
Insulated rail joint intended to be arranged between two consecutive rails which extend along a longitudinal direction and to be sandwiched between said two rails, said joint comprising an insulated part, the insulated part comprising: - at least one portion, referred to as central portion, and - at least two ceramic layers sandwiching each central portion, characterised in that said central portion is made of a composite material with a metal matrix and ceramic reinforcements. - at least one portion, referred to as central portion, and - at least two ceramic layers sandwiching each central portion, characterised in that said central portion is made of a composite material with a metal matrix and ceramic reinforcements.
A touchpad device (148; 202), comprising: a touch sensor for detecting touch events, the touch sensor hingeably attached at a first edge to an information handling system (100; 200); characterized in that the device further comprises: three tactile switches coupled to the touch sensor to detect click events, wherein the three tactile switches are coupled to the touch sensor at a second edge opposite the first edge; wherein the three tactile switches operate in parallel to detect a click event such that activation of any tactile switch triggers the click event; and wherein the three tactile switches are equally spaced apart from one another along a line that is parallel to the first edge, wherein a first and a second tactile switch (302-2; 302-3) are arranged near opposite corners of the touchpad device and a third tactile switch is arranged centered between the first and second tactile switches, so that tactile feedback is improved due to the distribution of the force feedback among the three tactile switches. a touch sensor for detecting touch events, the touch sensor hingeably attached at a first edge to an information handling system (100; 200); characterized in that the device further comprises: three tactile switches coupled to the touch sensor to detect click events, wherein the three tactile switches are coupled to the touch sensor at a second edge opposite the first edge; wherein the three tactile switches operate in parallel to detect a click event such that activation of any tactile switch triggers the click event; and wherein the three tactile switches are equally spaced apart from one another along a line that is parallel to the first edge, wherein a first and a second tactile switch (302-2; 302-3) are arranged near opposite corners of the touchpad device and a third tactile switch is arranged centered between the first and second tactile switches, so that tactile feedback is improved due to the distribution of the force feedback among the three tactile switches. three tactile switches coupled to the touch sensor to detect click events, wherein the three tactile switches are coupled to the touch sensor at a second edge opposite the first edge; wherein the three tactile switches operate in parallel to detect a click event such that activation of any tactile switch triggers the click event; and wherein the three tactile switches are equally spaced apart from one another along a line that is parallel to the first edge, wherein a first and a second tactile switch (302-2; 302-3) are arranged near opposite corners of the touchpad device and a third tactile switch is arranged centered between the first and second tactile switches, so that tactile feedback is improved due to the distribution of the force feedback among the three tactile switches.
An automobile audio system comprising: a signal processor configured to receive and process audio signals from a source and provide processed audio signals to an amplifier, a first headrest comprising a first headrest speaker (122, 124) and coupled to a driver's seat, a first fixed speaker positioned near a left corner of the vehicle's cabin forward of the first headrest, a second fixed speaker positioned near a right corner of the vehicle's cabin forward of the first headrest, and a headrest accessory port located in a passenger's seat, the headrest accessory port configured to connect the automobile audio system to a second headrest speaker (128, 130) in a second headrest, wherein the signal processor uses a first set of processing parameters for processing the received audio signals when the first headrest speaker (122, 124) is connected to the automobile audio system and the second headrest speaker (128, 130) is not connected to the automobile audio system, and the signal processor uses a second set of processing parameters for processing the received audio signals when both the first headrest speaker (122, 124) and the second headrest speaker (128, 130) are connected to the automobile audio system. a signal processor configured to receive and process audio signals from a source and provide processed audio signals to an amplifier, a first headrest comprising a first headrest speaker (122, 124) and coupled to a driver's seat, a first fixed speaker positioned near a left corner of the vehicle's cabin forward of the first headrest, a second fixed speaker positioned near a right corner of the vehicle's cabin forward of the first headrest, and a headrest accessory port located in a passenger's seat, the headrest accessory port configured to connect the automobile audio system to a second headrest speaker (128, 130) in a second headrest,
A handling apparatus for use on a machine tool, comprising: - a base body which can be set up on a floor space, - a storage body which can be set up on the top side of said base body and is configured to store a plurality of workpieces or tools, and - a handling robot which is arranged on said base body and includes a gripper device for receiving a workpiece and/or tool from said storage body and for inserting the workpiece and/or tool received from said storage body by said gripper device into a corresponding workpiece and/or tool receptacle of said machine tool, characterized in that a plurality of first set-up elements are arranged on the bottom side of said storage body and a plurality of first centering elements are arranged on the top side of said base body, and wherein, when said storage body is set up on the top side of said base body, said first set-up elements interact in pairs in each case with said first centering elements in a self-centering manner in such a way that said storage body adopts a predetermined reference position in relation to said base body, wherein a plurality of second set-up elements are arranged on the bottom side of said base body and, when said base body is set up on said floor space and a plurality of second centering elements are arranged on said floor space, are configured to interact in pairs in each case with said second centering elements in a self-centering manner in such a way that said base body adopts a predetermined reference position in relation to the floor space and/or in relation to said machine tool set up on the floor space, wherein said handling apparatus can be connected and/or coupled to said machine tool or a control device of the machine tool via a wireless connection or cable plug connection and is configured to determine a previously stored reference position depending on the identified machine tool. - a base body which can be set up on a floor space, - a storage body which can be set up on the top side of said base body and is configured to store a plurality of workpieces or tools, and - a handling robot which is arranged on said base body and includes a gripper device for receiving a workpiece and/or tool from said storage body and for inserting the workpiece and/or tool received from said storage body by said gripper device into a corresponding workpiece and/or tool receptacle of said machine tool,
A control method for dyeing machine provided with a driven reel and a driven conveyor for circulating fabric in the dyeing machine, wherein during a dyeing process of fabric, a computer or a programmable logic controller control unit is electrically connected with a reel motor and a conveyor motor of the fabric dyeing machine, characterized in that the computer or PLC control unit is supplied with fabric length data or, alternatively, fabric weight data and fabric unit weight data, and, based on such data, performs an automatic operation of computation and supplies a signal to a speed controller of the reel motor and a speed controller of the conveyor motor to make the reel motor and the conveyor motor rotate respectively at speeds that are of a predetermined ratio with respect to each other so that the fabric is driven by the reel to move at a speed that is in synchronization with a speed of the conveyor.
An intake temperature sensor for being disposed in an intake pipe comprising, a temperature detecting element (6; 26; 38; 50) for being inserted in an opening provided in the intake pipe; an electronic circuit electrically connected to the temperature detecting element (6; 26; 38; 50); a circuit board on which the electronic circuit is mounted; a housing that houses the electronic circuit; wherein the intake temperature sensor outputs the intake temperature based on an output obtained from the temperature detecting element (6; 26; 38; 50); characterized in that the temperature detecting element (6; 26; 38; 50) is mechanically joined with a heat sink directly exposed to an intake flow flowing in the intake pipe, the heat sink being composed of the same single member as the circuit board.
A hair cosmetic comprising the following components to: a compound represented by the following general formula or a salt thereof: wherein a broken line represents the presence or absence of a π bond; R 1 represents a hydroxy group or an acetoxy group; R 2 represents a hydrogen atom or -COOR (R is a hydrogen atom, a methyl group, or an ethyl group); and R 3 represents a hydrogen atom, an acetyl group, a methyl group, or an ethyl group; a cationic polymer having a cation charge density of 0.05 meq/g or more and 3.5 meq/g or less; and an ampholytic polymer having at least one cationic structural unit selected from the group consisting of a structural unit represented by the following general formula and a structural unit represented by the following general formula, and an anionic structural unit: wherein R 4 and R 5 each independently represent a hydrogen atom, an alkyl group having 1 or more and 18 or less carbon atoms, an aryl group, a hydroxyalkyl group, an amidoalkyl group, a cyanoalkyl group, an alkoxyalkyl group, or a carboalkoxyalkyl group; R 6 and R 7 each independently represent a hydrogen atom, an alkyl group having 1 or more and 3 or less carbon atoms, or a phenyl group; and Y - represents an anion, a mass ratio of the component to the component [ /] being 0.7 or more and 10 or less. a compound represented by the following general formula or a salt thereof: wherein a broken line represents the presence or absence of a π bond; R 1 represents a hydroxy group or an acetoxy group; R 2 represents a hydrogen atom or -COOR (R is a hydrogen atom, a methyl group, or an ethyl group); and R 3 represents a hydrogen atom, an acetyl group, a methyl group, or an ethyl group; a cationic polymer having a cation charge density of 0.05 meq/g or more and 3.5 meq/g or less; and an ampholytic polymer having at least one cationic structural unit selected from the group consisting of a structural unit represented by the following general formula and a structural unit represented by the following general formula, and an anionic structural unit: wherein R 4 and R 5 each independently represent a hydrogen atom, an alkyl group having 1 or more and 18 or less carbon atoms, an aryl group, a hydroxyalkyl group, an amidoalkyl group, a cyanoalkyl group, an alkoxyalkyl group, or a carboalkoxyalkyl group; R 6 and R 7 each independently represent a hydrogen atom, an alkyl group having 1 or more and 3 or less carbon atoms, or a phenyl group; and Y - represents an anion, a mass ratio of the component to the component [ /] being 0.7 or more and 10 or less. wherein R 4 and R 5 each independently represent a hydrogen atom, an alkyl group having 1 or more and 18 or less carbon atoms, an aryl group, a hydroxyalkyl group, an amidoalkyl group, a cyanoalkyl group, an alkoxyalkyl group, or a carboalkoxyalkyl group; R 6 and R 7 each independently represent a hydrogen atom, an alkyl group having 1 or more and 3 or less carbon atoms, or a phenyl group; and Y - represents an anion, a mass ratio of the component to the component [ /] being 0.7 or more and 10 or less.
A control circuit (10, 10a) comprising: a transistor controller that is configured to control a voltage at a gate terminal of a field effect transistor in accordance with a difference in voltage between a source terminal and a drain terminal of the field effect transistor connected so that a body diode is in a forward direction; and a current controller (12, 12a) that is configured to reduce an operating current for operating the transistor controller when a load connected via the source terminal of the field effect transistor is light, and is configured to increase the operating current when the load is heavy, characterised in that the current controller (12, 12a) comprises: a VGS detection circuit (122, 126) that is configured to detect the voltage at the gate terminal of the field effect transistor, and is configured to determine whether the load is light or heavy, based on the voltage at the gate terminal of the field effect transistor. a transistor controller that is configured to control a voltage at a gate terminal of a field effect transistor in accordance with a difference in voltage between a source terminal and a drain terminal of the field effect transistor connected so that a body diode is in a forward direction; and a current controller (12, 12a) that is configured to reduce an operating current for operating the transistor controller when a load connected via the source terminal of the field effect transistor is light, and is configured to increase the operating current when the load is heavy, characterised in that the current controller (12, 12a) comprises: a VGS detection circuit (122, 126) that is configured to detect the voltage at the gate terminal of the field effect transistor, and is configured to determine whether the load is light or heavy, based on the voltage at the gate terminal of the field effect transistor.
A composition comprising an acute phase protein which is a SAA-3 protein, for use to improve udder inflammation of a non-human mammal by improving mammary gland involution.
A hard coat laminated film comprising a first hard coat, a second hard coat and a transparent resin film layer in order from an outermost surface layer side, wherein the first hard coat is formed of a coating material containing 100 parts by mass of a polyfunctional (meth)acrylate; 0.01 to 7 parts by mass of a water repellant; and 0.01 to 10 parts by mass of a silane coupling agent and containing no inorganic particles; and the second hard coat is formed of a coating material containing 100 parts by mass of a polyfunctional (meth)acrylate; and 50 to 300 parts by mass of inorganic fine particles having an average particle size of 1 to 300 nm. the first hard coat is formed of a coating material containing 100 parts by mass of a polyfunctional (meth)acrylate; 0.01 to 7 parts by mass of a water repellant; and 0.01 to 10 parts by mass of a silane coupling agent and containing no inorganic particles; and 100 parts by mass of a polyfunctional (meth)acrylate; 0.01 to 7 parts by mass of a water repellant; and 0.01 to 10 parts by mass of a silane coupling agent and containing no inorganic particles; and the second hard coat is formed of a coating material containing 100 parts by mass of a polyfunctional (meth)acrylate; and 50 to 300 parts by mass of inorganic fine particles having an average particle size of 1 to 300 nm. 100 parts by mass of a polyfunctional (meth)acrylate; and 50 to 300 parts by mass of inorganic fine particles having an average particle size of 1 to 300 nm.
An optical fiber length measurement method, wherein the method is used to measure an optical fiber length between a first device and a second device, the first device and the second device are directly connected by using an optical fiber, and the method comprises: acquiring (101, 401), by a measurement device, timestamp parameters, wherein: the timestamp parameters comprise a first transmit timestamp T a1, a first receive timestamp T a2, a second transmit timestamp T b1, and a second receive timestamp T b2; the first transmit timestamp T a1 is a transmit timestamp at which the first device sends a first measurement packet to the second device, the second transmit timestamp T b1 is a transmit timestamp at which the second device sends a second measurement packet to the first device, the first receive timestamp T a2 is a receive timestamp at which the second device receives the first measurement packet after sending the second measurement packet, and the second receive timestamp T b2 is a receive timestamp at which the first device receives the second measurement packet after sending the first measurement packet; and an interval T at which the first device sends the first measurement packet is the same as an interval T at which the second device sends the second measurement packet; and determining (102, 402), by the measurement device, the optical fiber length L according to the timestamp parameters, wherein when (T a2 -T b1)+(T b2 -T a1)≤T, L=2.5 m/ns *[(T a2 -T b1)+(T b2 -T a1)], or when (T a2 -T b1)+(T b2 -T a1)>T, L=2.5 m/ns *[(T a2 -T b1)+(T b2 -T a1)-T]. acquiring (101, 401), by a measurement device, timestamp parameters, wherein: the timestamp parameters comprise a first transmit timestamp T a1, a first receive timestamp T a2, a second transmit timestamp T b1, and a second receive timestamp T b2; the first transmit timestamp T a1 is a transmit timestamp at which the first device sends a first measurement packet to the second device, the second transmit timestamp T b1 is a transmit timestamp at which the second device sends a second measurement packet to the first device, the first receive timestamp T a2 is a receive timestamp at which the second device receives the first measurement packet after sending the second measurement packet, and the second receive timestamp T b2 is a receive timestamp at which the first device receives the second measurement packet after sending the first measurement packet; and an interval T at which the first device sends the first measurement packet is the same as an interval T at which the second device sends the second measurement packet; and determining (102, 402), by the measurement device, the optical fiber length L according to the timestamp parameters, wherein when (T a2 -T b1)+(T b2 -T a1)≤T, L=2.5 m/ns *[(T a2 -T b1)+(T b2 -T a1)], or when (T a2 -T b1)+(T b2 -T a1)>T, L=2.5 m/ns *[(T a2 -T b1)+(T b2 -T a1)-T].
Method for operating a navigation device comprising a map data base which comprises map data assigned to a first plurality of road segments in which the roads of a region are divided wherein the map data comprise identification attributes so that to each of the road segments of the first plurality of road segments one of the identification attributes is assigned, a speed data base which comprises speed data assigned to a second plurality of road segments in which the roads of the region are divided wherein the speed data comprise speed information items so that to each of the road segments of the second plurality of road segments one of the speed information items is assigned, and a reference data base, wherein the method comprises the following steps: determining a position of the navigation device, defining a selection area disposed in the region considering the position, selecting an initial road segment from those road segments of the first plurality of road segments which are disposed in the selection area, selecting a reference road segment (303a, 303b) disposed on the initial road segment from the second plurality of road segments, and storing the identification attribute of the initial road segment and the speed information item of the reference road segment (303a, 303b) in the reference data base so that the identification attribute of the initial road segment is linked with the speed information item of the reference road segment (303a, 303b). determining a position of the navigation device, defining a selection area disposed in the region considering the position, selecting an initial road segment from those road segments of the first plurality of road segments which are disposed in the selection area, selecting a reference road segment (303a, 303b) disposed on the initial road segment from the second plurality of road segments, and storing the identification attribute of the initial road segment and the speed information item of the reference road segment (303a, 303b) in the reference data base so that the identification attribute of the initial road segment is linked with the speed information item of the reference road segment (303a, 303b).
A method of calibrating an ion trap mass analyzer having a plurality of electrodes (141,142,143; 220, 230) to which a main RF trapping voltage and a resonant ejection voltage are applied during operation of the ion trap mass analyzer, the method comprising the steps of: (a) selecting an analytical scan rate at which to operate the mass analyzer; (b) identifying, for each of a plurality of ion types produced from at least one calibrant material and having respective mass-to-charge ratios, an optimum resonant ejection voltage amplitude at which a mass peak quality value is optimized when the ion trap mass analyzer is operated at the selected scan rate, the mass peak quality value representative of one or more mass peak characteristics observed during operation of the ion trap mass analyzer; characterized by the further steps of: (c) determining a best-fit function from the identified optimum resonant ejection voltage amplitudes and the mass-to-charge ratios, the best-fit function of the form V reseject = m c ( a r + b r m), where V reseject is a variable representing resonant ejection voltage amplitude, m is a variable representing mass-to-charge ratio and a r, b r and c are constants determined by a fitting procedure, such that 0.40≤ c ≤0.60; and (d) storing information representing the best-fit function derived in step (c). (a) selecting an analytical scan rate at which to operate the mass analyzer; (b) identifying, for each of a plurality of ion types produced from at least one calibrant material and having respective mass-to-charge ratios, an optimum resonant ejection voltage amplitude at which a mass peak quality value is optimized when the ion trap mass analyzer is operated at the selected scan rate, the mass peak quality value representative of one or more mass peak characteristics observed during operation of the ion trap mass analyzer; (c) determining a best-fit function from the identified optimum resonant ejection voltage amplitudes and the mass-to-charge ratios, the best-fit function of the form V reseject = m c ( a r + b r m), where V reseject is a variable representing resonant ejection voltage amplitude, m is a variable representing mass-to-charge ratio and a r, b r and c are constants determined by a fitting procedure, such that 0.40≤ c ≤0.60; and (d) storing information representing the best-fit function derived in step (c).