mhurhangee/ep-ind-claims huggingface dataset:
Calorimeter comprising at least one measurement sensor, intended to receive at least one sample, and at least three temperature regulation stages (1, 2, 3), of decreasing size, each comprising a support (10, 20, 30) and temperature regulation means, the smallest stage being combined with said at least one sensor, in which: - a first stage also comprises a screen forming a first enclosure with the support of this first stage, the latter being intended to be placed in the external environment of the calorimeter from which it is thermally decoupled, and the means for regulating the temperature of this first stage making it possible to isolate the inside of the first enclosure from the temperature variations of said external environment, - a second stage is placed inside said first enclosure and its support is thermally coupled to the support of the first stage by first thermal conductances consisting of Peltier-effect elements, - a third stage is placed inside the second enclosure defined by the second stage and is thermally coupled to said second stage by second thermal conductances, which are passive and define an adapted time constant value, the means for regulating the temperature of this third stage making it possible to obtain temperature values necessary for measurements to be obtained by said at least one sensor, in which the second thermal conductances define a time constant comprised between ten seconds and several hundreds of seconds, for example of the order of approximately one hundred seconds. - a first stage also comprises a screen forming a first enclosure with the support of this first stage, the latter being intended to be placed in the external environment of the calorimeter from which it is thermally decoupled, and the means for regulating the temperature of this first stage making it possible to isolate the inside of the first enclosure from the temperature variations of said external environment, - a second stage is placed inside said first enclosure and its support is thermally coupled to the support of the first stage by first thermal conductances consisting of Peltier-effect elements, - a third stage is placed inside the second enclosure defined by the second stage and is thermally coupled to said second stage by second thermal conductances, which are passive and define an adapted time constant value, the means for regulating the temperature of this third stage making it possible to obtain temperature values necessary for measurements to be obtained by said at least one sensor,
A drain assembly for connection to a sanitary item, said drain assembly comprising a drain pipe with a pipe inlet and a pipe outlet, a valve, which is arranged in a valve portion of the drain pipe and which has a sealing face and a valve body, wherein the valve body is movable away from the sealing face from a closure position to an open position by means of an actuating element, and an overflow pipe, which extends away from the drain pipe from a first branch point, which is arranged upstream of the valve when viewed in the direction of flow of the water, to a second branch point, which is arranged downstream of the valve in the direction of flow of the water, and thus bridges the valve, wherein, in the installed position, the overflow pipe extends substantially upward counter to the plumbline direction, wherein the valve body is mounted at least partially on an insert element, and in that the drain pipe has an insert receptacle, wherein the insert element can be inserted into the insert receptacle on the drain pipe, characterized in that, in the installed position, the valve portion extends in such a way that the direction of flow runs substantially in the horizontal or at an angle of no more than 20° to the horizontal, and in that, in the installed position, the sealing face is oriented substantially in the vertical or at an angle of no more than 20° to the vertical. a drain pipe with a pipe inlet and a pipe outlet, a valve, which is arranged in a valve portion of the drain pipe and which has a sealing face and a valve body, wherein the valve body is movable away from the sealing face from a closure position to an open position by means of an actuating element, and an overflow pipe, which extends away from the drain pipe from a first branch point, which is arranged upstream of the valve when viewed in the direction of flow of the water, to a second branch point, which is arranged downstream of the valve in the direction of flow of the water, and thus bridges the valve, wherein, in the installed position, the overflow pipe extends substantially upward counter to the plumbline direction, wherein the valve body is mounted at least partially on an insert element, and in that the drain pipe has an insert receptacle, wherein the insert element can be inserted into the insert receptacle on the drain pipe, characterized in that, in the installed position, the valve portion extends in such a way that the direction of flow runs substantially in the horizontal or at an angle of no more than 20° to the horizontal, and in that, in the installed position, the sealing face is oriented substantially in the vertical or at an angle of no more than 20° to the vertical.
An enzyme composition for solubilization of Municipal Solid Waste, the enzyme composition comprising a) an Aspergillus fumigatus cellobiohydrolase I; (b) an Aspergillus fumigatus cellobiohydrolase II; (c) an Aspergillus fumigatus beta-glucosidase; and (d) a Penicillium sp. GH61 polypeptide having cellulolytic enhancing activity and enzymes selected from (i) a protease; (ii) a lipase and (iii) a beta-glucanase, wherein: the protease (i) is selected from SEQ ID NO: 1 or a protease having at least 90% sequence identity to SEQ ID NO: 1; the lipase (ii) is selected from SEQ ID NO: 2 or a lipase having at least 90% sequence identity to SEQ ID NO: 2; the beta-glucanase is selected from SEQ ID NO: 4 or a beta-glucanase having at least 90% sequence identity to SEQ ID NO: 4.
An organic light emitting diode, OLED, touch sensitive device including a plurality of display pixels, the device comprising: an anode layer (804, 1216) for an OLED display; a cathode layer (808, 1212), the cathode layer comprising a plurality of circuit elements that are configurable as a plurality of self-capacitance touch pixel electrodes during a touch detection mode of the device, and are configurable as a cathode for the OLED display during a display mode of the device, wherein each of the plurality of self-capacitance touch pixel electrodes is electrically isolated from others of the plurality of self-capacitance touch pixel electrodes, and wherein each of the plurality of self-capacitance touch pixel electrodes represents a unique touch location on a touch sensor panel; a stimulation circuit, the stimulation circuit configured to, during the touch detection mode of the device, stimulate the self-capacitance touch pixel electrodes; and a bootstrapping circuit, the bootstrapping circuit configured to, during the touch detection mode of the device, stimulate the anode layer of the device with a substantially same signal as being used by the stimulation circuit to stimulate the self-capacitance touch pixel electrodes. an anode layer (804, 1216) for an OLED display; a cathode layer (808, 1212), the cathode layer comprising a plurality of circuit elements that are configurable as a plurality of self-capacitance touch pixel electrodes during a touch detection mode of the device, and are configurable as a cathode for the OLED display during a display mode of the device, wherein each of the plurality of self-capacitance touch pixel electrodes is electrically isolated from others of the plurality of self-capacitance touch pixel electrodes, and wherein each of the plurality of self-capacitance touch pixel electrodes represents a unique touch location on a touch sensor panel; a stimulation circuit, the stimulation circuit configured to, during the touch detection mode of the device, stimulate the self-capacitance touch pixel electrodes; and a bootstrapping circuit, the bootstrapping circuit configured to, during the touch detection mode of the device, stimulate the anode layer of the device with a substantially same signal as being used by the stimulation circuit to stimulate the self-capacitance touch pixel electrodes.
A light green wall structure, comprising: a plurality of lateral support members configured in a lateral direction, each lateral support member being an L shaped metal rod with a plurality of through holes; a plurality of longitudinal support members configured in a longitudinal direction, each longitudinal support member being an L shaped metal rod with a plurality of openings on at least one surface, the opening having a notch toward to an edge of the longitudinal support member to form a upward hook, the upward hook having a width, the lateral and longitudinal support members being combined with fixing elements provided through the respective through holes and the openings to construct a vertical skeleton; and a plurality of support containers, each formed of a metal net sheet having meshes, wherein the support container has a first lateral surface, a longitudinal surface, a second lateral surface and an oblique surface sequentially adjacent and formed by bending, the oblique surface is obliquely upward and outward, the first and second lateral surfaces are bent in two opposite bending directions, the second lateral surface is used to support at least one plant container, the meshes are provided on the first lateral surface for accommodating the hooks such that the support containers are horizontally and detachably engaged with the longitudinal support members. a plurality of lateral support members configured in a lateral direction, each lateral support member being an L shaped metal rod with a plurality of through holes; a plurality of longitudinal support members configured in a longitudinal direction, each longitudinal support member being an L shaped metal rod with a plurality of openings on at least one surface, the opening having a notch toward to an edge of the longitudinal support member to form a upward hook, the upward hook having a width, the lateral and longitudinal support members being combined with fixing elements provided through the respective through holes and the openings to construct a vertical skeleton; and a plurality of support containers, each formed of a metal net sheet having meshes, wherein the support container has a first lateral surface, a longitudinal surface, a second lateral surface and an oblique surface sequentially adjacent and formed by bending, the oblique surface is obliquely upward and outward, the first and second lateral surfaces are bent in two opposite bending directions, the second lateral surface is used to support at least one plant container, the meshes are provided on the first lateral surface for accommodating the hooks such that the support containers are horizontally and detachably engaged with the longitudinal support members.
A method to position a spindle precisely in a turret type automatic winder, said winder incorporating a rotatable turret driven by a motor, said motor being controlled by a turret driving system, on which turret at least a first and a second bobbins (7, 7A) are mounted on respective spindles (2A, 2B) in a diametrically opposite position along a winding-positional-line, and wherein the first bobbin is positioned in a position of winding a tape on it whereby, at the start of the tape winding process, said first bobbin touches a pressure roller provided on said winder, wherein said method comprises the step of, upon said first bobbin reaching its predetermined package size, rotating the turret in at least two discrete rotational movements carried out at controlled speeds, preferably two discrete rotational movements, wherein a first rotational movement is carried out at a controlled first rotational speed up to a point where the centres (A, A') of said bobbins (7, 7A) fall on a close-by positional line, whereby said close-by positional line and said winding positional line are at a finite displacement angle (φ) with each other, followed by rotating said turret in a required direction at a controlled second rotational speed to carry out a second rotational movement, up to a point where said second bobbin touches said pressure roller, followed by triggering a stop-and-lock action to stop the rotation of said turret, characterized in that said second controlled speed is less than or equal to said first controlled speed, and that said stop-and-lock action comprises the steps of: - increasing the current in said motor up to a predetermined value of said motor; and sending a command to said motor through said turret driving system, to stop the second rotational movement of said turret upon attainment of said predetermined value of current and then lock said turret at the position reached at the end of said second rotational movement. - increasing the current in said motor up to a predetermined value of said motor; and sending a command to said motor through said turret driving system, to stop the second rotational movement of said turret upon attainment of said predetermined value of current and then lock said turret at the position reached at the end of said second rotational movement.
A power supply device (100, 200) comprising: a battery stack in which battery cells are stacked, each of battery cells including a gas discharge valve that opens when an internal pressure of an outer covering can rises and an electrode disposed on an upper surface; a first cover that is provided on an upper surface of the battery stack and opens at a position corresponding to the gas discharge valve of each of the battery cells; and a second cover that is provided above an upper surface of the first cover and defines a gas duct between the first cover and the second cover, wherein the gas duct includes a baffle plate between the first cover and a second cover, wherein the baffle plate is configured to bend the gas discharge path in the gas duct, to reduce the momentum and to lower the temperature to safely discharge the gas to the outside, and the power supply device (100, 200) further comprises a third cover that is provided on an upper surface of the second cover and abuts on an upper surface of the second cover, third cover being made of metal. a battery stack in which battery cells are stacked, each of battery cells including a gas discharge valve that opens when an internal pressure of an outer covering can rises and an electrode disposed on an upper surface; a first cover that is provided on an upper surface of the battery stack and opens at a position corresponding to the gas discharge valve of each of the battery cells; and a second cover that is provided above an upper surface of the first cover and defines a gas duct between the first cover and the second cover, wherein the gas duct includes a baffle plate between the first cover and a second cover, wherein the baffle plate is configured to bend the gas discharge path in the gas duct, to reduce the momentum and to lower the temperature to safely discharge the gas to the outside, and the power supply device (100, 200) further comprises a third cover that is provided on an upper surface of the second cover and abuts on an upper surface of the second cover, third cover being made of metal.
A compact obtained by compression-molding coated soft magnetic particles covered with insulating coatings, wherein the compact has, as a cross-section thereof, a surface comprising: a trapezoidal surface having a long side and a short side opposing to each other; a long-side rectangular surface joining to the long side of the trapezoidal surface; and characterized in that the compact also has, a short-side rectangular surface joining to the short side of the trapezoidal surface, and wherein an area of the trapezoidal surface is larger than a total area of the long-side rectangular surface and the short-side rectangular surface, and the long-side rectangular surface and the short-side rectangular surface each have a thickness of from 0.3 to 2 mm. a trapezoidal surface having a long side and a short side opposing to each other; a long-side rectangular surface joining to the long side of the trapezoidal surface; and characterized in that the compact also has, a short-side rectangular surface joining to the short side of the trapezoidal surface, and
Method for determining a surface temperature of at least one silicon rod in a chemical vapour deposition reactor, containing a plurality of silicon rods, during a deposition process, wherein a measuring apparatus A determines the surface temperature in a measuring area disposed on the silicon rod, and a separate measuring apparatus B continuously or discontinuously ascertains at least one diameter of the silicon rod and at least one diameter of at least one other silicon rod disposed in the reactor, the measuring apparatuses A and B being disposed at different positions in each case in front of a viewing window or in front of a joint viewing window outside the reactor, and the size and/or the position of the measuring area being adapted in dependence on the diameter or diameters ascertained.
A motion vector compression method, comprising: obtaining a 18-bit temporal motion vector; determining a 16-bit compressed motion vector using a binary representation of the obtained temporal motion vector, wherein the compressed motion vector is determined by removing 2 least significant bits, LSB, or most significant bits, MSB, depending on a value signaled in the bitstream; and performing a temporal motion vector prediction, TMVP, using the compressed motion vector. obtaining a 18-bit temporal motion vector; determining a 16-bit compressed motion vector using a binary representation of the obtained temporal motion vector, wherein the compressed motion vector is determined by removing 2 least significant bits, LSB, or most significant bits, MSB, depending on a value signaled in the bitstream; and performing a temporal motion vector prediction, TMVP, using the compressed motion vector.
Saccharomyces cerevisiae yeast strain chosen from the Saccharomyces cerevisiae yeast strain EG3 deposited under the number 1-4295 at the CNCM on the 14th April 2010, the Saccharomyces cerevisiae yeast strain EG2 deposited under the number 1-4294 at the CNCM on the 14th April 2010, the Saccharomyces cerevisiae yeast strain EG1 deposited under the number 1-4293 at the CNCM on the 14th April 2010, and the Saccharomyces cerevisiae yeast strain EG9 deposited under the number 1-4450 at the CNCM on the 1st March 2011.
An addition cure siloxane composition comprising: (i) a polyorganosiloxane comprising at least two alkenyl groups; (ii) an organohydrogenpolysiloxane containing at least two hydrogen atoms bonded to silicone atoms; (iii) an inorganic ethylene adsorbent; wherein the inorganic ethylene adsorbent comprises a zeolite doped with palladium. (i) a polyorganosiloxane comprising at least two alkenyl groups; (ii) an organohydrogenpolysiloxane containing at least two hydrogen atoms bonded to silicone atoms; (iii) an inorganic ethylene adsorbent;
A three-dimensional logic puzzle comprising a plurality of identically shaped puzzle components of an irregular form, the puzzle components being configured for interengaged assembly into the form of a predetermined three-dimensional geometric shape and for interlocking engagement with each other, each puzzle component comprising substantially planar sides and being formed with at least one projection and at least one correspondingly shaped recess, each projection configured for engagement, in use, with a corresponding recess of an adjacent puzzle component, characterised in that: the or each recess is defined by a wall which extends from an interior of a respective puzzle component to a level of a respective substantially planar side and is at least partially spaced apart therefrom.
A mobile station configured to interact with a base station subsystem, BSS, (202 1), the mobile station enabled for extended coverage, EC, operation and capable of performing a multilateration timing advance, MTA, procedure, the mobile station comprising: a processor; and, a memory that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the mobile station is operable to: receive an MTA request message for the mobile station to perform a radio access part of the MTA procedure; transmit, to the BSS, a multilateration request message (270 1) that indicates an Access Burst method for performing the MTA procedure; receive, from the BSS, an assignment message (274 1) acknowledging that the BSS received the multilateration request message without assigning radio resources for the mobile station; determine that the assignment message indicates that no Temporary Block Flow, TBF, resources are assigned to the mobile station; and in response to determining that the assignment message indicates that no TBF resources are assigned to the mobile station, determine if the assignment message matches the multilateration request message transmitted to the BSS. a processor; and, a memory that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the mobile station is operable to: receive an MTA request message for the mobile station to perform a radio access part of the MTA procedure; transmit, to the BSS, a multilateration request message (270 1) that indicates an Access Burst method for performing the MTA procedure; receive, from the BSS, an assignment message (274 1) acknowledging that the BSS received the multilateration request message without assigning radio resources for the mobile station; determine that the assignment message indicates that no Temporary Block Flow, TBF, resources are assigned to the mobile station; and in response to determining that the assignment message indicates that no TBF resources are assigned to the mobile station, determine if the assignment message matches the multilateration request message transmitted to the BSS. receive an MTA request message for the mobile station to perform a radio access part of the MTA procedure; transmit, to the BSS, a multilateration request message (270 1) that indicates an Access Burst method for performing the MTA procedure; receive, from the BSS, an assignment message (274 1) acknowledging that the BSS received the multilateration request message without assigning radio resources for the mobile station; determine that the assignment message indicates that no Temporary Block Flow, TBF, resources are assigned to the mobile station; and in response to determining that the assignment message indicates that no TBF resources are assigned to the mobile station, determine if the assignment message matches the multilateration request message transmitted to the BSS.
A porous bipolar plate for fuel cells which is obtained by molding a composition comprising a carbon material powder and a resin component, wherein the resin component includes an epoxy resin and a curing agent for the epoxy resin, the epoxy resin being a phenol-novolac epoxy resin having an ICI viscosity at 150°C of from 0.3 to 0.9 Pa·s and an epoxy equivalent weight of from 175 to 195 g/eq and the curing agent being a novolac phenolic resin having a hydroxyl equivalent weight of from 103 to 106 g/eq; the composition contains from 10 to 13 parts by weight of the resin component per 100 parts by weight of the carbon material powder; and the bipolar plate has a porosity of from 16 to 25% by volume, a water absorption time of 50 seconds or less, and a compressive strength of from 50 to 80 MPa.