mhurhangee/ep-ind-claims huggingface dataset:
A linear compressor comprising: a shell; a cylinder disposed in the shell to define a compression space for a refrigerant; a piston installed to reciprocate in the cylinder; a nozzle which is provided in the cylinder and through which a portion of the refrigerant introduced into the compression space passes; and a cylinder filter installed in the cylinder and disposed at an inlet-side of the nozzle, characterized in that at least one or more surfaces of the cylinder filter are oil-repellent coated, wherein a gas inflow part passing from an outer circumferential surface to an inner circumferential surface of the cylinder is provided in the cylinder, and a plate in which the nozzle is provided is disposed inside the gas inflow part. a shell; a cylinder disposed in the shell to define a compression space for a refrigerant; a piston installed to reciprocate in the cylinder; a nozzle which is provided in the cylinder and through which a portion of the refrigerant introduced into the compression space passes; and a cylinder filter installed in the cylinder and disposed at an inlet-side of the nozzle, characterized in that at least one or more surfaces of the cylinder filter are oil-repellent coated, wherein a gas inflow part passing from an outer circumferential surface to an inner circumferential surface of the cylinder is provided in the cylinder, and a plate in which the nozzle is provided is disposed inside the gas inflow part.
Method for the production of a solid, degradable amorphous polyphosphate material having calcium counterions, comprising the steps of i) dissolving of a polyphosphate salt in an aqueous solvent, such as water, and adjusting the pH value of the solution to alkaline values, preferably to 10, ii) adding a solution of a calcium salt solution to said polyphosphate salt solution, and adjusting the pH value to alkaline values, preferably to 10, iii) optionally, washing with a solvent, for example ethanol, and iv) collecting of the particles formed, wherein said method in steps i) to iii) is performed at ambient temperature, and wherein said material has a hardness similar to that of bone tissue, and is morphogenetically active. i) dissolving of a polyphosphate salt in an aqueous solvent, such as water, and adjusting the pH value of the solution to alkaline values, preferably to 10, ii) adding a solution of a calcium salt solution to said polyphosphate salt solution, and adjusting the pH value to alkaline values, preferably to 10, iii) optionally, washing with a solvent, for example ethanol, and iv) collecting of the particles formed,
A method for processing polling requests from radio link control peers, comprising: receiving a number of data packets of a set of data packets; determining a value of a poll field and a sequence number for each of the number of received data packets; determining a reference value, wherein the reference value is a value of a maximum status transmit state variable that stores a highest sequence number of the number of received data packets that can be carried in an acknowledgement/negative acknowledgement field of a status report; determining that there is a request to generate a status report based on the poll field in at least one of the received data packets; comparing the sequence number of the at least one received data packet comprising the request to generate a status report with the reference value and if it is determined that the sequence number is greater than the reference value, performing the steps of: determining whether a maximum delay has occurred or a maximum number of delays have been implemented, and implementing one of: delaying generating the status report based on determining that the maximum delay has not occurred or the maximum number of delays have not been implemented; or generating the status report based on determining that the maximum delay has occurred or the maximum number of delays have been implemented. receiving a number of data packets of a set of data packets; determining a value of a poll field and a sequence number for each of the number of received data packets; determining a reference value, wherein the reference value is a value of a maximum status transmit state variable that stores a highest sequence number of the number of received data packets that can be carried in an acknowledgement/negative acknowledgement field of a status report; determining that there is a request to generate a status report based on the poll field in at least one of the received data packets; comparing the sequence number of the at least one received data packet comprising the request to generate a status report with the reference value and if it is determined that the sequence number is greater than the reference value, performing the steps of: determining whether a maximum delay has occurred or a maximum number of delays have been implemented, and implementing one of: delaying generating the status report based on determining that the maximum delay has not occurred or the maximum number of delays have not been implemented; or generating the status report based on determining that the maximum delay has occurred or the maximum number of delays have been implemented. delaying generating the status report based on determining that the maximum delay has not occurred or the maximum number of delays have not been implemented; or generating the status report based on determining that the maximum delay has occurred or the maximum number of delays have been implemented.
An explosion-proof robot capable of self-propulsion on a field, comprising: an explosion-proof casing of a hollow shape inside of which at least one electric component is placed; and a cover including a nonmetal material and covering at least part of an outer surface of the explosion-proof casing, characterized in that a part of the explosion-proof casing comprises a portion made of material to allow permeation of electromagnetic waves, the cover includes a nonmetal material which is electrically conductive, and the cover is of a jacket structure for shock absorbability. an explosion-proof casing of a hollow shape inside of which at least one electric component is placed; and a cover including a nonmetal material and covering at least part of an outer surface of the explosion-proof casing, characterized in that a part of the explosion-proof casing comprises a portion made of material to allow permeation of electromagnetic waves, the cover includes a nonmetal material which is electrically conductive, and the cover is of a jacket structure for shock absorbability.
Self-propelled, at least single-axle working machine for driving and/or moving mounted implements or attached vehicles, said working machine comprising a hydrostatic drive device driven by a drive motor, preferably by an internal combustion engine, for steerable movement by hydraulic motors (13, 14) of a drive assembly connected to the drive wheels (6, 7) of an axle of the working machine, and preferably being adjustable between a forward or a backward movement, wherein the drive assembly comprises the hydrostatic drive device of the drive wheels (6, 7) and a driving device for a power take-off shaft, wherein the hydrostatic drive device is arranged between the drive motor and the driving device for the power take-off shaft, wherein the hydrostatic drive device comprises for each drive wheel (6, 7) of an axle respective drive units (30, 31) operatively connected to the respective drive wheel (6, 7) and each formed of a hydraulic motor (13, 14) and a switched-in hydraulic pump (25, 26) that can be set and adjusted electromechanically, wherein the drive assembly comprises a main drive shaft switchably connected to the drive motor and to which a gear for driving the power take-off shaft is secured, wherein the drive assembly comprises at the end directed towards the power take-off shaft hydraulic pump gears (22, 23) driven by a drive gear secured to the main drive shaft and wherein the hydraulic pump gears (22, 23) each drive respective hydraulic pumps (25, 26) associated with the drive wheels (6, 7) of the axle of the working machine, associated with a hydrostatic drive device.
A method of damping tower vibrations of a wind turbine which is equipped with rotor blades, a pitch controller and a pitch actuator system, by setting the pitch of the rotor blades, comprising the steps of: - providing a speed reference value for the rotor speed; - providing a rotor speed value representing the speed of the rotor; and - establishing a modification value representing a modification to be done to the speed reference value for taking into account the tower vibrations; - using the modification value to modify the speed reference value to establish a modified speed reference value; - determining a pitch reference value representing a pitch to be set by the pitch actuator system on the basis of at least the difference between the modified speed reference value and the rotor speed value; - controlling the pitch angle of the rotor blades according to the pitch reference value. - providing a speed reference value for the rotor speed; - providing a rotor speed value representing the speed of the rotor; and - establishing a modification value representing a modification to be done to the speed reference value for taking into account the tower vibrations; - using the modification value to modify the speed reference value to establish a modified speed reference value; - determining a pitch reference value representing a pitch to be set by the pitch actuator system on the basis of at least the difference between the modified speed reference value and the rotor speed value; - controlling the pitch angle of the rotor blades according to the pitch reference value.
Compounds containing uretdione groups, having a molar fraction of isocyanurate structures, based on the sum of uretdione groups and isocyanurate groups, of not more than 10%, obtainable by dimerizing aliphatic and/or cycloaliphatic mono-and/or diisocyanates containing exclusively secondary and/or tertiary isocyanate groups in the presence of saltlike oligomerization catalysts which contain 1,2,3- and/or 1,2,4-triazolate structures in the anion.
A bioreactor for culturing, fermenting or processing a biomass comprising: a presterilized, disposable housing having a top (16;16a) and a body, the body having an interior space, wherein the housing is rigid in that it is made of a molded plastic or is semi-rigid in that the top and a bottom are made of molded plastic and a side wall is made of a flexible plastic; and one or more ports (30,32) formed in the top (16;16a) and/or the body respectively of the housing and in fluid communication with the interior space of the body; wherein the body is sealably attached to the top (16;16a) by a mechanical seal formed by a rubber seal and clips or clamps, and wherein at least one port (30,32) is provided in the body at a level below a normal liquid/air interface of the housing. a presterilized, disposable housing having a top (16;16a) and a body, the body having an interior space, wherein the housing is rigid in that it is made of a molded plastic or is semi-rigid in that the top and a bottom are made of molded plastic and a side wall is made of a flexible plastic; and one or more ports (30,32) formed in the top (16;16a) and/or the body respectively of the housing and in fluid communication with the interior space of the body; wherein the body is sealably attached to the top (16;16a) by a mechanical seal formed by a rubber seal and clips or clamps, and wherein at least one port (30,32) is provided in the body at a level below a normal liquid/air interface of the housing.
A system for implementing Quality of Service, QoS, for a connection between a source node and a destination node, the system comprising: a receiver that receives data transferred between the source node and the destination node; a transmitter that transmits data between the source node and the destination node; characterized in that the system comprises a computer-readable storage medium comprising: a policy database that stores QoS policies for nodes and applications serviced by a router, and a connection database that stores information used to identify connections for serviced nodes; a Deep Packet Inspection, DPI, processor configured to intercept a control message transferred between the source node and the destination node over a control channel, extract connection information regarding the connection from the control message, and store the connection information in the connection database; and a general processor that modifies the QoS for packets belonging to the connection using QoS information obtained by querying the policy database using the connection information.
A method of producing liquid or gaseous methane by an anaerobic digestion process and delivering said liquid or gaseous methane to a cryogenic liquid methane storage unit, and controlling a temperature and pressure of said cryogenic liquid methane storage unit, comprising: generating methane gas from a reservoir of liquid methane stored within said methane storage unit; venting said methane gas through one or more outlet valves (424, 430) connected to said methane storage unit; characterized in that the method comprises: generating electric power using said vented methane gas; and initiating a cooling cycle using said generated electric power, wherein said cooling cycle reduces the temperature of said reservoir of liquid methane and reduces the pressure in said methane storage unit. generating methane gas from a reservoir of liquid methane stored within said methane storage unit; venting said methane gas through one or more outlet valves (424, 430) connected to said methane storage unit; characterized in that the method comprises: generating electric power using said vented methane gas; and initiating a cooling cycle using said generated electric power, generating electric power using said vented methane gas; and initiating a cooling cycle using said generated electric power, wherein said cooling cycle reduces the temperature of said reservoir of liquid methane and reduces the pressure in said methane storage unit.
Element for sound absorption, in particular intended for being mounted on components of aircrafts, such as engine nacelles; said element comprising: - a face-sheet, which is, at least in a region thereof, acoustically permeable; - a substantially sound-reflective back-sheet; and - a honeycomb layer sandwiched between said face-sheet and said back-sheet and defining a mesh structure which has a plurality of hollow cells (34, 34') laterally adjacent one another and wherein the mutually opposite open axial ends of said cells (34, 34') are covered by the face sheet and back sheet; said cells (34, 34') being adapted to make the sound waves that enter through said face-sheet and are reflected by said back-sheet resonate inside their side walls; said element having at least one notch made on a bottom of at least one substantially sound reflecting delimiting wall defined in said honeycomb layer and positioned between said cells (34, 34'); said bottom resting on said back-sheet; said notch connecting together a group consisting of a pair of said cells (34, 34') which are laterally adjacent in said mesh structure, and passing through said at least one delimiting wall, thereby causing said cells (34, 34') to acoustically cooperate with one another; wherein said element further comprises substantially sound-absorbing intermediate dividers positioned in the honeycomb layer and housed in both acoustically cooperating cells (34, 34'), so that said intermediate dividers transversally divide said acoustically cooperating cells (34, 34'); wherein said face-sheet has at least one acoustically permeable portion capable of being passed through by a prevalent portion of the incident sound waves; characterized in that said face-sheet has also at least one acoustically reflective portion; said group of acoustically cooperating cells (34, 34') including at least one cell facing said acoustically permeable portion and at least one other cell facing said acoustically reflective portion. - a face-sheet, which is, at least in a region thereof, acoustically permeable; - a substantially sound-reflective back-sheet; and - a honeycomb layer sandwiched between said face-sheet and said back-sheet and defining a mesh structure which has a plurality of hollow cells (34, 34') laterally adjacent one another and wherein the mutually opposite open axial ends of said cells (34, 34') are covered by the face sheet and back sheet;
A method for manufacturing a flexible structure, the method comprising the following steps: - implanting ionic species in a first source substrate so as to form a first embrittlement region (3.5) delimiting a first thin film notably consisting of a single-crystal material, - implanting ionic species in a second source substrate so as to form a second embrittlement region (4.6) delimiting a second thin film, notably consisting of a single-crystal material, - providing a flexible substrate, the stiffness R of which is less than or equal to 10 7 GPa.μm 3, - securing the first and second thin films (3, 4) respectively to the first face and to the second face of the flexible substrate so as to form a stack including the flexible structure delimited by the first and second embrittlement regions (3.5, 4.6), the flexible structure having a stiffening effect suitable for allowing transfers of the first and second thin films (3, 4), and - applying a fracture thermal budget for transferring the first and second thin films (3, 4) onto the flexible substrate. - implanting ionic species in a first source substrate so as to form a first embrittlement region (3.5) delimiting a first thin film notably consisting of a single-crystal material, - implanting ionic species in a second source substrate so as to form a second embrittlement region (4.6) delimiting a second thin film, notably consisting of a single-crystal material, - providing a flexible substrate, the stiffness R of which is less than or equal to 10 7 GPa.μm 3, - securing the first and second thin films (3, 4) respectively to the first face and to the second face of the flexible substrate so as to form a stack including the flexible structure delimited by the first and second embrittlement regions (3.5, 4.6), the flexible structure having a stiffening effect suitable for allowing transfers of the first and second thin films (3, 4), and - applying a fracture thermal budget for transferring the first and second thin films (3, 4) onto the flexible substrate.
A composition comprising an Fc heterodimer protein in crystalline form, wherein: said Fc heterodimer protein comprises the amino acid sequences set forth in (i) SEQ ID NOS:2 and 3 or (ii) SEQ ID NOS:4 and 3; said crystal is in space group P2 1 2 1 2 1; and said crystal has unit cell dimensions a = 49 ± 2 Å, b = 75 ± 2 Å, c = 149 ± 2 Å, α = β = γ = 90°. said Fc heterodimer protein comprises the amino acid sequences set forth in (i) SEQ ID NOS:2 and 3 or (ii) SEQ ID NOS:4 and 3; said crystal is in space group P2 1 2 1 2 1; and said crystal has unit cell dimensions a = 49 ± 2 Å, b = 75 ± 2 Å, c = 149 ± 2 Å, α = β = γ = 90°.
A method for imaging at least one given element in a given material of a sample including: a) acquiring diffraction patterns of a plurality of locations of a given zone of the sample by scanning, by means of an electron or X-ray beam, the given zone, b) determining an atomistic model between the given element and the given material, the atomistic model being adapted to each chemical element to be mapped, c) selecting a plurality of elementary detectors depending on the atomistic model, the elementary detectors being not real digital detectors, b) calculating, for each elementary detector, theoretical images, in the real-space, which are obtained from the atomistic model with an element and from the atomistic model without an element for a given instrumental physical setting and from diffraction pattern data acquired in step a), e) calculating, for each elementary detector, the difference between the images in the real space which are obtained from the atomistic model with an element and from the atomistic model without an element, called the first images, f) selecting images from the first images, on which there is a high contrast in the vicinity of the given element, g) combining the images selected to form a second image of the given element of the given material. a) acquiring diffraction patterns of a plurality of locations of a given zone of the sample by scanning, by means of an electron or X-ray beam, the given zone, b) determining an atomistic model between the given element and the given material, the atomistic model being adapted to each chemical element to be mapped, c) selecting a plurality of elementary detectors depending on the atomistic model, the elementary detectors being not real digital detectors, b) calculating, for each elementary detector, theoretical images, in the real-space, which are obtained from the atomistic model with an element and from the atomistic model without an element for a given instrumental physical setting and from diffraction pattern data acquired in step a), e) calculating, for each elementary detector, the difference between the images in the real space which are obtained from the atomistic model with an element and from the atomistic model without an element, called the first images, f) selecting images from the first images, on which there is a high contrast in the vicinity of the given element, g) combining the images selected to form a second image of the given element of the given material.
A terminal apparatus (1, 1A, 1B, 1C), comprising: a receiver configured to receive non-demand System Information, SI, and on-demand SI, the non-demand SI including information for configuring which one of Physical Random Access Channel, PRACH, and Physical Uplink Shared Channel, PUSCH, to be used to transmit a system information request, the system information request being to request transmission of the on-demand SI; and a transmitter configured to transmit the system information request by using either the PRACH or the PUSCH based on the information included in the non-demand SI. a receiver configured to receive non-demand System Information, SI, and on-demand SI, the non-demand SI including information for configuring which one of Physical Random Access Channel, PRACH, and Physical Uplink Shared Channel, PUSCH, to be used to transmit a system information request, the system information request being to request transmission of the on-demand SI; and a transmitter configured to transmit the system information request by using either the PRACH or the PUSCH based on the information included in the non-demand SI.