mhurhangee/ep-ind-claims huggingface dataset:
A machine tool including; a cover body for separating at least a machining area from an outside; and an operation panel, the cover body having an opening for allowing the machining area to communicate with the outside and being configured to include a door for opening and closing the opening, characterized in that the cover body does not include a window for allowing the machining area to be visually checked from the outside, the door comprises an outer member and an inner member which are arranged in parallel with a predetermined distance between them, the machine tool further includes: a transparent member disposed in a space between the inner member and the outer member; a casing disposed in the space between the inner member and the outer member, the casing closing an opening formed in the inner member from the outer member side and having an opening on the inner member side, wherein the transparent member is between the opening of the inner member and the opening of the casing; a camera disposed within the casing for capturing an image of the machining area through the transparent member, and the opening of the inner member; and a display disposed on an outer surface of the outer member for displaying the image captured by the camera, the camera disposed within the casing comprises: a camera body; a support supporting the camera body in a manner such that the camera body is able to turn laterally and vertically; and a turning mechanism (18, 19) configured to be manually operated from the outside to cause the camera body to turn laterally and vertically, and the machine tool further includes an operating device provided on the operation panel for manually operating the turning mechanism (18, 19). a transparent member disposed in a space between the inner member and the outer member; a casing disposed in the space between the inner member and the outer member, the casing closing an opening formed in the inner member from the outer member side and having an opening on the inner member side, wherein the transparent member is between the opening of the inner member and the opening of the casing; a camera disposed within the casing for capturing an image of the machining area through the transparent member, and the opening of the inner member; and a display disposed on an outer surface of the outer member for displaying the image captured by the camera, a camera body; a support supporting the camera body in a manner such that the camera body is able to turn laterally and vertically; and a turning mechanism (18, 19) configured to be manually operated from the outside to cause the camera body to turn laterally and vertically, and
A method of estimating the yield stress of a flowing yield stress fluid using one or more vibratory transducers (400 to 440, 500, 600, 700) having a vibratory surface in contact with the yield stress fluid, the method comprising: vibrating one or more vibratory surfaces of the one or more vibratory transducers to transmit a plurality of waves from the one or more vibratory surfaces into a viscoplastic boundary layer of the flowing yield stress fluid; making, using the vibrations of the one or more vibratory transducers, a plurality of measurements of the viscosity, wherein a first measurement of viscosity is made with the vibratory surface of a vibratory transducer vibrating at a first frequency of vibration to transmit a wave that propagates a first distance into the viscoplastic boundary layer of the flowing yield stress fluid, wherein a second measurement of viscosity is made with the vibratory surface of a vibratory transducer vibrating at a second frequency of vibration that is different from the first frequency to transmit a wave that propagates a second distance into the viscoplastic boundary layer of the flowing yield stress fluid that is lower than the first distance; and estimating the yield stress of the flowing yield stress fluid based on a linear combination of the first and second measurements of the viscosity. vibrating one or more vibratory surfaces of the one or more vibratory transducers to transmit a plurality of waves from the one or more vibratory surfaces into a viscoplastic boundary layer of the flowing yield stress fluid; making, using the vibrations of the one or more vibratory transducers, a plurality of measurements of the viscosity, wherein a first measurement of viscosity is made with the vibratory surface of a vibratory transducer vibrating at a first frequency of vibration to transmit a wave that propagates a first distance into the viscoplastic boundary layer of the flowing yield stress fluid, wherein a second measurement of viscosity is made with the vibratory surface of a vibratory transducer vibrating at a second frequency of vibration that is different from the first frequency to transmit a wave that propagates a second distance into the viscoplastic boundary layer of the flowing yield stress fluid that is lower than the first distance; and estimating the yield stress of the flowing yield stress fluid based on a linear combination of the first and second measurements of the viscosity.
Thermochemical energy storage (100, 101), comprising - one or more thermochemical cells (1, 1a, 1b, 1c, 1d), each comprising a container in which, in an operating state, a reaction phase comprising at least one reactant and solvent, and a gas phase, comprising a carrier gas enriched with solvent, is formed, - a primary heat medium circuit with a heat transfer medium for removing and introducing thermal energy from the thermochemical energy storage (100, 101) or in the thermochemical energy storage (100, 101), - a fluid circuit for diverting the carrier gas from at least one of the thermochemical cells (1, 1a, 1b, 1c, 1d) and for introducing the carrier gas in at least one of the thermochemical cells (1, 1a, 1b, 1c, 1d), - at least one solvent line for introducing solvent into the reaction phase of at least one of the thermochemical cells (1, 1a, 1b, 1c, 1d), whereby the reactant is selected from a group consisting of salts, hydroxides, carbonates and ionic liquids, so that when the solvent is fed into the reaction phase of at least one of the thermochemical cells (1, 1a, 1b, 1c, 1d), due to an exothermic reaction of the reactant with the solvent, thermal energy is released to the heat transfer medium in the primary heat medium circuit and when heat is supplied via the heat transfer medium to the reaction phase of at least one of the thermochemical cells (1, 1a, 1b, 1c, 1d), solvent is transferred from the reaction phase into the gas phase, and wherein the container of the at least one thermochemical cell (1, 1a, 1b, 1c, 1d) comprises a fluid inlet and a fluid outlet connected to the fluid circuit, which end in the gas phase in the container, respectively. - one or more thermochemical cells (1, 1a, 1b, 1c, 1d), each comprising a container in which, in an operating state, a reaction phase comprising at least one reactant and solvent, and a gas phase, comprising a carrier gas enriched with solvent, is formed, - a primary heat medium circuit with a heat transfer medium for removing and introducing thermal energy from the thermochemical energy storage (100, 101) or in the thermochemical energy storage (100, 101), - a fluid circuit for diverting the carrier gas from at least one of the thermochemical cells (1, 1a, 1b, 1c, 1d) and for introducing the carrier gas in at least one of the thermochemical cells (1, 1a, 1b, 1c, 1d), - at least one solvent line for introducing solvent into the reaction phase of at least one of the thermochemical cells (1, 1a, 1b, 1c, 1d),
Cooling system for a transport unit, comprising: a supply air opening for the outflow of conditioned air, a circulating-air opening for the inflow of air from a space to be conditioned, an air duct that interconnects the circulating-air opening and the supply air opening, wherein an evaporator element of a cooling circuit is arranged in the air duct, wherein at least one first fresh air opening for the inflow of ambient air into the air duct is provided, characterised in that at least two fresh air openings (6, 61) are provided in total, wherein the first fresh air opening is arranged such that ambient air flowing in through the first fresh air opening reaches the supply air opening without leaving the air duct, only after flowing through the evaporator element, and a second fresh air opening is arranged such that ambient air flowing in through the second fresh air opening reaches the supply air opening without leaving the air duct, without flowing through the evaporator element. a supply air opening for the outflow of conditioned air, a circulating-air opening for the inflow of air from a space to be conditioned, an air duct that interconnects the circulating-air opening and the supply air opening, wherein an evaporator element of a cooling circuit is arranged in the air duct, wherein at least one first fresh air opening for the inflow of ambient air into the air duct is provided, characterised in that at least two fresh air openings (6, 61) are provided in total, wherein the first fresh air opening is arranged such that ambient air flowing in through the first fresh air opening reaches the supply air opening without leaving the air duct, only after flowing through the evaporator element, and a second fresh air opening is arranged such that ambient air flowing in through the second fresh air opening reaches the supply air opening without leaving the air duct, without flowing through the evaporator element.
A method of detecting a calorific abnormality of a gas turbine power generation system, comprising: a step of defining an allowable variation range of a power generation output of a gas turbine with respect to a charged fuel amount or an allowable variation range of the charged fuel amount with respect to the power generation output of the gas turbine based on a charged fuel characteristic representing a relation between the fuel amount charged to a combustor of the gas turbine and the power generation output of the gas turbine at a target calorific value of fuel gas; and a step of detecting a calorific abnormality of fuel gas when an actually charged fuel amount or an actual power generation output of the gas turbine falls outside the allowable variation range. a step of defining an allowable variation range of a power generation output of a gas turbine with respect to a charged fuel amount or an allowable variation range of the charged fuel amount with respect to the power generation output of the gas turbine based on a charged fuel characteristic representing a relation between the fuel amount charged to a combustor of the gas turbine and the power generation output of the gas turbine at a target calorific value of fuel gas; and a step of detecting a calorific abnormality of fuel gas when an actually charged fuel amount or an actual power generation output of the gas turbine falls outside the allowable variation range.
A video display apparatus comprising: a display configured to reproduce a virtual reality video, wherein the virtual reality video includes electrical stimulus data created with the video; a sensor configured to detect a motion of a user (operation 1630) wearing the video display apparatus; and a processor configured to: determine whether to generate a signal for applying an electrical stimulus to a user, based on a motion depicted in the video; and generate the signal based on the electrical stimulus data when a determination to generate the signal is made, wherein the video display apparatus further comprises a communicator configured to transmit the generated signal to an electrical stimulation apparatus, wherein the processor is further configured to compare the intensity of the electrical stimulus recorded in the electrical stimulus data and a motion degree of the user detected by the sensor configured to detect a motion of the user; and characterized in that the processor is further configured to: decrease the intensity of the electrical stimulus if the motion of the user is relatively great as compared with the intensity of the electrical stimulus; and increase the intensity of the electrical stimulus if the motion of the user is relatively small as compared with the intensity of the electrical stimulus. a display configured to reproduce a virtual reality video, wherein the virtual reality video includes electrical stimulus data created with the video; a sensor configured to detect a motion of a user (operation 1630) wearing the video display apparatus; and a processor configured to: determine whether to generate a signal for applying an electrical stimulus to a user, based on a motion depicted in the video; and generate the signal based on the electrical stimulus data when a determination to generate the signal is made, determine whether to generate a signal for applying an electrical stimulus to a user, based on a motion depicted in the video; and generate the signal based on the electrical stimulus data when a determination to generate the signal is made, wherein the video display apparatus further comprises a communicator configured to transmit the generated signal to an electrical stimulation apparatus, wherein the processor is further configured to compare the intensity of the electrical stimulus recorded in the electrical stimulus data and a motion degree of the user detected by the sensor configured to detect a motion of the user; and characterized in that the processor is further configured to: decrease the intensity of the electrical stimulus if the motion of the user is relatively great as compared with the intensity of the electrical stimulus; and increase the intensity of the electrical stimulus if the motion of the user is relatively small as compared with the intensity of the electrical stimulus. decrease the intensity of the electrical stimulus if the motion of the user is relatively great as compared with the intensity of the electrical stimulus; and increase the intensity of the electrical stimulus if the motion of the user is relatively small as compared with the intensity of the electrical stimulus.
A road vehicle wheel with an in-wheel electric motor, the wheel comprising - a rotation axis; - a rim configured for mounting at least one tire on the rim, wherein the rim has first and second ends (120.1, 120.2) along the axis; - a rim support (121,121 a,122,122a) configured for supporting the rim on a non-rotating wheel part such as to allow rotation of the rim with respect to the non-rotating wheel part wherein the rim support comprises first and second plates (121,122) associated with the first and second ends (120.1, 120.2) of the rim so that the rim is supported by the first and second plates (121, 122); - a stator of the in-wheel electric motor, the stator comprising electromagnets and being supported on the non-rotating wheel part, and - a rotor of the in-wheel electric motor, the rotor comprising permanent magnets and being supported on the stator via at least one bearing (13.1,13.2), - an air gap extending in the axial direction between the electromagnets and the permanent magnets, wherein, - the rotor is supported by and provided in between the first and second plates (121,122), - the rim is sized and configured for mounting two tires, - the non-rotating wheel part comprises a hollow shaft and bearings (13.1, 13.2) are provided in between the first and second plates (121,122) of the rim support and the hollow shaft, and - wherein the rim at each tire position axially extends along the rotor, is supported such that any forces exerted on the rim are directly born by the rim support (121,121a,122,122a) and is not in direct contact with the rotor. - a rotation axis; - a rim configured for mounting at least one tire on the rim, wherein the rim has first and second ends (120.1, 120.2) along the axis; - a rim support (121,121 a,122,122a) configured for supporting the rim on a non-rotating wheel part such as to allow rotation of the rim with respect to the non-rotating wheel part wherein the rim support comprises first and second plates (121,122) associated with the first and second ends (120.1, 120.2) of the rim so that the rim is supported by the first and second plates (121, 122); - a stator of the in-wheel electric motor, the stator comprising electromagnets and being supported on the non-rotating wheel part, and - a rotor of the in-wheel electric motor, the rotor comprising permanent magnets and being supported on the stator via at least one bearing (13.1,13.2), - an air gap extending in the axial direction between the electromagnets and the permanent magnets, wherein, - the rotor is supported by and provided in between the first and second plates (121,122), - the rim is sized and configured for mounting two tires, - the non-rotating wheel part comprises a hollow shaft and bearings (13.1, 13.2) are provided in between the first and second plates (121,122) of the rim support and the hollow shaft, and - wherein the rim at each tire position axially extends along the rotor, is supported such that any forces exerted on the rim are directly born by the rim support (121,121a,122,122a) and is not in direct contact with the rotor.
A prefabricated insulating panel for roofing of buildings, comprising: - a lower sheet made of rigid or semirigid material; - an upper sheet made of rigid material, in particular a metal material; and - a layer of thermally insulating material between the lower and upper sheets (2, 3), the panel having two opposite longitudinal ends, defining between them a dimension of length of the panel, and a first edge and a second edge opposite to one another, defining between them a dimension of width of the panel, the side edges (F, R) being shaped in such a way that the first side edge of a said panel can be coupled to the second side edge of a further said panel, wherein the panel has a ridge region that extends between the two side edges (F, R), and wherein the upper sheet is shaped so as to define two inclined surfaces opposite with respect to the ridge region so as to form two opposite pitches of the panel, the ridge region being defined in an intermediate area or area of transition between the two inclined surfaces, characterized in that the upper sheet is corrugated so as to define a plurality of ribbings (6, 7) that extend between the two longitudinal ends substantially parallel to one another and with respect to the two side edges (F, R), and in that the thickness of the layer of insulating material varies from each longitudinal end to the ridge region, the thickness in particular increasing from a minimum, at the longitudinal ends, to a maximum, at the ridge region. - a lower sheet made of rigid or semirigid material; - an upper sheet made of rigid material, in particular a metal material; and - a layer of thermally insulating material between the lower and upper sheets (2, 3),
An artificial heart valve, comprising: a support structure (106, 306, 406) which defines an aperture for blood flow and one or more through holes (160, 370, 480); and a leaflet material integrally formed around the support structure (106, 306, 406) so as to define a flexible leaflet (104, 304, 404), wherein the leaflet material extends through the one or more through holes (160, 370, 480) and around a portion (110, 308, 408) of the support structure (106, 306, 406), and wherein the flexible leaflet (104, 304, 404) extends from the one or more through holes (160, 370, 480). a support structure (106, 306, 406) which defines an aperture for blood flow and one or more through holes (160, 370, 480); and a leaflet material integrally formed around the support structure (106, 306, 406) so as to define a flexible leaflet (104, 304, 404), wherein the leaflet material extends through the one or more through holes (160, 370, 480) and around a portion (110, 308, 408) of the support structure (106, 306, 406), and wherein the flexible leaflet (104, 304, 404) extends from the one or more through holes (160, 370, 480).
Therapeutic device having a form of a cylindrical chamber, the therapeutic device comprises an internal hyperbaric chamber with an insulating apron, LED matrices and inductive coil rings (10, 11, 12, 13) located in coil slideways (6, 7, 8, 9), constructed in one inseparable set in the form of a cylindrical chamber having a length in the range of 200-280 cm and a diameter in the range of 70-130 cm, the therapeutic device further comprises a compressor and an ozone generator configured to supply ozone to the internal chamber.
A particle collecting device for collecting particles from surfaces for a particle analysis when testing the technical cleanliness of test objects, in particular work pieces, machines and/or printed circuit boards, in a suction mode of the particle collecting device, the particle collecting device comprising: a suction line configured for aspirating a particle/air mixture from a surface to be tested; and a particle collection unit configured to filter out aspirated particles of the particle/air mixture before it reaches a vacuum source, characterized in that the particle collecting device comprises a cleaning unit configured in such a manner that the particle collecting device, in particular the suction line and the particle collection unit, can be rinsed in a rinsing mode of the particle collecting device by aspirating a cleaning liquid, in particular water, an aqueous solution or demineralized water, in order to flush out particles accumulated during suction mode. a suction line configured for aspirating a particle/air mixture from a surface to be tested; and a particle collection unit configured to filter out aspirated particles of the particle/air mixture before it reaches a vacuum source, characterized in that the particle collecting device comprises a cleaning unit configured in such a manner that the particle collecting device, in particular the suction line and the particle collection unit, can be rinsed in a rinsing mode of the particle collecting device by aspirating a cleaning liquid, in particular water, an aqueous solution or demineralized water, in order to flush out particles accumulated during suction mode.
A molding device for manufacturing of at least one injected plastic object comprising - at least one mold comprising a first mold half and a second mold half forming a mold cavity, - at least one additional second mold half, - at least one injection nozzle for injecting plastic material into the mold cavity and - a conveying tool for transporting the second mold halves into, through and out of the molding device, wherein the conveying tool comprises - a base level supporting plate comprising at least three parts, wherein a middle part of the base level supporting plate which is located inside of the molding device is movable independently from the two side parts which are located outside of the molding device, characterized in that the conveying tool further comprises at least one sliding unit which is arranged at one of the side parts of the base level supporting plate, wherein the sliding unit is arranged on the conveying tool in that the free space between the sliding unit and the position of the second mold half inside of the molding device is twice or multiple the area covered by one second mold half arranged on the conveying tool, and wherein the second mold halves are arranged in direct contact to each other on the conveying tool. - at least one mold comprising a first mold half and a second mold half forming a mold cavity, - at least one additional second mold half, - at least one injection nozzle for injecting plastic material into the mold cavity and - a conveying tool for transporting the second mold halves into, through and out of the molding device, wherein the conveying tool comprises - a base level supporting plate comprising at least three parts, wherein a middle part of the base level supporting plate which is located inside of the molding device is movable independently from the two side parts which are located outside of the molding device, - a base level supporting plate comprising at least three parts,