mhurhangee/ep-ind-claims huggingface dataset:
A hybrid vehicle control device comprising: an engine; a motor; a first clutch disposed between the engine and the motor; a second clutch disposed between the motor and a drive wheel; and an engine start control means (S510-S519) configured to begin an engine start control when a mode transition request to change to a hybrid vehicle mode occurs while an electric vehicle mode in which the first clutch is opened is selected, the engine start control means (S510-S519) executing a control to transition the second clutch to a slip engagement, beginning engagement of the first clutch when slippage of the second clutch is determined, and starting the engine using the motor as a starter motor, wherein the engine start control means (S510-S519) has a second clutch slip transition control section (S512-S515) configured to control the transition of the second clutch to the slip engagement when the engine start control is begun based on a mode transition request resulting from an accelerator depression operation, by increasing the torque transmission capacity of the second clutch according to a prescribed slope after dropping the torque transmission capacity of the second clutch to a value smaller than a target drive force, characterized in that the second clutch slip transition control section (S512-S515) is configured to make an increase rate of a motor torque outputted from the motor larger than an increase rate of the target drive force when it begins increasing the torque transmission capacity of the second clutch according to the prescribed slope. an engine; a motor; a first clutch disposed between the engine and the motor; a second clutch disposed between the motor and a drive wheel; and an engine start control means (S510-S519) configured to begin an engine start control when a mode transition request to change to a hybrid vehicle mode occurs while an electric vehicle mode in which the first clutch is opened is selected, the engine start control means (S510-S519) executing a control to transition the second clutch to a slip engagement, beginning engagement of the first clutch when slippage of the second clutch is determined, and starting the engine using the motor as a starter motor, wherein the engine start control means (S510-S519) has a second clutch slip transition control section (S512-S515) configured to control the transition of the second clutch to the slip engagement when the engine start control is begun based on a mode transition request resulting from an accelerator depression operation, by increasing the torque transmission capacity of the second clutch according to a prescribed slope after dropping the torque transmission capacity of the second clutch to a value smaller than a target drive force, characterized in that the second clutch slip transition control section (S512-S515) is configured to make an increase rate of a motor torque outputted from the motor larger than an increase rate of the target drive force when it begins increasing the torque transmission capacity of the second clutch according to the prescribed slope.
Modular structure of apparatus for treating fluids with ultrasound, of the type comprising at least one tubular element defining a duct for a fluid being treated, fixed integrally to said at least one tubular element, at least one supporting body for a plurality of generators of ultrasonic vibrations (17, 18) for the vibration of said at least one tubular element being present, the latter being connected to said supporting body so as to allow the transmission of the vibrations for the generation of ultrasonic cavitation in the fluid being treated, said structure of apparatus being characterised in that it comprises at least two tubular elements (11, 12), parallel and set side by side, and fixed to at least a same supporting body, each segment of tubular element fixed to a corresponding supporting body being surrounded by at least two generators of ultrasonic vibrations (17, 18).
A discharge circuit integrated in a chip of a slave device connected to an output of a bus rectifier bridge, characterized in that the discharge circuit comprises: a comparator; a peripheral unit; a slave device voltage stabilizing module configured to maintain stability of an internal voltage of the slave device; a slave device signal processing module configured to process a signal of the slave device; a slave device bus communication module configured to implement bus communication of the slave device; a digital control module configured to generate, when an output result of the comparator is that a bus voltage falls, a high-level and time-configurable pulse width to drive the discharge circuit to discharge a bus, a discharge current source module configured to enable the discharge of the bus by means of the digital control module, and adjust a discharge current; the comparator configured to obtain a status of a change in the bus voltage; and the peripheral circuit configured to monitor the change in the bus voltage, provide to the comparator a voltage signal which reflects information on a fall of the bus voltage, and generate a comparison reference voltage, and the slave device voltage stabilizing module, the slave device signal processing module, the slave device bus communication module, the digital control module, the discharge current source module, the comparator and the peripheral circuit are connected to each other. a comparator; a peripheral unit; a slave device voltage stabilizing module configured to maintain stability of an internal voltage of the slave device; a slave device signal processing module configured to process a signal of the slave device; a slave device bus communication module configured to implement bus communication of the slave device; a digital control module configured to generate, when an output result of the comparator is that a bus voltage falls, a high-level and time-configurable pulse width to drive the discharge circuit to discharge a bus, a discharge current source module configured to enable the discharge of the bus by means of the digital control module, and adjust a discharge current; the comparator configured to obtain a status of a change in the bus voltage; and the peripheral circuit configured to monitor the change in the bus voltage, provide to the comparator a voltage signal which reflects information on a fall of the bus voltage, and generate a comparison reference voltage, and the slave device voltage stabilizing module, the slave device signal processing module, the slave device bus communication module, the digital control module, the discharge current source module, the comparator and the peripheral circuit are connected to each other.
An adhesive composition comprising: a block copolymer component present in amount of from 30% to 60% by weight relative to the overall weight of the composition, the block copolymer component comprising a midblock segment and a plurality of end block segments, each end block segment comprising polystyrene; a (meth)acrylic functional additive having a glass transition temperature of from 50°C to 160°C; a first tackifier compatible with the midblock segment and comprising a hydrocarbon; and a second tackifier compatible with the end block segments and comprising a polyphenylene ether. a block copolymer component present in amount of from 30% to 60% by weight relative to the overall weight of the composition, the block copolymer component comprising a midblock segment and a plurality of end block segments, each end block segment comprising polystyrene; a (meth)acrylic functional additive having a glass transition temperature of from 50°C to 160°C; a first tackifier compatible with the midblock segment and comprising a hydrocarbon; and a second tackifier compatible with the end block segments and comprising a polyphenylene ether.
A touch-control structure for a flexible display device, comprising: a flexible display panel having a visible surface; at least one menu display area being located on one side of the visible surface, wherein each menu display area presents one function; a touch film having a first flexible substrate and an operating contact surface, wherein the visible surface and the operating contact surface are disposed on two opposite ends of the touch structure respectively; and at least one sensing element being disposed on one side of the first flexible substrate corresponding to the at least one menu display area; wherein a clamping force, which is applied to the menu display area on one side of the visible surface and to the sensing element on the operating contact surface of the flexible display, causes the sensing element to generate a touching signal for performing the corresponding function, characterized in that the at least one sensing element is a force sensor or a force sensing resistor. a flexible display panel having a visible surface; at least one menu display area being located on one side of the visible surface, wherein each menu display area presents one function; a touch film having a first flexible substrate and an operating contact surface, wherein the visible surface and the operating contact surface are disposed on two opposite ends of the touch structure respectively; and at least one sensing element being disposed on one side of the first flexible substrate corresponding to the at least one menu display area; wherein a clamping force, which is applied to the menu display area on one side of the visible surface and to the sensing element on the operating contact surface of the flexible display, causes the sensing element to generate a touching signal for performing the corresponding function, characterized in that the at least one sensing element is a force sensor or a force sensing resistor.
A process for measuring strain in a crystalline material comprising: placing a sample of the material into a transmission electron microscope as a specimen; and energizing the transmission electron microscope to create an electron beam with an incident angle to the material; and generating electrical beam deflection coil control signals that control a plurality of beam deflection coils of the transmission electron microscope so as to control the angle and position of the electron beam incident on the sample, thereby generating incident beam tilts according to a cyclic tilt protocol; and generating electrical image deflection coil control signals that control a plurality of image deflection coils of the transmission electron microscope; viewing a first diffraction pattern from the material with dynamical diffraction effects; adjusting at least one of the beam deflection coil control signals to reduce the dynamical diffraction effects; adjusting at least one of the image deflection coil control signals to stop the motion of the diffraction pattern induced by the beam deflection coil control signals; collecting after the last adjusting step a second diffraction pattern from an area of the material with known strain; and collecting a third diffraction pattern from an area of the material with unknown strain. placing a sample of the material into a transmission electron microscope as a specimen; and energizing the transmission electron microscope to create an electron beam with an incident angle to the material; and generating electrical beam deflection coil control signals that control a plurality of beam deflection coils of the transmission electron microscope so as to control the angle and position of the electron beam incident on the sample, thereby generating incident beam tilts according to a cyclic tilt protocol; and generating electrical image deflection coil control signals that control a plurality of image deflection coils of the transmission electron microscope; viewing a first diffraction pattern from the material with dynamical diffraction effects; adjusting at least one of the beam deflection coil control signals to reduce the dynamical diffraction effects; adjusting at least one of the image deflection coil control signals to stop the motion of the diffraction pattern induced by the beam deflection coil control signals; collecting after the last adjusting step a second diffraction pattern from an area of the material with known strain; and collecting a third diffraction pattern from an area of the material with unknown strain.
A mobile communication device (16, 18) comprising a testing module for testing purposes and a communication module for wireless communication, wherein the testing module is configured to simulate a communication partner for a device under test (12, 14), wherein the testing module is configured to send and/or receive test signals, wherein the testing module is configured to test at least a physical layer, wherein the mobile communication device (16. 18) is configured to test other mobile communication devices (16, 18) being established as the device under test (12, 14) and that the mobile communication device (16, 18) is configured to test itself as the device under test (12, 14).
A speaker comprising: a speaker unit configured to generate sound and provided with a vibration part; and a lighting apparatus having a light emitting part disposed at a center of the vibration part and arranged to emit light on to the vibration part wherein the lighting apparatus comprises: a lighting module having a light emitting device; and a lighting diffusion part configured to surround the lighting module to diffuse light generated from the light module toward the vibration part. wherein the lighting diffusion part is curved around the lighting module to allow light generated from the lighting module to reach the vibration part through dispersion. a speaker unit configured to generate sound and provided with a vibration part; and a lighting apparatus having a light emitting part disposed at a center of the vibration part and arranged to emit light on to the vibration part wherein the lighting apparatus comprises: a lighting module having a light emitting device; and a lighting diffusion part configured to surround the lighting module to diffuse light generated from the light module toward the vibration part. a lighting module having a light emitting device; and a lighting diffusion part configured to surround the lighting module to diffuse light generated from the light module toward the vibration part. wherein the lighting diffusion part is curved around the lighting module to allow light generated from the lighting module to reach the vibration part through dispersion.
A method of conditioning a well bore featuring an annulus between a bore-lining tubing and a surrounding bore wall, the method comprising: providing an inner tubing within the bore-lining tubing; providing a first flow port for providing fluid communication between the inner tubing and the annulus; providing a second flow port axially spaced from the first flow port, and a third flow port (12b, 12c) axially spaced from the first flow port and the second flow port, the second and third flow ports (12a, 12b, 12c) for providing fluid communication between the inner tubing and a volume between the inner tubing and the bore-lining tubing; delivering a settable material to the annulus via the inner tubing and the first flow port to at least partially fill the annulus with settable material; closing the first flow port; opening one of the second and third flow ports (12a, 12b, 12c), and pumping conditioning fluid through the inner tubing and one of the second and third flow ports (12a, 12b, 12c) and into the volume between the inner tubing and the bore-lining tubing, at least one feature of the conditioning fluid being controlled to affect the temperature of the portion of the well bore containing the bore-lining tubing in a predetermined manner, whereby the affected temperature of the portion of the well bore containing the bore-lining tubing influences the setting rate of the settable material, or influences the dimensions of the bore-lining tubing.
Tool for opening and closing a transducer housing having two housing parts, a base body and a lid, that are coupleable with each other via a rotational coupling, wherein the tool comprises: - a base portion forming a bowl for receiving the transducer housing and preventing a rotation of the base body of the transducer housing relative to the base portion of the tool around an axial direction of the tool; and - an upper portion that is separate from the base portion and may be attached to the base portion, wherein a movement of the upper portion relative to the base portion in a radial direction, which is perpendicular to the axial direction, is mechanically prevented when the upper portion is attached to the base portion; wherein the base portion comprises a first engagement member and wherein the upper portion comprises a second engagement member which engages with the first engagement member when the upper portion is attached to the base portion, wherein the upper portion further comprises a driving pin having a driving area for contacting a corresponding contact area of the lid of the transducer housing for causing the lid of the transducer housing to move relative to the base body of the transducer housing in order to open or close the rotational coupling upon a rotational movement of the upper portion relative to the base portion around the axial direction; and wherein an engagement of the second engagement member with the first engagement member prevents a movement of the upper portion and the driving pin relative to the base portion along the axial direction during a contact between the driving area of the driving pin and the contact area of the lid of the transducer housing. - a base portion forming a bowl for receiving the transducer housing and preventing a rotation of the base body of the transducer housing relative to the base portion of the tool around an axial direction of the tool; and - an upper portion that is separate from the base portion and may be attached to the base portion, wherein a movement of the upper portion relative to the base portion in a radial direction, which is perpendicular to the axial direction, is mechanically prevented when the upper portion is attached to the base portion;
A poly(2-oxazoline-co-ethyleneimine)-epichlorohydrin copolymer, comprising: N-acyl-iminoethylene monomeric units in an amount designated as M1 of from 2% to 95% by mole, wherein the N-acyl-iminoethylene monomeric units have a formula of in which R 1 is (a) a monovalent radical R 1a which is hydrogen, methyl, ethyl, propyl, isopropyl, N-pyrrolidonyl-C 1 -C 4 alkyl, or a monovalent radical of -alk-(OC 2 H 4) m3 -OR in which alk is C 1 -C 6 alkyl diradical, R" is C 1 -C 4 alkyl, and m3 is an integer from 1 to 10, or (b) a monovalent radical R 1b which is C 4 -C 18 alkyl, C 1 -C 4 alkyl-substituted phenyl, C 1 -C 4 -alkoxy-substituted phenyl, or C 6 -C 18 aryl radical; azetidinium monomeric units in an amount designated as M2 of from 0.5% to 95% by mole, wherein the azetidinium monomeric units have a formula of ethyleneimine monomeric units in an amount designated as M3 of from 0 to 60% by mole, wherein the ethyleneimine monomeric units have a formula of *-NH-CH 2 -CH 2 -'; and crosslink units in an amount designated as M4 of from 0 to 5% by mole, wherein the crosslink units have a formula of provided that (M1+M2+M3+M4) is 100%. N-acyl-iminoethylene monomeric units in an amount designated as M1 of from 2% to 95% by mole, wherein the N-acyl-iminoethylene monomeric units have a formula of in which R 1 is (a) a monovalent radical R 1a which is hydrogen, methyl, ethyl, propyl, isopropyl, N-pyrrolidonyl-C 1 -C 4 alkyl, or a monovalent radical of -alk-(OC 2 H 4) m3 -OR in which alk is C 1 -C 6 alkyl diradical, R" is C 1 -C 4 alkyl, and m3 is an integer from 1 to 10, or (b) a monovalent radical R 1b which is C 4 -C 18 alkyl, C 1 -C 4 alkyl-substituted phenyl, C 1 -C 4 -alkoxy-substituted phenyl, or C 6 -C 18 aryl radical; (a) a monovalent radical R 1a which is hydrogen, methyl, ethyl, propyl, isopropyl, N-pyrrolidonyl-C 1 -C 4 alkyl, or a monovalent radical of -alk-(OC 2 H 4) m3 -OR in which alk is C 1 -C 6 alkyl diradical, R" is C 1 -C 4 alkyl, and m3 is an integer from 1 to 10, or (b) a monovalent radical R 1b which is C 4 -C 18 alkyl, C 1 -C 4 alkyl-substituted phenyl, C 1 -C 4 -alkoxy-substituted phenyl, or C 6 -C 18 aryl radical; azetidinium monomeric units in an amount designated as M2 of from 0.5% to 95% by mole, wherein the azetidinium monomeric units have a formula of ethyleneimine monomeric units in an amount designated as M3 of from 0 to 60% by mole, wherein the ethyleneimine monomeric units have a formula of *-NH-CH 2 -CH 2 -'; and crosslink units in an amount designated as M4 of from 0 to 5% by mole, wherein the crosslink units have a formula of provided that (M1+M2+M3+M4) is 100%.
A separation matrix for purification of biomacromolecules, comprising a plurality of particles having a core region and a shell region, wherein: the core region and the shell region both comprise a porous support material, and said core region comprises a vinyl amide polymer grafted to the support material, said vinyl amide polymer comprising residues of at least one polymerizable vinyl amide monomer, whereby said shell region is accessible to a target biomacromolecule and said core region is less accessible to said target biomacromolecule than said shell region as determined by confocal microscopy as described in Example 3 or by inverse size exclusion chromatography as described in Example 4.
A thermal coating method for applying a functional layer forming a running-surface coating to a cylinder running surface of a crankcase of an internal combustion engine, having the following steps: - melting coating material by means of a melting device, - applying coating material droplets to the cylinder running surface by means of a gas jet directed onto the cylinder running surface, which blows coating material droplets from a melting location of the melting device onto the cylinder running surface, wherein the coating material droplets are cooled during their transport from the melting location to the cylinder running surface, characterised in that the coating material droplets are cooled so greatly during their transport from the melting location to the cylinder running surface that they shock-freeze, such that upon striking the cylinder running surface they are at least pre-solidified or solidified, wherein a cooling atmosphere surrounding the coating material droplets is generated in the region between the melting location and the cylinder running surface, wherein the cooling atmosphere is generated in that the coating takes place in a refrigerating chamber which has a temperature in the range between -40°C and +5°C. - melting coating material by means of a melting device, - applying coating material droplets to the cylinder running surface by means of a gas jet directed onto the cylinder running surface, which blows coating material droplets from a melting location of the melting device onto the cylinder running surface,