mhurhangee/ep-ind-claims huggingface dataset:
A native rapeseed protein isolate comprising 40 to 65% cruciferins and 35 to 60% napins and having a solubility of at least 88% when measured over a pH range from 3 to 10 at a temperature of 23±2°C; wherein the native rapeseed protein isolate comprises from 5% to 65% on dry matter of 12S rapeseed protein where the presence of 12S is verified by Blue Native PAGE.
Power semi-conductor module comprising: - an high-voltage part (3, 31, 32) arranged to operate at high-voltage and including a power semi-conductor switch; - an acquisition part arranged to acquire measurements from the high-voltage part and to operate at a low voltage incompatible with said high-voltage; - an intermediate circuit, electrically disposed between said power semi-conductor switch of the high-voltage part (3, 31, 32) and the acquisition part; and - a control part (9, 91, 92), said intermediate circuit having the at least two following states: - a sample state wherein said intermediate circuit is electrically disconnected from the acquisition part and electrically connected to said power semi-conductor switch of the high-voltage part (3, 31, 32) such that a voltage sample (V on, V on1, V on2) of the operating high-voltage is stored on said intermediate circuit; - an acquiring state wherein said intermediate circuit is electrically disconnected from said power semi-conductor switch of the high-voltage part (3, 31, 32) and electrically connected to the acquisition part such that a voltage sample (V on, V on1, V on2) previously stored on said intermediate circuit is discharged to the acquisition part, the control part (9, 91) being arranged to control the states changing of the intermediate circuit. - an high-voltage part (3, 31, 32) arranged to operate at high-voltage and including a power semi-conductor switch; - an acquisition part arranged to acquire measurements from the high-voltage part and to operate at a low voltage incompatible with said high-voltage; - an intermediate circuit, electrically disposed between said power semi-conductor switch of the high-voltage part (3, 31, 32) and the acquisition part; and - a control part (9, 91, 92), - a sample state wherein said intermediate circuit is electrically disconnected from the acquisition part and electrically connected to said power semi-conductor switch of the high-voltage part (3, 31, 32) such that a voltage sample (V on, V on1, V on2) of the operating high-voltage is stored on said intermediate circuit; - an acquiring state wherein said intermediate circuit is electrically disconnected from said power semi-conductor switch of the high-voltage part (3, 31, 32) and electrically connected to the acquisition part such that a voltage sample (V on, V on1, V on2) previously stored on said intermediate circuit is discharged to the acquisition part,
Modular drive system for constructing a drive device for a working machine, in particular forming machine, comprising at least the following drive components: - a number of working machine connections, - a number of gearings and - a number of drive means, wherein - the drive components are provided in alternative embodiments in respect of their technical properties thereof, - wherein the drive components of the modular drive system are configured in such a manner that a drive device can be produced by any combination of the drive components, wherein - the working machine connections of the modular drive system are each equipped with a connection flange for connecting to the gearing, wherein - the gearings of the modular drive system are each equipped with a connection flange for connection to the working machine connection, wherein - the working machine connections of the modular drive system are equipped with identical connection flanges for connecting to the gearing, and the gearings of the modular drive system are equipped with identical connection flanges for connecting to the working machine connection, wherein - the gearings of the modular drive system are each equipped with a connection flange for connecting to the drive means, wherein - the drive means of the modular drive system are each equipped with a connection flange for connecting to the gearing, wherein - the gearings of the modular drive system are equipped with identical connection flanges for connecting to the drive means, and the drive means of the modular drive system are equipped with identical connection flanges for connecting to the gearing. - a number of working machine connections, - a number of gearings and - a number of drive means, wherein - the drive components are provided in alternative embodiments in respect of their technical properties thereof, - wherein the drive components of the modular drive system are configured in such a manner that a drive device can be produced by any combination of the drive components, wherein - the working machine connections of the modular drive system are each equipped with a connection flange for connecting to the gearing, wherein - the gearings of the modular drive system are each equipped with a connection flange for connection to the working machine connection, - the working machine connections of the modular drive system are equipped with identical connection flanges for connecting to the gearing, and the gearings of the modular drive system are equipped with identical connection flanges for connecting to the working machine connection, wherein - the gearings of the modular drive system are each equipped with a connection flange for connecting to the drive means, wherein - the drive means of the modular drive system are each equipped with a connection flange for connecting to the gearing, wherein - the gearings of the modular drive system are equipped with identical connection flanges for connecting to the drive means, and the drive means of the modular drive system are equipped with identical connection flanges for connecting to the gearing.
A method for wireless communication comprising: generating a packet that comprises a first portion and a second portion (540, 580) separated by a delimiter, wherein the generation comprises encoding the delimiter using a first scheme and encoding the second portion using a second scheme different from the first scheme wherein the first scheme comprises a single carrier communication scheme, and the second scheme comprises an orthogonal frequency division multiplexing, OFDM, communication scheme, wherein the delimiter is further used to signal a characteristic of the second portion (540, 580), wherein the delimiter comprises a plurality of symbols (522, 524, 526) indicating a duration of an allocated medium for transmission; and transmitting the packet. generating a packet that comprises a first portion and a second portion (540, 580) separated by a delimiter, wherein the generation comprises encoding the delimiter using a first scheme and encoding the second portion using a second scheme different from the first scheme wherein the first scheme comprises a single carrier communication scheme, and the second scheme comprises an orthogonal frequency division multiplexing, OFDM, communication scheme, wherein the delimiter is further used to signal a characteristic of the second portion (540, 580), wherein the delimiter comprises a plurality of symbols (522, 524, 526) indicating a duration of an allocated medium for transmission; and transmitting the packet.
A cable clamp adapted for clamping electrical cables, comprising: a busbar securing portion for securing the cable clamp to a busbar; a first mating unit comprising a first cable locating formation and at least two cavities (220a, 220b) therein adapted to receive at least two attachment bolts (215a, 215b) for attachment of said first mating unit to the busbar; at least two securing barrel nuts (205a, 205b) comprising a threaded portion for engaging said at least two respective attachment bolts (215a, 215b) and also for engaging at least two respective securing bolts (207a, 207b); and a second mating unit comprising a second cable locating formation and at least two cavities (230a, 230b) adapted to align with said at least two cavities (220a, 220b) of said first mating unit, and further adapted to receive said at least two securing bolts (207a, 207b), wherein, in use, said at least two securing bolts (207a, 207b) are screwed into said at least two securing nuts (205a, 205b) to secure said second mating unit to said first mating unit thereby to securely clamp an electrical cable located between respective first and second cable locating formations (203, 211) of the first and second mating units (201, 209) and to cause said attachment bolts (215a, 215b) to lift an engaging portion of the busbar securing portion until it engages with said busbar thereby securing said first mating unit to said busbar. a busbar securing portion for securing the cable clamp to a busbar; a first mating unit comprising a first cable locating formation and at least two cavities (220a, 220b) therein adapted to receive at least two attachment bolts (215a, 215b) for attachment of said first mating unit to the busbar; at least two securing barrel nuts (205a, 205b) comprising a threaded portion for engaging said at least two respective attachment bolts (215a, 215b) and also for engaging at least two respective securing bolts (207a, 207b); and a second mating unit comprising a second cable locating formation and at least two cavities (230a, 230b) adapted to align with said at least two cavities (220a, 220b) of said first mating unit, and further adapted to receive said at least two securing bolts (207a, 207b), wherein, in use, said at least two securing bolts (207a, 207b) are screwed into said at least two securing nuts (205a, 205b) to secure said second mating unit to said first mating unit thereby to securely clamp an electrical cable located between respective first and second cable locating formations (203, 211) of the first and second mating units (201, 209) and to cause said attachment bolts (215a, 215b) to lift an engaging portion of the busbar securing portion until it engages with said busbar thereby securing said first mating unit to said busbar.
A prefilled injection device, comprising: - a tubular containment body, which extends along an axis between a front end element and a rear end element, the front element comprising a spout to which a needle is connectable; - a first and a second plug arranged inside the tubular body, so as to delimit therebetween a second containment chamber (400L2) in the tubular body containing a second either solid or liquid substance; - a third plug connected to a syringe piston and forming a first containment chamber (400L1) with said second plug in the tubular body, the first containment chamber (400L1) containing a first liquid substance; - at least one bypass channel, configured to assume alternatively a closed state or an opened state; wherein: - the first plug is arranged in a fixed position either near or in contact with said front end element along said axis; - the second plug hermetically separates the first containment chamber (400L1) from the second containment chamber (400L2); - the second and third plugs are configured and adapted to slide inside the tubular body; - the tubular body comprises an inner wall provided with a recess defining said at least one bypass channel, wherein the at least one bypass channel is positioned between the first plug and the second plug in an initial configuration of the first and second plug; the prefilled injection device being characterized in that said first plug comprises liquid communication means for passing, upon a movement of the syringe piston towards the front element, from a first closed state to a second opened state. - a tubular containment body, which extends along an axis between a front end element and a rear end element, the front element comprising a spout to which a needle is connectable; - a first and a second plug arranged inside the tubular body, so as to delimit therebetween a second containment chamber (400L2) in the tubular body containing a second either solid or liquid substance; - a third plug connected to a syringe piston and forming a first containment chamber (400L1) with said second plug in the tubular body, the first containment chamber (400L1) containing a first liquid substance; - at least one bypass channel, configured to assume alternatively a closed state or an opened state; - the first plug is arranged in a fixed position either near or in contact with said front end element along said axis; - the second plug hermetically separates the first containment chamber (400L1) from the second containment chamber (400L2); - the second and third plugs are configured and adapted to slide inside the tubular body; - the tubular body comprises an inner wall provided with a recess defining said at least one bypass channel, wherein the at least one bypass channel is positioned between the first plug and the second plug in an initial configuration of the first and second plug; the prefilled injection device being characterized in that said first plug comprises liquid communication means for passing, upon a movement of the syringe piston towards the front element, from a first closed state to a second opened state.
A compound represented by formula or a pharmaceutically acceptable salt thereof, wherein, 1 or 2 of T 1, T 2, T 3 and T 4 is N, the rest are independently CH; each of R 1 is independently selected from H, halogen, OH, NH 2 or C 1-3 alkyl optionally substituted by 1, 2 or 3 R; each of R 2 is independently selected from H, halogen, OH, NH 2 or C 1-3 alkyl optionally substituted by 1, 2 or 3 R; n is selected from 0, 1, 2 and 3; m is selected from 0, 1, 2 and 3; ring A is selected from 6-10 membered aryl and 5-10 membered heteroaryl; ring B is selected from phenyl and 5-6 membered heteroaryl; R is selected from F, Cl, Br, I, OH, NH 2 and CN; the "hetero" in the 5-6 membered heteroaryl and 5-10 membered heteroaryl are each independently selected from N, O, S, NH, -C(=O)-, -C(=O)O- and -C(=O)NH-; the number of the heteroatom or heteroatom group is independently selected from 1, 2, 3 and 4. 1 or 2 of T 1, T 2, T 3 and T 4 is N, the rest are independently CH; each of R 1 is independently selected from H, halogen, OH, NH 2 or C 1-3 alkyl optionally substituted by 1, 2 or 3 R; each of R 2 is independently selected from H, halogen, OH, NH 2 or C 1-3 alkyl optionally substituted by 1, 2 or 3 R; n is selected from 0, 1, 2 and 3; m is selected from 0, 1, 2 and 3; ring A is selected from 6-10 membered aryl and 5-10 membered heteroaryl; ring B is selected from phenyl and 5-6 membered heteroaryl; R is selected from F, Cl, Br, I, OH, NH 2 and CN; the "hetero" in the 5-6 membered heteroaryl and 5-10 membered heteroaryl are each independently selected from N, O, S, NH, -C(=O)-, -C(=O)O- and -C(=O)NH-; the number of the heteroatom or heteroatom group is independently selected from 1, 2, 3 and 4.
Counterweight for an elevator comprising a car and a counterweight suspended on hoisting ropes which are driven by a drive machine, said counterweight having a first side configured to face an elevator car path and a second side configured to be arranged opposite to the car path, wherein the counterweight comprises at least one connecting passage (24, 26, 32, 34, 36) between the first and second side of the counterweight, characterized in that the passages (32, 34, 36) are labyrinth passages in which the air flow between the first and second sides of the counterweight is deflected.
A method for manufacturing an electrode, comprising: performing a first high shearing mixing of a slurry including a binder polymer dispersed therein at 20,000 to 40,000 rpm to obtain binder polymer having a molecular weight in a range of 69,000 to 100,000; adding a conductive material to the slurry, and performing a second high shearing mixing at 20,000 to 40,000 rpm to obtain the conductive material wherein its primary agglomerate grain diameter is from 5 nm to 100 nm and its secondary agglomerate grain diameter is from 30 nm to 1 μ m; adding an electrode active material and dispersing the same in the obtained slurry to obtain an electrode mix slurry having an absolute value of Zeta potential in a range of 20 mV to 100 mV; and coating the electrode mix slurry on a current collector and drying. performing a first high shearing mixing of a slurry including a binder polymer dispersed therein at 20,000 to 40,000 rpm to obtain binder polymer having a molecular weight in a range of 69,000 to 100,000; adding a conductive material to the slurry, and performing a second high shearing mixing at 20,000 to 40,000 rpm to obtain the conductive material wherein its primary agglomerate grain diameter is from 5 nm to 100 nm and its secondary agglomerate grain diameter is from 30 nm to 1 μ m; adding an electrode active material and dispersing the same in the obtained slurry to obtain an electrode mix slurry having an absolute value of Zeta potential in a range of 20 mV to 100 mV; and coating the electrode mix slurry on a current collector and drying.
A clamping device (10, 210) for securing a cross member to a structural member, the device comprising: - a support arm comprising a channel for receiving said cross member; - a securing arm including a jaw portion, the securing arm being connected to the support arm by an articulating mechanism - a first clamping mechanism arranged to apply a force to clamp at least a part of said structural member between said jaw portion and the support arm, wherein the first clamping mechanism is configured to move the support arm and securing arm between an open configuration, in which said cross member may be engaged with the support arm to be supported by the support arm, and a clamped configuration, in which the jaw portion applies a clamping force to clamp at least a part of said structural member between said jaw portion and the support arm; and - a retaining member arranged to apply a force to clamp said cross member to the support arm, and characterised in that the first clamping mechanism and the jaw portion are provided on the same side of the articulating mechanism and the first clamping mechanism is disposed between a part of the jaw portion and the articulating mechanism, and the retaining member is arranged to abut a first surface of the cross member in order to apply a clamping force to said cross member when the support arm and securing arm are in the clamped configuration. - a support arm comprising a channel for receiving said cross member; - a securing arm including a jaw portion, the securing arm being connected to the support arm by an articulating mechanism - a first clamping mechanism arranged to apply a force to clamp at least a part of said structural member between said jaw portion and the support arm, wherein the first clamping mechanism is configured to move the support arm and securing arm between an open configuration, in which said cross member may be engaged with the support arm to be supported by the support arm, and a clamped configuration, in which the jaw portion applies a clamping force to clamp at least a part of said structural member between said jaw portion and the support arm; and - a retaining member arranged to apply a force to clamp said cross member to the support arm, and characterised in that the first clamping mechanism and the jaw portion are provided on the same side of the articulating mechanism and the first clamping mechanism is disposed between a part of the jaw portion and the articulating mechanism, and the retaining member is arranged to abut a first surface of the cross member in order to apply a clamping force to said cross member when the support arm and securing arm are in the clamped configuration. the first clamping mechanism and the jaw portion are provided on the same side of the articulating mechanism and the first clamping mechanism is disposed between a part of the jaw portion and the articulating mechanism, and the retaining member is arranged to abut a first surface of the cross member in order to apply a clamping force to said cross member when the support arm and securing arm are in the clamped configuration.
Metal pivot pin for a timepiece movement including at least one pivot at at least one of the ends thereof at least the outer surface of said at least one pivot is hardened to a predetermined depth relative to the core of the pin via atoms, characterized in that the metal is an austenitic steel, an austenitic cobalt alloy or an austenitic nickel alloy so as to limit the sensitivity of the pin to magnetic fields and in that the atoms are carbon or nitrogen atoms in interstitial diffused sites of the alloy.
A tubeless tyre comprising a tread, a carcass defining an inner cavity, an innerliner designed to ensure that the air contained in the inner cavity of the carcass remains under pressure, a sealant layer arranged in said inner cavity in contact with the innerliner, and a sound-absorbing layer, made of foamed material, which is also arranged in said inner cavity; said tyre being characterized in that it comprises a support structure housed inside said inner cavity and designed to support said sound-absorbing layer, always keeping it separate from said sealant layer; said support structure comprising a spacing portion having an end in contact with said innerliner and partially immersed in said sealant layer and a support portion, on which said sound-absorbing layer is fixed; the tyre being characterised in that said support structure is made of polymeric non-foamed material having a Young's modulus ranging from 1000 to 2900 N/mm 2.
An in-line system for measuring a physical characteristic of an ophthalmic device, the system comprising: a camera that is configured to image an actual position of a feature of the ophthalmic device; a vibration resistant interferometer that is configured to project a surface measurement beam having a wavelength that transmits through a beam splitter onto the ophthalmic device, the vibration resistant interferometer being configured to send measurements to a central processing unit; and an automatic alignment system that is effective to position the interferometer and the camera, the automatic alignment system being in communication with the CPU, characterized in that the system is configured to determine an optimal X, Y position of the ophthalmic device by moving the camera to an expected position of the ophthalmic device and calculating an offset as a difference between the expected position and the actual position, wherein a laser measurement device is configured to move in a Z-direction to focus the surface measurement beam at the calculated X, Y position and determine a Z position for the feature of the ophthalmic device, and wherein the system is configured to complete the measurements of the ophthalmic device by moving the vibration resistant interferometer and/or ophthalmic device based on the determined X, Y, Z position in relation to the ophthalmic device. a camera that is configured to image an actual position of a feature of the ophthalmic device; a vibration resistant interferometer that is configured to project a surface measurement beam having a wavelength that transmits through a beam splitter onto the ophthalmic device, the vibration resistant interferometer being configured to send measurements to a central processing unit; and an automatic alignment system that is effective to position the interferometer and the camera, the automatic alignment system being in communication with the CPU, characterized in that the system is configured to determine an optimal X, Y position of the ophthalmic device by moving the camera to an expected position of the ophthalmic device and calculating an offset as a difference between the expected position and the actual position, wherein a laser measurement device is configured to move in a Z-direction to focus the surface measurement beam at the calculated X, Y position and determine a Z position for the feature of the ophthalmic device, and wherein the system is configured to complete the measurements of the ophthalmic device by moving the vibration resistant interferometer and/or ophthalmic device based on the determined X, Y, Z position in relation to the ophthalmic device.