mhurhangee/ep-ind-claims huggingface dataset:
An electrical grounding system, comprising: an electrically conductive column (74, 512) configured for communication with a fault current source; an electrically conductive layer in conductive relationship with least a portion of the electrically conductive column, wherein the electrically conductive layer comprises a carbon fiber layer comprising a carbon fiber fabric assembled onto at least a portion of the electrically conductive column, characterised by a ground member wherein the ground member defines an exterior surface, wherein upon installation of the electrically conductive column in a hole into which the ground member has been driven, a column chamber is defined between an interior surface of the electrically-conductive column and an exterior surface of the ground member; and an electrolytic fill disposed within the column chamber, the electrolytic fill comprising a material configured to conduct at least a portion of any fault current received by the ground member radially outwardly from the ground member, to the electrically conductive column and the electrically conductive layer. an electrically conductive column (74, 512) configured for communication with a fault current source; an electrically conductive layer in conductive relationship with least a portion of the electrically conductive column, wherein the electrically conductive layer comprises a carbon fiber layer comprising a carbon fiber fabric assembled onto at least a portion of the electrically conductive column, characterised by a ground member wherein the ground member defines an exterior surface, wherein upon installation of the electrically conductive column in a hole into which the ground member has been driven, a column chamber is defined between an interior surface of the electrically-conductive column and an exterior surface of the ground member; and an electrolytic fill disposed within the column chamber, the electrolytic fill comprising a material configured to conduct at least a portion of any fault current received by the ground member radially outwardly from the ground member, to the electrically conductive column and the electrically conductive layer.
A thermal power generation system, being a solar-thermal complementary power generation system, the system comprising a solar concentration and heat supply module, a boiler heat supply module, and a turbo generator unit, wherein the solar concentration and heat supply module comprises a preheating section and a steam-water two phase evaporation section which are connected in series, the preheating section comprises an evacuated solar collector tube, and the steam-water two phase evaporation section comprises an automatic heat equalizing trough type module; at least one steam-water separator is connected in series to an output tube at one end of the steam-water two phase evaporation section; a steam output end of the steam-water separator converges with an output end of a boiler steam drum, and converged steam is transported to the turbo generator unit via a superheater of the boiler heat supply module; a separated water output end of the steam-water separator is connected to a solar automatic heat collecting and equalizing tube of the automatic heat equalizing trough type module via a backflow pipe; a condenser output end of the turbo generator unit is connected to a water supply module; the water supply module comprises one water inlet pipe and two water outlet pipes, one water outlet pipe communicates with a first evacuated solar collector tube, and the second water outlet pipe communicates with a boiler water supply pipe; the solar automatic heat collecting and equalizing tube of the automatic heat equalizing trough type module is disposed at a focal point of a parabolic trough reflector (1b1); the solar automatic heat collecting and equalizing tube comprises a glass tube (1b2), an absorption tube (1b3), and a baffle (1b4); the glass tube (1b2) is sleeved on the absorption tube (1b2); the absorption tube (1b2) is coated with a heat absorption layer; a space between the glass tube and the absorption tube is vacuum; the baffle (1b4) is disposed in an inner cavity of the absorption tube (1b3) and is configured to drive a fluid in the absorption tube (1b3) to tumble up and down alternately; and the baffle (1b4) is spiral in shape and fixed in the absorption tube (1b3).
Compressed air valve for supplying clean gas, in particular a 2/2-way valve for dedusting processes, having a housing, which comprises a clean-gas inlet for connecting to at least one pressurised clean-gas reservoir, and at least one valve outlet for the pulsed release of clean gas, which inlet and outlet can be separated from each other by a valve membrane and can be interconnected when the valve membrane is lifted from the valve seat, characterised in that, between the clean-gas inlet and the valve outlet, in each operating state, at least one forced leakage connection, which is formed by a leakage opening, is present in the valve membrane,, through which opening clean gas overflows to the valve outlet and which, as a result, separates crude gas developing here from valve components therein, in particular from the valve membrane, the valve seat and the valve outlet.
An outer seal structure for a rotor assembly comprising: a stator structure; and a non-contact seal assembly, fixed relative to the stator structure, the non-contact seal assembly comprising: a plurality of seal shoes arranged about an axis in an annular array; a seal base circumscribing the annular array of the plurality of seal shoes; a plurality of spring elements, each of the plurality of spring elements extending radially between a respective seal shoe of the plurality of seal shoes and the seal base; and a shoe support plate arranged about the axis and mounted to the stator structure, characterised in that the shoe support plate comprises a plurality of shoe support tabs extending axially from the shoe support plate; wherein each shoe support tab of the plurality of shoe support tabs is disposed between each adjacent pair of seal shoes of the plurality of seal shoes. a stator structure; and a non-contact seal assembly, fixed relative to the stator structure, the non-contact seal assembly comprising: a plurality of seal shoes arranged about an axis in an annular array; a seal base circumscribing the annular array of the plurality of seal shoes; a plurality of spring elements, each of the plurality of spring elements extending radially between a respective seal shoe of the plurality of seal shoes and the seal base; and a shoe support plate arranged about the axis and mounted to the stator structure, characterised in that the shoe support plate comprises a plurality of shoe support tabs extending axially from the shoe support plate; wherein each shoe support tab of the plurality of shoe support tabs is disposed between each adjacent pair of seal shoes of the plurality of seal shoes. a plurality of seal shoes arranged about an axis in an annular array; a seal base circumscribing the annular array of the plurality of seal shoes; a plurality of spring elements, each of the plurality of spring elements extending radially between a respective seal shoe of the plurality of seal shoes and the seal base; and a shoe support plate arranged about the axis and mounted to the stator structure, characterised in that the shoe support plate comprises a plurality of shoe support tabs extending axially from the shoe support plate; wherein each shoe support tab of the plurality of shoe support tabs is disposed between each adjacent pair of seal shoes of the plurality of seal shoes.
A method for a terminal in a wireless communication system, the method comprising: receiving information on a conventional uplink/downlink, UL/DL, configuration; receiving configuration information for adaptively configured time division duplex, TDD, system, wherein the configuration information includes a reference UL/DL configuration which is for transmitting HARQ-ACK information from the terminal;and receiving information on a first adapted UL/DL configuration; operating using the first adapted UL/DL configuration; characterised in that the method further comprises: determining whether information indicating a second adapted UL/DL configuration is detected, after a known validity period of the first adapted UL/DL configuration; and operating using the conventional UL/DL configuration and transmitting the HARQ-ACK information based on the reference UL/DL configuration, in case that the terminal does not detect the information indicating the second adapted UL/DL configuration, wherein the known validity period corresponds to a multiple of radio frames. receiving information on a conventional uplink/downlink, UL/DL, configuration; receiving configuration information for adaptively configured time division duplex, TDD, system, wherein the configuration information includes a reference UL/DL configuration which is for transmitting HARQ-ACK information from the terminal;and receiving information on a first adapted UL/DL configuration; operating using the first adapted UL/DL configuration; characterised in that the method further comprises: determining whether information indicating a second adapted UL/DL configuration is detected, after a known validity period of the first adapted UL/DL configuration; and operating using the conventional UL/DL configuration and transmitting the HARQ-ACK information based on the reference UL/DL configuration, in case that the terminal does not detect the information indicating the second adapted UL/DL configuration, determining whether information indicating a second adapted UL/DL configuration is detected, after a known validity period of the first adapted UL/DL configuration; and operating using the conventional UL/DL configuration and transmitting the HARQ-ACK information based on the reference UL/DL configuration, in case that the terminal does not detect the information indicating the second adapted UL/DL configuration, wherein the known validity period corresponds to a multiple of radio frames.
A vibration damping counterbalance unit for an inceptor apparatus, said unit counterbalancing the inceptor of said inceptor apparatus and comprising: a wall defining a cavity; and a plurality of vibration damping masses housed within the cavity, wherein the cavity is configured such that the vibration damping masses are free to move in any direction relative to the cavity wall and each other. a wall defining a cavity; and a plurality of vibration damping masses housed within the cavity, wherein the cavity is configured such that the vibration damping masses are free to move in any direction relative to the cavity wall and each other.
A method for allocating resources in a wireless communication system using Frequency Division Multiple Access, FDMA, the method comprising: dividing entire frequency resources into predetermined sub-bands each having a predetermined number of sub-channels, dividing slots for transmitting each sub-channel into slots used only for Wide-band hopped Hybrid Automatic Repeat Request, WBH-HARQ and slots used only for Sub-band hopped Hybrid Automatic Repeat Request, SBH-HARQ, wherein for SBH-HARQ frequency hopping is performed in the sub-bands corresponding to the allocated sub-channels; allocating resources for transmission data to mobile stations which involves selecting one of the slots used for the WBH-HARQ and the slots for the SBH-HARQ; converting the transmission data into a predetermined transmission format based on the resources allocated; and providing resource information on the selected slots to the mobile stations and transmitting the converted transmission data by performing frequency hopping HARQ transmission according to the type of the allocated resources. dividing entire frequency resources into predetermined sub-bands each having a predetermined number of sub-channels, dividing slots for transmitting each sub-channel into slots used only for Wide-band hopped Hybrid Automatic Repeat Request, WBH-HARQ and slots used only for Sub-band hopped Hybrid Automatic Repeat Request, SBH-HARQ, wherein for SBH-HARQ frequency hopping is performed in the sub-bands corresponding to the allocated sub-channels; allocating resources for transmission data to mobile stations which involves selecting one of the slots used for the WBH-HARQ and the slots for the SBH-HARQ; converting the transmission data into a predetermined transmission format based on the resources allocated; and providing resource information on the selected slots to the mobile stations and transmitting the converted transmission data by performing frequency hopping HARQ transmission according to the type of the allocated resources.
Device for simulating the function of a mortar, with a mortar, the mortar comprising a stand, which is arranged on a mortar barrel, and also a base plate for setting up the mortar, characterized in that the device is arranged almost completely in the mortar barrel in a neutral position and protruding out of the mortar barrel in an operational position out of the mortar barrel in comparison with the neutral position, the device comprising a carrier and a further carrier that is pivotable in relation thereto, the longitudinal axis of the carrier being arranged in the longitudinal axis of the mortar barrel both in the neutral position and in the operational position of the device.
N. eutropha bacterium: a) as deposited under ATCC accession number PTA-121157; or b) comprising a circular genome having SEQ ID NO: 1 or its complement. a) as deposited under ATCC accession number PTA-121157; or b) comprising a circular genome having SEQ ID NO: 1 or its complement.
Micro-optomechanical system, comprising - at least one optical subsystem configured for emitting at least one optical actuator signal and for receiving at least one optical sensor signal; and - at least one optomechanical structure which is produced in direct contact with the optical subsystem by means of a direct writing microstructuring method, wherein the optomechanical structure comprises at least one optical actuator element and at least one optical sensor element, wherein the optical actuator element in interaction with the optical actuator signal is configured for changing a mechanical state of the optomechanical structure, and wherein the optical sensor element in interaction with the optical sensor signal is configured for detecting the change in the mechanical state of the optomechanical structure or a variable related thereto, characterized in that the optomechanical structure is produced from a photoresist. - at least one optical subsystem configured for emitting at least one optical actuator signal and for receiving at least one optical sensor signal; and - at least one optomechanical structure which is produced in direct contact with the optical subsystem by means of a direct writing microstructuring method, wherein the optomechanical structure comprises at least one optical actuator element and at least one optical sensor element,
A set of thin foil surfaces configured to achieve a joint among the foil surfaces, the joint being arranged to be without discontinuity, comprising at least a first portion of surface dedicated to achieve the joint; the set of thin foil surfaces being characterized in that it further comprises pixelized type embossings on the first portion of surface; at least a second portion of surface dedicated to achieve the joint; whereby the second portion of surface is shaped to correspond to the first portion of surface for making the joint between the first portion of surface and the second portion of surface through contact.
A receiving block for a ligature for woodwind instruments, such as clarinet or saxophone, in order to clamp a reed to a mouthpiece of the woodwind instrument, while preventing twisting or sliding, by exerting a compressive force onto the reed, so that an axis of symmetry or longitudinal direction of the reed is aligned with an axis of symmetry or longitudinal direction of a bearing surface of the mouthpiece, wherein the reed can be coupled to a mechanism (6,8) of the receiving block or ligature either in a force-fitting or in a form-fitting manner with at least one side surface of the reed, wherein the receiving block is formed for use as a preassembled arrangement (7, 19) with a reed being mountable on the mouthpiece, wherein the reed, before the clamping of the receiving block or the ligature on the mouthpiece, is coupled in its predetermined relative position with respect to the ligature with the receiving block either in a force-fitting or even form-fitting and force-fitting manner, characterized in that the receiving block has at least one bow, springy elastic or formed with springy elastic material and mounted in the middle and/or so as to rotate which is formed for exerting a force-fit with a side surface of an insertable or inserted reed. wherein the receiving block is formed for use as a preassembled arrangement (7, 19) with a reed being mountable on the mouthpiece, wherein the reed, before the clamping of the receiving block or the ligature on the mouthpiece, is coupled in its predetermined relative position with respect to the ligature with the receiving block either in a force-fitting or even form-fitting and force-fitting manner, characterized in that the receiving block has at least one bow, springy elastic or formed with springy elastic material and mounted in the middle and/or so as to rotate which is formed for exerting a force-fit with a side surface of an insertable or inserted reed.
A rheological measurement system comprising: a flow through rheometer including an inlet and an outlet; a tube connected to the inlet of the rheometer; a heater surrounding a portion of the tube external to the rheometer, wherein the heater is configured to heat at least a portion of the tube; and a thermowell connection adapter attached to the tube, wherein the thermowell connection adapter is constructed and arranged to be attached to an aperture located along a flow path of a viscous material in an extruder or injection molding system, and wherein an open end of the thermowell connection adapter is in fluid communication with the inlet of the flow through rheometer through the tube, wherein the thermowell connection adapter includes a 1⁄2-20 threaded connection, wherein the tube and heater are configured to maintain a temperature of the viscous material above a predetermined temperature after the viscous material passes through the 1⁄2-20 threaded connection before reaching the flow through rheometer. a flow through rheometer including an inlet and an outlet; a tube connected to the inlet of the rheometer; a heater surrounding a portion of the tube external to the rheometer, wherein the heater is configured to heat at least a portion of the tube; and a thermowell connection adapter attached to the tube, wherein the thermowell connection adapter is constructed and arranged to be attached to an aperture located along a flow path of a viscous material in an extruder or injection molding system, and wherein an open end of the thermowell connection adapter is in fluid communication with the inlet of the flow through rheometer through the tube, wherein the thermowell connection adapter includes a 1⁄2-20 threaded connection, wherein the tube and heater are configured to maintain a temperature of the viscous material above a predetermined temperature after the viscous material passes through the 1⁄2-20 threaded connection before reaching the flow through rheometer.
Method for controlling a rail system which has a plurality of field elements, in which the current status information of the field elements is displayed for an operator in an identifiable manner in an overview image and in which a predetermined safety-relevant status change of at least one field element is only carried out when a predetermined operator action has been carried out by the operator, characterised in that when the predetermined safety-relevant status change is requested, at least one special image assigned to the field element is displayed automatically for the operator in an identifiable manner and the predetermined operator action is carried out by the operator in the special image with the aid of the special image, wherein, in the special image, the status information of fewer field elements than in the overview image is displayed, wherein the special image has at least one operator element, in particular a button, not present in the overview image, and the at least one special image is removed automatically after the operator has carried out an operator action and the overview image is displayed for the operator in an identifiable manner. in which a predetermined safety-relevant status change of at least one field element is only carried out when a predetermined operator action has been carried out by the operator, characterised in that when the predetermined safety-relevant status change is requested, at least one special image assigned to the field element is displayed automatically for the operator in an identifiable manner and the predetermined operator action is carried out by the operator in the special image with the aid of the special image, wherein, in the special image, the status information of fewer field elements than in the overview image is displayed, wherein the special image has at least one operator element, in particular a button, not present in the overview image, and the at least one special image is removed automatically after the operator has carried out an operator action and the overview image is displayed for the operator in an identifiable manner.
Method for regulating a combustion in a heater in the case of variable power by means of an ionisation signal, measured in a flame area of the heater driven with combustion air and fuel gas, which is derived from an ion flow, flowing from an ionisation electrode to a counter electrode through the flame area, which is generated by an ionisation AC voltage with a predeterminable frequency (f), wherein the ratio (lambda value) of combustion air to fuel gas during the combustion in the heater is determined on the basis of calibration data from the ionisation signal and is regulated by adjusting the supply of fuel gas and/or the supply of combustion air, having the following steps: 1.1 The ionisation signal contains a positive and a negative component which are considered separately from one another; 1.2 The positive component depends on the ratio of combustion air to fuel gas (lambda value) and is used for determining the ionisation signal; 1.3 The negative component and/or its ratio to the positive component depend on the current power of the heater, which is determined by means of an analysis unit from empirical values or from calibration data; 1.4 The information regarding the current power of the heater is used to select suitable calibration data for this power for regulating the ratio of combustion air to fuel gas (lambda value). 1.1 The ionisation signal contains a positive and a negative component which are considered separately from one another; 1.2 The positive component depends on the ratio of combustion air to fuel gas (lambda value) and is used for determining the ionisation signal; 1.3 The negative component and/or its ratio to the positive component depend on the current power of the heater, which is determined by means of an analysis unit from empirical values or from calibration data; 1.4 The information regarding the current power of the heater is used to select suitable calibration data for this power for regulating the ratio of combustion air to fuel gas (lambda value).
A frame assembly for a work table comprising a longitudinal extension and a modular structure with a support member and with at least one contact element, with at least one replaceable contact element being mountable on an upper face of the support member, characterised in that the contact element forms a supporting surface for a workpiece, and that the contact element is solid and comprises a rectangular cross-section so that it is optionally fastenable on the support member with at least two different lateral surfaces (3a, 3b).