mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a laminated product, for example a building panel, preferably a floor panel, wherein the method comprises the steps of: • applying a paper on one side of a wood fiber based core, e.g. an HDF panel; • creating a décor on the paper by a digital printing process after the paper is applied to said wood fiber based core; • applying a resin, preferably a melamine formaldehyde resin, on the paper; • heating the décor and the paper with the resin, preferably by using an IR lamp; and • applying heat and pressure in order to cure the resin and thereby obtain a laminated product, characterized in that the resin applied on the paper is in powder form. • applying a paper on one side of a wood fiber based core, e.g. an HDF panel; • creating a décor on the paper by a digital printing process after the paper is applied to said wood fiber based core; • applying a resin, preferably a melamine formaldehyde resin, on the paper; • heating the décor and the paper with the resin, preferably by using an IR lamp; and • applying heat and pressure in order to cure the resin and thereby obtain a laminated product, characterized in that the resin applied on the paper is in powder form.
A component for a vapour provision system, comprising: a reservoir for storing aerosolisable substrate material, the reservoir bounded by a boundary wall with at least one movable section configured to move to reduce a storage volume of the reservoir; an outlet in the reservoir for dispensing aerosolisable substrate material from the reservoir; a one-way outlet valve at the outlet configured to open for the dispensing of the aerosolisable substrate material; and a dispensing arrangement operable to increase pressure of aerosolisable substrate material in an outlet volume of the reservoir which is not bounded by the movable section, so as to open the outlet valve and dispense a portion of aerosolisable substrate material, the subsequent absence of the dispensed portion reducing the pressure to allow the movable section of the boundary wall to move to reduce the storage volume. a reservoir for storing aerosolisable substrate material, the reservoir bounded by a boundary wall with at least one movable section configured to move to reduce a storage volume of the reservoir; an outlet in the reservoir for dispensing aerosolisable substrate material from the reservoir; a one-way outlet valve at the outlet configured to open for the dispensing of the aerosolisable substrate material; and a dispensing arrangement operable to increase pressure of aerosolisable substrate material in an outlet volume of the reservoir which is not bounded by the movable section, so as to open the outlet valve and dispense a portion of aerosolisable substrate material, the subsequent absence of the dispensed portion reducing the pressure to allow the movable section of the boundary wall to move to reduce the storage volume.
Plug part for a plug-and-socket coupling for liquid conduits of a high-pressure cleaning apparatus, wherein the plug part comprises a through-channel for liquid under high pressure extending coaxially with respect to the longitudinal axis of the plug part and wherein the plug part forms a plug nipple which is insertable into an associated plug receptacle of a socket part of the plug-and-socket coupling, forming a liquid-tight connection, and is disconnectably latchable together with the plug receptacle, wherein the plug nipple comprises a circular-cylindrical first sliding guide section in which is arranged a sealing ring groove extending therearound in a circumferential direction, said sealing ring groove having a sealing ring therein, and wherein the plug nipple comprises a circular-cylindrical second sliding guide section and a latching receptacle into which are latchable two spring-loaded cylindrical locking pins (96, 98) of the socket part that are oriented parallel to each other and lie diametrically opposite one another, wherein the second sliding guide section has an external diameter which is at least one-quarter larger than the external diameter of the first sliding guide section and wherein the latching receptacle is arranged in the second sliding guide section and is configured as a locking groove extending therearound in a circumferential direction, wherein the distance between the centre of the sealing ring groove and the centre of the locking groove is at least one and a half times the external diameter of the first sliding guide section, and wherein the first sliding guide section forms a first sliding guide region and a second sliding guide region, wherein the first sliding guide region is arranged on the side of the sealing ring groove facing towards the free end of the plug nipple and wherein the second sliding guide region is arranged on the side of the sealing ring groove facing away from the free end of the plug nipple, and wherein the second sliding guide section forms a third sliding guide region and a fourth sliding guide region, wherein the third sliding guide region is arranged on the side of the locking groove facing towards the free end of the plug nipple and wherein the fourth sliding guide region is arranged on the side of the locking groove facing away from the free end of the plug nipple, characterized in that the locking groove comprises a conical wall section which adjoins the third sliding guide region and the diameter of which decreases with increasing distance from the third sliding guide region and which is adjoined by an arcuate wall section of the locking groove, wherein the cone angle (α) of the conical wall section is at least 90°, in particular more than 90°.
Multilevel converter comprising at least two submodules connected in series, wherein each submodule has in each case at least two switches (10, 20, 30, 40, 210, 220, 410, 420) and a capacitor and two current-carrying external module terminals (A1, A2), wherein at least one submodule has at least one outer heat sink that serves as a current-carrying external module terminal, characterized in that - at least two adjacent submodules have in each case at least one heat sink (60, 80) which forms one of the current-carrying external module terminals (A1, A2) of the respective submodule and on which at least one of the switches (10, 20, 30, 40) of the respective submodule is mounted on the inner wall side for cooling purposes, and - the heat sinks (60, 80) of the at least two adjacent submodules bear against one another on the outer wall side in such a way that the heat sinks (60, 80) thereof and thus the current-carrying external module terminals (A1, A2) formed by said heat sinks (60, 80) are electrically connected to one another. - at least two adjacent submodules have in each case at least one heat sink (60, 80) which forms one of the current-carrying external module terminals (A1, A2) of the respective submodule and on which at least one of the switches (10, 20, 30, 40) of the respective submodule is mounted on the inner wall side for cooling purposes, and - the heat sinks (60, 80) of the at least two adjacent submodules bear against one another on the outer wall side in such a way that the heat sinks (60, 80) thereof and thus the current-carrying external module terminals (A1, A2) formed by said heat sinks (60, 80) are electrically connected to one another.
A method for the manufacturing of a honeycomb structural body (1a,1b) comprising the steps of (i) providing a plurality of silicon carbide honeycomb segments each having a cell structure and at least one outer wall, (ii) subjecting said honeycomb segments to an oxidizing thermal treatment forming a surface layer of silicon oxides on said at least one outer wall, and (iii) bonding said plurality of oxidized honeycomb segments so as to form said honeycomb structural body (1a,1b) in the absence of organic binders, with the interposition of a sealing material paste having a viscosity value lower than 200 Pa.s (measured with a Bohlin rheometer shear rate 1s-1, rotor plate-plate 40 mm diameter and gap of 1,500/2,000 micron) and consisting of a mixture of one or more silicon carbide powder, one or more ceramic fiber selected from the group consisting of alkali and alkaline earth silicate fibers, and one or more inorganic binder and water, • wherein said step (iii) comprises the steps of (e) applying a sealing layer with said sealing material on at least one outer wall, (f) joining outer walls of at least two of said honeycomb segments so as to interpose said sealing layer, and (g) curing said joined honeycomb segments. (i) providing a plurality of silicon carbide honeycomb segments each having a cell structure and at least one outer wall, (ii) subjecting said honeycomb segments to an oxidizing thermal treatment forming a surface layer of silicon oxides on said at least one outer wall, and (iii) bonding said plurality of oxidized honeycomb segments so as to form said honeycomb structural body (1a,1b) in the absence of organic binders, with the interposition of a sealing material paste having a viscosity value lower than 200 Pa.s (measured with a Bohlin rheometer shear rate 1s-1, rotor plate-plate 40 mm diameter and gap of 1,500/2,000 micron) and consisting of a mixture of one or more silicon carbide powder, one or more ceramic fiber selected from the group consisting of alkali and alkaline earth silicate fibers, and one or more inorganic binder and water, • wherein said step (iii) comprises the steps of (e) applying a sealing layer with said sealing material on at least one outer wall, (f) joining outer walls of at least two of said honeycomb segments so as to interpose said sealing layer, and (g) curing said joined honeycomb segments. • wherein said step (iii) comprises the steps of (e) applying a sealing layer with said sealing material on at least one outer wall, (f) joining outer walls of at least two of said honeycomb segments so as to interpose said sealing layer, and (g) curing said joined honeycomb segments.
A tire testing machine comprising: a rotating element, the rotating element driven by a motor; a tire and wheel assembly having a sensor 940) configured to measure a parameter related to the tire and wheel assembly as it rotates on the rotating element and providing an output signal indicative thereof; a holder supporting the tire and wheel assembly for rotation against a surface of the rotating element; a processor (64, 91) configured to receive an input at least based on the output signal from the sensor, the processor configured to provide an output signal indicative of at least one of a parameter of a contact patch between a tire of the tire and wheel assembly and the rotating element or a parameter of friction between a tire of the tire and wheel assembly and the rotating element; and a controlled element (29, 132) configured to vary a parameter related to the contact patch or a parameter related to the friction respectively. a rotating element, the rotating element driven by a motor; a tire and wheel assembly having a sensor 940) configured to measure a parameter related to the tire and wheel assembly as it rotates on the rotating element and providing an output signal indicative thereof; a holder supporting the tire and wheel assembly for rotation against a surface of the rotating element; a processor (64, 91) configured to receive an input at least based on the output signal from the sensor, the processor configured to provide an output signal indicative of at least one of a parameter of a contact patch between a tire of the tire and wheel assembly and the rotating element or a parameter of friction between a tire of the tire and wheel assembly and the rotating element; and a controlled element (29, 132) configured to vary a parameter related to the contact patch or a parameter related to the friction respectively.
A blood component separator for use in centrifugal separation of blood, comprising: a blood storage vessel including a first storage part and a second storage part; a slider movable from the first storage part to the second storage part; and a flow path for communicating an inside and an outside of the storage vessel, wherein when the slider is in the first storage part, the first storage part and the second storage part are in communication with each other, and when the slider is inserted into the second storage part, a liquid-tight seal is formed between the slider and an inner peripheral surface of the second storage part and the communication between the first storage part and the second storage part is blocked by the slider, characterized in that: the slider is movable in the second storage part while maintaining the liquid-tight seal between the slider and the inner peripheral surface of the second storage part, and as the slider enters into the second storage part, a blood component in the second storage part is pushed out of the storage vessel through the flow path. a blood storage vessel including a first storage part and a second storage part; a slider movable from the first storage part to the second storage part; and a flow path for communicating an inside and an outside of the storage vessel, wherein when the slider is in the first storage part, the first storage part and the second storage part are in communication with each other, and when the slider is inserted into the second storage part, a liquid-tight seal is formed between the slider and an inner peripheral surface of the second storage part and the communication between the first storage part and the second storage part is blocked by the slider, characterized in that: the slider is movable in the second storage part while maintaining the liquid-tight seal between the slider and the inner peripheral surface of the second storage part, and as the slider enters into the second storage part, a blood component in the second storage part is pushed out of the storage vessel through the flow path. the slider is movable in the second storage part while maintaining the liquid-tight seal between the slider and the inner peripheral surface of the second storage part, and as the slider enters into the second storage part, a blood component in the second storage part is pushed out of the storage vessel through the flow path.
A suspension support structure for supporting an upper part of a piston rod of a damper on a vehicle body, comprising: a base member having a flange part adapted to be coupled to the vehicle body, a peripheral wall part extending from the flange part, and a bottom part provided at a lower end of the peripheral wall part and allowing passage of the piston rod therethrough, the base member supporting the upper part of the piston rod and an elastic member on the bottom part; and a lid member configured to be arranged inside of the peripheral wall part in such a manner as to cover at least an upper surface of the elastic member, characterized in that the lid member is coupled with the base member by being press-fitted with respect to the peripheral wall part, and the lid member has a piston-rod-axial-direction lower end part brought into abutment with the bottom part, the lower end part has an elastic member-contacting inner surface being made flat, and an escape part formed on an outer surface opposed to the peripheral wall part and spaced from the peripheral wall part. a base member having a flange part adapted to be coupled to the vehicle body, a peripheral wall part extending from the flange part, and a bottom part provided at a lower end of the peripheral wall part and allowing passage of the piston rod therethrough, the base member supporting the upper part of the piston rod and an elastic member on the bottom part; and a lid member configured to be arranged inside of the peripheral wall part in such a manner as to cover at least an upper surface of the elastic member, characterized in that the lid member is coupled with the base member by being press-fitted with respect to the peripheral wall part, and the lid member has a piston-rod-axial-direction lower end part brought into abutment with the bottom part, the lower end part has an elastic member-contacting inner surface being made flat, and an escape part formed on an outer surface opposed to the peripheral wall part and spaced from the peripheral wall part.
A method for storing electronic documents in a distributed electronic storage system comprising a plurality of electronic storage devices together providing a total storage capacity, the system having a target number of copies in respect of each document stored therein, and being configured to receive and respond to requests from users via a network; the method comprising: in response to a request to the system for a copy of a document, determining the current number of copies of that document stored in the system and increasing the number of copies of that document stored in the system by replicating that document and storing the replica thereof in the system unless the number of copies of that document stored in the system is already at or above the target number of copies in respect of that document; in response to a determination that the current number of copies of the requested document stored in the system is at or above the target number of copies in respect of that document, and a determination that the current total storage capacity of the electronic storage devices in the system permits storage of at least one further copy of at least one other document, selecting at least one other document the number of copies stored in the system of which is below the target number of copies in respect of that at least one other document, and increasing the number of copies of that at least one other document stored in the system by replicating that at least one other document and storing the replica thereof in the system. in response to a request to the system for a copy of a document, determining the current number of copies of that document stored in the system and increasing the number of copies of that document stored in the system by replicating that document and storing the replica thereof in the system unless the number of copies of that document stored in the system is already at or above the target number of copies in respect of that document; in response to a determination that the current number of copies of the requested document stored in the system is at or above the target number of copies in respect of that document, and a determination that the current total storage capacity of the electronic storage devices in the system permits storage of at least one further copy of at least one other document, selecting at least one other document the number of copies stored in the system of which is below the target number of copies in respect of that at least one other document, and increasing the number of copies of that at least one other document stored in the system by replicating that at least one other document and storing the replica thereof in the system.
A method for measuring a channel quality indicator, CQI, by a machine-type communication user equipment, MTC UE, in a wireless communication system, the method comprising: receiving at least one of a cell-specific reference signal, CRS, or a channel state information reference signal, CSI-RS, from a network; measuring a wideband CQI over plurality of narrowbands based on the received CRS or CSI-RS by averaging narrowband CQIs of the plurality of narrowbands; and transmitting the measured wideband CQI to the network, wherein the CSI-RS is related to one UE-specific zero-power CSI-RS configuration only for repetition levels related to coverage enhancement, CE, mode A, and wherein the CE mode A is a first operation mode for coverage enhancement. receiving at least one of a cell-specific reference signal, CRS, or a channel state information reference signal, CSI-RS, from a network; measuring a wideband CQI over plurality of narrowbands based on the received CRS or CSI-RS by averaging narrowband CQIs of the plurality of narrowbands; and transmitting the measured wideband CQI to the network, wherein the CSI-RS is related to one UE-specific zero-power CSI-RS configuration only for repetition levels related to coverage enhancement, CE, mode A, and wherein the CE mode A is a first operation mode for coverage enhancement.
A friction tester for a vehicle arranged to travel along a surface at a first speed; the friction tester comprising a test element arranged to engage with the surface; a motor to drive the test element at a second speed; and a measuring device; wherein: the second speed is independently controllable of the first speed; the second speed is not equal to the first speed so that the test element slips over the surface at a slip speed; characterised in that the measuring device measures a resultant parameter of the test element slipping against the surface and wherein the second speed is controlled to obtain a nominally constant slip speed independent of the vehicle speed. a motor to drive the test element at a second speed; and a measuring device; the second speed is independently controllable of the first speed; the second speed is not equal to the first speed so that the test element slips over the surface at a slip speed; characterised in that the measuring device measures a resultant parameter of the test element slipping against the surface and wherein the second speed is controlled to obtain a nominally constant slip speed independent of the vehicle speed.