mhurhangee/ep-ind-claims huggingface dataset:
A label-free method of analyzing a sample with a single light probe with a spatial resolution smaller than the wavelength of the light probe comprising the steps of: - illuminating the sample using a single light source by a first light pulse saturating a vibrational and/or electronic transition, said light pulse presenting an intensity spatial distribution on the sample presenting at least one minimum wherein saturation does not occur, - measuring the local absorbance properties and/or the local second order non-linear susceptibility of the sample by using a second light pulse forming the light probe at a wavelength corresponding to said electronic and/or vibrational transition, wherein the second light pulse overlap said first light pulse intensity minimum and the second light pulse have a wavelength equal to the wavelength of the first light pulse. - illuminating the sample using a single light source by a first light pulse saturating a vibrational and/or electronic transition, said light pulse presenting an intensity spatial distribution on the sample presenting at least one minimum wherein saturation does not occur, - measuring the local absorbance properties and/or the local second order non-linear susceptibility of the sample by using a second light pulse forming the light probe at a wavelength corresponding to said electronic and/or vibrational transition, wherein the second light pulse overlap said first light pulse intensity minimum and the second light pulse have a wavelength equal to the wavelength of the first light pulse.
A method for producing a coated substrate comprising: - pre-treating a substrate for surface coating by subjecting the substrate to metal ions and noble gas ions selected from the group of argon-ions, krypton-ions, neon-ions, xenon-ions and helium-ions in a vacuum chamber and applying a negative electrical potential (P1, P2) on the substrate, wherein the substrate is pretreated in at least two steps (1000, 2000), wherein the steps are performed subsequently in the vacuum chamber, wherein the first step comprises: - providing a plasma comprising predominantly noble gas ions selected from the group of argon-ions, krypton-ions, neon-ions, xenon-ions and helium-ions in the vacuum chamber, and - applying a first negative electrical potential on the substrate and wherein the second step comprises: - providing a plasma comprising predominantly metal ions in the vacuum chamber, the metal ions are metal ions or mixture of metal ions selected from the group 4, 5 or 6 of the periodic table of elements, and - applying a second negative electrical potential on the substrate, wherein the first electrical potential is lower than the second electrical potential, and wherein the magnitude of the first negative potential is 100 - 500 V, the magnitude of the second electrical potential is selected such that metal ions are introduced into the surface of the substrate, the magnitude of the second negative potential is 300 - 3000 V, and - depositing a coating on the pre-treated substrate. - pre-treating a substrate for surface coating by subjecting the substrate to metal ions and noble gas ions selected from the group of argon-ions, krypton-ions, neon-ions, xenon-ions and helium-ions in a vacuum chamber and applying a negative electrical potential (P1, P2) on the substrate, wherein the substrate is pretreated in at least two steps (1000, 2000), wherein the steps are performed subsequently in the vacuum chamber, wherein the first step comprises: - providing a plasma comprising predominantly noble gas ions selected from the group of argon-ions, krypton-ions, neon-ions, xenon-ions and helium-ions in the vacuum chamber, and - applying a first negative electrical potential on the substrate and wherein the second step comprises: - providing a plasma comprising predominantly metal ions in the vacuum chamber, the metal ions are metal ions or mixture of metal ions selected from the group 4, 5 or 6 of the periodic table of elements, and - applying a second negative electrical potential on the substrate, wherein the first electrical potential is lower than the second electrical potential, and wherein the magnitude of the first negative potential is 100 - 500 V, the magnitude of the second electrical potential is selected such that metal ions are introduced into the surface of the substrate, the magnitude of the second negative potential is 300 - 3000 V, and - depositing a coating on the pre-treated substrate.
A process of preparing a hydrogel product comprising a cross-linked network of chondroitin molecules, comprising the steps of: (a) providing chondroitin molecules selected from the group consisting of chondroitin and chondroitin sulfate; (b) activating the carboxyl groups on the chondroitin molecules with a triazine-based coupling reagent to form an activated, cross-linked chondroitin essentially without any N-acylurea groups; (c) cross-linking the activated chondroitin molecules to each other via their carboxyl groups using a cross-linking agent, wherein the crosslinking agent is hexamethylenediamine (HMDA). (a) providing chondroitin molecules selected from the group consisting of chondroitin and chondroitin sulfate; (b) activating the carboxyl groups on the chondroitin molecules with a triazine-based coupling reagent to form an activated, cross-linked chondroitin essentially without any N-acylurea groups; (c) cross-linking the activated chondroitin molecules to each other via their carboxyl groups using a cross-linking agent, wherein the crosslinking agent is hexamethylenediamine (HMDA).
A joint-cleaning device, which has a handle (11; 51; 101), at least one narrow brush strip with brushes, and a retaining strip, which is integrally formed with the handle and has fastening eyelets for a single elongate brush or for a plurality of individual brush bundles situated next to each other, wherein the width of the brushes perpendicularly to the longitudinal direction of the brush strip is less than or equal to the width of the joints to be worked on, and the brushes are produced from plastic.
A turbine system comprising: a fuel line; a pump for pressurizing and pushing fuel through the fuel line; a shut-off valve; and an apparatus for reducing transient pressure spikes in the fuel line of the turbine system, wherein the apparatus comprises: a body forming a first chamber and a second chamber, the first chamber coupled to the fuel line upstream of the shut-off valve, the second chamber coupled to the fuel line downstream of the shut-off valve; a biasing member within the body; and a moveable separation member within the body, the moveable separation member forcibly biased toward the first chamber by the biasing member and separating the first and second chambers (42, 43) when the shut-off valve is open, the moveable separation member adapted to expand the first chamber and compress the biasing member when the shut-off valve is closed, wherein the first chamber is able to absorb the fuel at a rate faster than the pump is able to output the fuel. a fuel line; a pump for pressurizing and pushing fuel through the fuel line; a shut-off valve; and an apparatus for reducing transient pressure spikes in the fuel line of the turbine system, a body forming a first chamber and a second chamber, the first chamber coupled to the fuel line upstream of the shut-off valve, the second chamber coupled to the fuel line downstream of the shut-off valve; a biasing member within the body; and a moveable separation member within the body, the moveable separation member forcibly biased toward the first chamber by the biasing member and separating the first and second chambers (42, 43) when the shut-off valve is open, the moveable separation member adapted to expand the first chamber and compress the biasing member when the shut-off valve is closed, wherein the first chamber is able to absorb the fuel at a rate faster than the pump is able to output the fuel.
A twin screw extruder which has a first screw and a second screw that hold resin material therebetween and rotate, and which has a cylinder in which said first screw and said second screw are located, said first screw and said second screw each having a small diameter portion (17a, 17b) having a diameter smaller than that of a flight tip (11a, 12a), an axial position of said small diameter portion of said first screw being the same as that of said second screw, said twin screw extruder comprising: a screw supporting portion which has a supporting surface (46a, 46b) that supports said small diameter portions (17a, 17b) of said first screw and said second screw, and which has a flow path through which the resin material, which is transported by said first screw and said second screws, passes, wherein in the radial direction of said first screw and said second screw, a clearance which is formed between said small diameter portion (17a, 17b) and said supporting surface (46a, 46b), is equal to or less than a clearance which is formed between said flight tip (11a, 12a) and an inner surface of said cylinder, characterized in that said supporting surface (46a, 46b) of said screw supporting portion (15a, 15b) has a first supporting surface that supports said small diameter portion of said first screw and a second supporting surface that supports said small diameter portion of said second screw, and in that said first supporting surface and said second supporting surface are formed symmetrically with respect to a vertical plane and are formed with an angle of a 120 degree angle composed of two equally inclined surfaces through a horizontal plane that is sandwiched between the two equally inclined surfaces. a screw supporting portion which has a supporting surface (46a, 46b) that supports said small diameter portions (17a, 17b) of said first screw and said second screw, and which has a flow path through which the resin material, which is transported by said first screw and said second screws, passes, wherein in the radial direction of said first screw and said second screw, a clearance which is formed between said small diameter portion (17a, 17b) and said supporting surface (46a, 46b), is equal to or less than a clearance which is formed between said flight tip (11a, 12a) and an inner surface of said cylinder, characterized in that said supporting surface (46a, 46b) of said screw supporting portion (15a, 15b) has a first supporting surface that supports said small diameter portion of said first screw and a second supporting surface that supports said small diameter portion of said second screw, and in that said first supporting surface and said second supporting surface are formed symmetrically with respect to a vertical plane and are formed with an angle of a 120 degree angle composed of two equally inclined surfaces through a horizontal plane that is sandwiched between the two equally inclined surfaces.
Nacelle for a dual flow jet engine having a secondary jet, said nacelle having a window that is open between the secondary jet and the outside of the nacelle and comprising: - a fan casing, - a fixed structure fixed to the fan casing, and - a thrust-reversing system having a frame and outer doors articulated by a rear edge on the frame, the frame being translationally mobile on the fixed structure in a direction of translation between an advanced position in which the frame is positioned so that the outer doors are close to the fan casing and a retracted position in which the frame is positioned so that the outer doors are away from the fan casing, each outer door being mobile between a stowed position in which it blocks the window and a deployed position in which it does not block the window, the nacelle being characterized in that, for each outer door, it comprises at least one anti-vibration system of the outer doors which comprises: - a chock fixed to one of the fixed structure or the outer door and having a hole whose axis is parallel to the direction of translation, - a finger whose axis is parallel to the direction of translation and which is fixed to the other of the outer door or the fixed structure, and in that the finger and the hole are configured so that the finger lodges in the hole when the frame is in advanced position, so that the finger exits from the hole when the frame leaves the advanced position, and so that the finger enters into the hole when the frame goes back to the advanced position from the retracted position. - a fan casing, - a fixed structure fixed to the fan casing, and - a thrust-reversing system having a frame and outer doors articulated by a rear edge on the frame, - a chock fixed to one of the fixed structure or the outer door and having a hole whose axis is parallel to the direction of translation, - a finger whose axis is parallel to the direction of translation and which is fixed to the other of the outer door or the fixed structure,
A method at a relay packet gateway, comprising: establishing a plurality of communication tunnels between the relay packet gateway and a donor evolved Node B, eNB, each related to one of a plurality of radio bearers between the donor eNB and a relay eNB; associating each of the plurality of communication tunnels with a service data flow; receiving a packet related to a wireless device including a plurality of protocol headers; selecting a tunnel from the plurality of communication tunnels for transmitting the packet to the donor eNB based on one or more parameters of at least one of the plurality of protocol headers, wherein the selecting the tunnel from the plurality of communication tunnels includes determining an SDF for the packet according to an SDF filter, wherein the SDF filter is used for determining a QoS for the packet received, based at least in part on the one or more parameters of the at least one of the plurality of protocol headers, and the selected tunnel corresponds to the determined SDF, wherein the at least one of the plurality of protocol headers is an inner-most internet protocol, IP, header in the packet. establishing a plurality of communication tunnels between the relay packet gateway and a donor evolved Node B, eNB, each related to one of a plurality of radio bearers between the donor eNB and a relay eNB; associating each of the plurality of communication tunnels with a service data flow; receiving a packet related to a wireless device including a plurality of protocol headers; selecting a tunnel from the plurality of communication tunnels for transmitting the packet to the donor eNB based on one or more parameters of at least one of the plurality of protocol headers, wherein the selecting the tunnel from the plurality of communication tunnels includes determining an SDF for the packet according to an SDF filter, wherein the SDF filter is used for determining a QoS for the packet received, based at least in part on the one or more parameters of the at least one of the plurality of protocol headers, and the selected tunnel corresponds to the determined SDF, wherein the at least one of the plurality of protocol headers is an inner-most internet protocol, IP, header in the packet.
A method for controlling an electronic device, the method comprising: periodically activating the electronic device from a low power mode into a proximity area connectivity mode, while in the proximity area connectivity mode performing the acts of: controlling proximity area connectivity of the electronic device with one or more proximity area electronic devices; upon successful establishment of proximity area connections of the electronic device with a predetermined success set of the one or more proximity area electronic devices, returning the electronic device to the low power mode; upon unsuccessful establishment of proximity area connections of the electronic device with the predetermined success set of the one or more proximity area electronic devices, transferring the electronic device from the proximity area connectivity mode into a wide area connectivity mode, while in the wide area connectivity mode, connecting, via a wide area connection, the electronic device to at least one wide area electronic device. controlling proximity area connectivity of the electronic device with one or more proximity area electronic devices; upon successful establishment of proximity area connections of the electronic device with a predetermined success set of the one or more proximity area electronic devices, returning the electronic device to the low power mode; upon unsuccessful establishment of proximity area connections of the electronic device with the predetermined success set of the one or more proximity area electronic devices, transferring the electronic device from the proximity area connectivity mode into a wide area connectivity mode, while in the wide area connectivity mode, connecting, via a wide area connection, the electronic device to at least one wide area electronic device.
A bladder bag (20;40;70;80;90;100;110) as a mold for molding an inside of a composite material structure, the composite material structure including a narrow portion (12a-c) formed by narrowing a part of the inside and a space portion (14a-c) formed so as to be adjacent to the narrow portion (12a-c), the bladder bag (20;40;70;80;90;100;110) comprising: a bladder bag main body (22;42) that includes a narrow molding portion (26a-c;46a,46b) for molding the narrow portion (12a-c) of the composite material structure, a space molding portion (27a-c;47a,47b) for molding the space portion (14a-c) of the composite material structure, and an air intake (28;48) for introducing air; and a cord-like member (24;44) that is provided inside the bladder bag main body (22;42), passes through the narrow molding portion (26a-c;46a,46b) from the air intake (28;48), and is connected to an inner surface of the space molding portion (27a-c;47a,47b). a bladder bag main body (22;42) that includes a narrow molding portion (26a-c;46a,46b) for molding the narrow portion (12a-c) of the composite material structure, a space molding portion (27a-c;47a,47b) for molding the space portion (14a-c) of the composite material structure, and an air intake (28;48) for introducing air; and a cord-like member (24;44) that is provided inside the bladder bag main body (22;42), passes through the narrow molding portion (26a-c;46a,46b) from the air intake (28;48), and is connected to an inner surface of the space molding portion (27a-c;47a,47b).
Industrial truck having a driver's workstation and a load part, wherein at least one display and operator control device is arranged in the load-part-side field of vision of an operator, which display and operator control device permits information to be displayed and functions of the industrial truck to be controlled, wherein the display and operator control device is formed by a display which is arranged between the driver's workstation and the load part, characterized in that the display is transparent, and a gesture recognition system is provided for controlling functions by means of the display and operator control device, wherein cameras, infrared sensors or ultrasonic sensors are used for the detection and evaluation of gestures.
A mobile display device, comprising: a body being a case that forms an outer ring of the display device; a display installed inside the body; a window arranged on the display, the window having, in a cross-section of the display device, an upper surface being exposed to the outside and a lateral surface being exposed to the outside; and a protective member that protrudes from the upper or lateral surface of the window, wherein a lateral surface of the body, in the cross-section of the display device, protrudes outward in lateral direction by a gap with respect to the lateral surface of the window such that the lateral surface of the window is protected from external shock. a body being a case that forms an outer ring of the display device; a display installed inside the body; a window arranged on the display, the window having, in a cross-section of the display device, an upper surface being exposed to the outside and a lateral surface being exposed to the outside; and a protective member that protrudes from the upper or lateral surface of the window, wherein a lateral surface of the body, in the cross-section of the display device, protrudes outward in lateral direction by a gap with respect to the lateral surface of the window such that the lateral surface of the window is protected from external shock.
A video projection apparatus comprising: a light source; an optical deflector having a mirror for reflecting light from said light source to project a view field, an actuator for rocking said mirror with an axis of said mirror and a sensor provided in the vicinity of said actuator; and a control unit (14, 15, 16); characterized in that said control unit (14, 15, 16) is adapted to generate a first sinusoidal-wave voltage (V xa) applied to said actuator and a second sinusoidal-wave voltage (V xa ') having a same frequency (f) as that of said first sinusoidal-wave voltage (V xa) and a difference in phase of 90° to said first sinusoidal-wave voltage (V xa); calculate a first convolution between said first sinusoidal-wave voltage (V xa) and a sensed voltage (V xsa) from said sensor; calculate a second convolution between said second sinusoidal-wave voltage (V xa ') and said sensed voltage (V xsa); convert an orthogonal coordinate formed by said first convolution and said second convolution into a polar coordinate formed by a radius component and an angle component ( θ); and sweep the frequency of said first and second sinusoidal-wave voltages (V xa, V xa ') so that the frequency (f x) of said first and second sinusoidal-wave voltages (V xa, V xa ') is controlled so that said radius component is maximum. a light source; an optical deflector having a mirror for reflecting light from said light source to project a view field, an actuator for rocking said mirror with an axis of said mirror and a sensor provided in the vicinity of said actuator; and a control unit (14, 15, 16); characterized in that said control unit (14, 15, 16) is adapted to generate a first sinusoidal-wave voltage (V xa) applied to said actuator and a second sinusoidal-wave voltage (V xa ') having a same frequency (f) as that of said first sinusoidal-wave voltage (V xa) and a difference in phase of 90° to said first sinusoidal-wave voltage (V xa); calculate a first convolution between said first sinusoidal-wave voltage (V xa) and a sensed voltage (V xsa) from said sensor; calculate a second convolution between said second sinusoidal-wave voltage (V xa ') and said sensed voltage (V xsa); convert an orthogonal coordinate formed by said first convolution and said second convolution into a polar coordinate formed by a radius component and an angle component ( θ); and sweep the frequency of said first and second sinusoidal-wave voltages (V xa, V xa ') so that the frequency (f x) of said first and second sinusoidal-wave voltages (V xa, V xa ') is controlled so that said radius component is maximum.
Secure system-on-chip for processing data, this system-on-chip comprising at least a central processing unlit, an input and an output channel, an encryption/decryption (CR-EN) engine and a memory, characterized in that said input channel comprises an input encryption module (RCV-E) to add an internal encryption layer on all incoming data, said output channel comprising an output decryption module (SND-D) to remove the internal encryption layer on all outgoing data, said central processing unit receiving the encrypted data from the input encryption module and storing them in the memory, and while processing the stored data, said central processing unit reading the stored data from the memory, requesting the removal of the internal encryption layer of same in the encryption/decryption engine, processing the data and requesting encryption of the result by the encryption/decryption engine so as to add the internal encryption layer and storing the encrypted result, outputting the result to the output decryption module for removing the internal encryption layer and exiting the result via the output channel.