mhurhangee/ep-ind-claims huggingface dataset:
Anchoring system comprising a floating platform and at least one pair of anchoring lines, configured to fix or anchor the floating platform to the seabed by means of at least one bottom section of each anchoring line, wherein each anchoring line also comprises a central section attached to a counterweight, wherein each pair of anchoring lines comprises two anchoring lines arranged in a plane that passes through a central axis of the floating platform, and located respectively on one side and the other of the central axis of the floating platform, wherein the anchoring system comprises at least one first rotating fixing means for each anchoring line, where each first rotating fixing means is fixed to a first point of the floating platform and is configured to fix each anchoring line to the floating platform at said first point of the floating platform, allowing the sliding of the anchoring line along said first rotary fixing means, characterized in that: - each anchoring line comprises at least one direct subline and one cross subline, each comprising its own anchoring cable or chain, wherein each direct subline runs from the first rotary fastening means to the counterweight without passing through the central axis of the floating platform, and wherein each cross subline runs from the first rotary fastening means to the counterweight through the central axis of the floating platform; - wherein the system comprises at least one second rotary fastening means for each anchoring line, wherein each second rotary fastening means is fixed to a second point of the floating platform and is configured to fasten each cross subline of each anchoring line to the floating platform at said second point of the floating platform, allowing sliding of the cross subline along said second rotary fastening means, so that each cross subline runs from the first rotary fastening means to the counterweight first through the central axis of the floating platform and secondly sliding along the second rotary fastening means. - each anchoring line comprises at least one direct subline and one cross subline, each comprising its own anchoring cable or chain, wherein each direct subline runs from the first rotary fastening means to the counterweight without passing through the central axis of the floating platform, and wherein each cross subline runs from the first rotary fastening means to the counterweight through the central axis of the floating platform; - wherein the system comprises at least one second rotary fastening means for each anchoring line, wherein each second rotary fastening means is fixed to a second point of the floating platform and is configured to fasten each cross subline of each anchoring line to the floating platform at said second point of the floating platform, allowing sliding of the cross subline along said second rotary fastening means, so that each cross subline runs from the first rotary fastening means to the counterweight first through the central axis of the floating platform and secondly sliding along the second rotary fastening means.
A laser apparatus comprising: a laser medium having a first surface configured such that incident laser light is incident thereon and a second surface facing the first surface; an insulation layer having a thermal conductivity lower than a thermal conductivity of the laser medium; and a cooling device configured to cool the laser medium by directly injecting a jet toward at least a first area of the second surface, wherein the second surface is configured to totally reflect in the first area the incident laser light that is incident to the second surface at an incident angle (θ) equal to or larger than a critical angle, wherein the critical angle is determined based on a refraction index of the laser medium and a refraction index of a fluid of the jet, wherein the insulation layer is a coating configured to cover a second area of the second surface that surrounds the first area of the second surface, so that the jet reaches at least a part of the insulation layer and so that the jet is not directly injected toward the second area, and wherein the laser medium is exposed in the first area. a laser medium having a first surface configured such that incident laser light is incident thereon and a second surface facing the first surface; an insulation layer having a thermal conductivity lower than a thermal conductivity of the laser medium; and a cooling device configured to cool the laser medium by directly injecting a jet toward at least a first area of the second surface, wherein the second surface is configured to totally reflect in the first area the incident laser light that is incident to the second surface at an incident angle (θ) equal to or larger than a critical angle, wherein the critical angle is determined based on a refraction index of the laser medium and a refraction index of a fluid of the jet, wherein the insulation layer is a coating configured to cover a second area of the second surface that surrounds the first area of the second surface, so that the jet reaches at least a part of the insulation layer and so that the jet is not directly injected toward the second area, and wherein the laser medium is exposed in the first area.
Cooling device for a sample in an ion beam etching process, having a sample table for the arrangement of the sample, a coolant container containing a coolant, and at least one thermally conductive element (106a, 106b) for cooling the sample with the aid of the coolant, further containing a cooling finger, which is connected in a heat-conducting manner to the at least one thermally conductive element (106a, 106b), wherein the sample table is connected in a heat-conducting manner to the cooling finger via the at least one thermally conductive element (106a, 106b), and wherein the cooling finger has a channel (130, 131) through which coolant flows and which is connected to the coolant container, and at least one further thermally conductive element, which extends from the cooling finger to a mask holding device for a mask.
A membrane vacuum pump having a suction chamber which can be acted on via a membrane and having an inlet valve as well as having an outlet valve, via which valves a medium is sucked into the suction chamber in a suction phase and is expelled from the suction chamber in a compression phase, wherein the inlet valve, the outlet valve and the membrane are integrated in a single contiguous component, characterized in that a control of the inlet valve and/or of the outlet valve is derived from a drive of the membrane.
Pulse wave velocity measurement system having a cylindrical device for the flow-through of fluid in the direction of a cylinder axis of the device, wherein the device has at least two pressure sensors (3a, 3b) which are arranged at different locations along the cylinder axis and which are configured in such a way that a pressure of the fluid inside the device is measurable by them at different locations along the cylinder axis, wherein the pressure sensors (3a, 3b) are capacitive pressure sensors, the capacitances of which are respectively connected with at least one inductor (12a, 12b) to respectively one resonant circuit (11a, 11b), and the capacitances of which respectively depend on the pressure of the fluid at the location of the measurement, wherein the respective resonant circuits (11a, 11b) are configured in such a way that they are excitable to oscillate by means of at least one electromagnetic field, and also an evaluation unit which is configured in such a way that with it the electromagnetic field is generatable, by means of which the resonant circuits (11a, 11b) are excitable to oscillate, wherein the evaluation unit is configured in such a way that with it the electromagnetic field with resonant frequencies of the resonant circuits (11a, 11b) is generatable and the point in time when the at least one pulse wave (5a, 5b) passes the at least two pressure sensors (3a, 3b) is determinable by measuring a change of the resonance of the respective resonant circuit (11a, 11b), and that from the difference of the points in time of the passing for the at least two pressure sensors (3a, 3b) and the distance of the locations of the measurement from one another a pulse wave velocity is determinable, wherein the evaluation unit is configured in such a way that with it the electromagnetic field is generatable with at least a constant frequency which is a resonant frequency of the resonant circuits at a pressure differing from the normal pressure, and the evaluation unit is configured in such a way that with it it is time-dependently determinable whether a resonant circuit resonates, and successive points in time of the resonating are determinable as points in time of the change of the resonance and thus as points in time of the passing.
A transmission line substrate that transmits a driving control signal input to and output from a semiconductor device, the transmission line substrate comprising a signal line connectable to the semiconductor device and comprising a spurious-wave suppression circuit, wherein the signal line is connected to the spurious-wave suppression circuit and wherein the spurious-wave suppression circuit includes: a divider that divides the signal line into first and second signal lines of the same phase; a delay unit that is connected to the first signal line and includes a signal line with a length of substantially one half of an in-substrate effective wavelength of a spurious wave in a microwave band and a millimeter-wave band; parallel two lines including parallel third and fourth signal lines (53a, 53b), on which spurious waves are in opposite phases, the third signal line being connected to the delay unit and the fourth signal line being connected to the second signal line; a combiner that combines the third and fourth signal lines; and a resistor that is located on the parallel two lines and connects between the third and fourth signal lines, wherein the divider, the delay unit, the parallel two lines, and the combiner are configured by a triplate line including a signal line between upper and lower ground conductor layers. a divider that divides the signal line into first and second signal lines of the same phase; a delay unit that is connected to the first signal line and includes a signal line with a length of substantially one half of an in-substrate effective wavelength of a spurious wave in a microwave band and a millimeter-wave band; parallel two lines including parallel third and fourth signal lines (53a, 53b), on which spurious waves are in opposite phases, the third signal line being connected to the delay unit and the fourth signal line being connected to the second signal line; a combiner that combines the third and fourth signal lines; and a resistor that is located on the parallel two lines and connects between the third and fourth signal lines, wherein the divider, the delay unit, the parallel two lines, and the combiner are configured by a triplate line including a signal line between upper and lower ground conductor layers.
Dye mixture comprising at least one dye of formula and at least one dye of formula and at least one dye selected from the group consisting of the dyes of formula,,, and and and one dye of formula and optionally at least one dye selected from the group consisting of the dyes of formula and and wherein independent from each other R 2 and R 3 is hydrogen, (C 1 -C 4)-alkoxy or (C 1 -C 4)-alkyl, R 4 to R 11 is (C 1 -C 4)-alkyl, -(CH 2) n -O-(C 1 -C 4)-alkyl, -(CH 2) n -O-CO-(C 1 -C 4)-alkyl or -(CH 2) n -COO-(C 1 -C 4)-alkyl, X 1 and X 2 is nitro, cyano, carboxy or CO-NR 2 R 3, X 3 and X 4 is hydrogen, cyano or nitro, Y 1 is -(CH 2) m -phenyl substituted by Y 2, wherein Y 2 is hydrogen, nitro, cyano, carboxy, (C 1 -C 4)-alkyl or (C 1 -C 4)-alkyoxy, n is 1, 2, 3 or 4 and m is 1, 2, 3 or 4. R 2 and R 3 is hydrogen, (C 1 -C 4)-alkoxy or (C 1 -C 4)-alkyl, R 4 to R 11 is (C 1 -C 4)-alkyl, -(CH 2) n -O-(C 1 -C 4)-alkyl, -(CH 2) n -O-CO-(C 1 -C 4)-alkyl or -(CH 2) n -COO-(C 1 -C 4)-alkyl, X 1 and X 2 is nitro, cyano, carboxy or CO-NR 2 R 3, X 3 and X 4 is hydrogen, cyano or nitro, Y 1 is -(CH 2) m -phenyl substituted by Y 2, wherein Y 2 is hydrogen, nitro, cyano, carboxy, (C 1 -C 4)-alkyl or (C 1 -C 4)-alkyoxy, n is 1, 2, 3 or 4 and m is 1, 2, 3 or 4.
Spatial element, in particular for cooling, heating and/or for sound absorption, comprising: - a first cover layer; - a second cover layer which is spaced apart from the first cover layer; - a pipe device; - at least one carrier element which supports the pipe device and is arranged between the cover layers (20, 30); - wherein the carrier element has a first contact surface which is in heat-conducting contact with the first cover layer, and a second contact surface which is in heat-conducting contact with the second cover layer, - wherein the carrier element has a contact portion which is in heat-conducting contact with the pipe device, - wherein the carrier element has a first web, a second web and a connecting portion which connects the first web to the second web, characterized in that the first web and the second web extend substantially orthogonally to the cover layers (20, 30) and the connecting portion extends approximately parallel to the cover layers (20, 30). - a first cover layer; - a second cover layer which is spaced apart from the first cover layer; - a pipe device; - at least one carrier element which supports the pipe device and is arranged between the cover layers (20, 30); - wherein the carrier element has a first contact surface which is in heat-conducting contact with the first cover layer, and a second contact surface which is in heat-conducting contact with the second cover layer, - wherein the carrier element has a contact portion which is in heat-conducting contact with the pipe device, - wherein the carrier element has a first web, a second web and a connecting portion which connects the first web to the second web, characterized in that the first web and the second web extend substantially orthogonally to the cover layers (20, 30) and the connecting portion extends approximately parallel to the cover layers (20, 30).
A flexible element having at least one corrugated bellows, wherein the flexible element is hollow and has a first end and a second end, wherein the variable contour of the flexible element in a cross-section along a y-axis, which is transverse to the longitudinal axis, x-axis, of the flexible element and orientated in the width direction, always has an angle to the y-axis of greater than 30° between a first vertex and a second vertex, characterised in that the flexible element is produced by means of additive manufacturing processes along the z-axis, which is transverse to the y-axis and the x-axis and orientated in the height direction of the flexible element.
Apparatus for flame spraying thermoplastic powders, of the type comprising a spray gun configured to perform the spraying of thermoplastic powders and to be fed with a liquefied petroleum gas for producing a flame to be directed on the article to be coated in order to heat the surface of the said article to a suitable working temperature; wherein said spray gun comprises a mixing device internally defining separated discharge chambers (7, 9, 12), configured to be fed with said thermoplastic powders to be sprayed mixed with a transport inert gas, with a flow of compressed air and/or nitrogen and with said liquefied petroleum gas, and a mixing chamber communicating with said discharge chambers (7, 9, 12); a flame ignition device for igniting said flame, connected to said gun and comprising a spark ignition device, and a conductor element associated with said mix device and connected to said spark ignition device so as to strike said spark at said mixing chamber; a flame detection and monitor device, configured to detect and monitor the presence of said flame; wherein said apparatus comprises actuator means (22, 42) configured to interrupt or enable the feed of the liquefied petroleum gas, said detection and monitor device being connected, directly or indirectly, with said actuator means (22, 42); wherein said spark ignition device is a piezoelectric spark ignition device, fixed to said mixing device, and provided with activation means; wherein said detection and monitor device comprises temperature detection means associated with said mixing device; wherein said apparatus comprises a duct for feeding said liquefied petroleum gas in communication with said separated chamber configured to be fed with liquefied petroleum gas; characterized in that said actuator means comprise a valve associated with said duct and housed in a tubular element associated with said spray gun so as to intersect said duct, said valve being connected with said temperature detection means and in that said spark ignition device is mounted in fixed way on said tubular element.
A susceptibility sensor for detecting an object electromagnetic field associated with an object to be sensed, comprising: an oscillator including means for generating a sensor electromagnetic field including a stripline or transmission line segment; and a sensor element arranged in proximity with the means for generating the sensor electromagnetic field, the sensor element having an electric or magnetic susceptibility that varies as a function of the magnitude and/or direction of the object electromagnetic field; and an output arranged to provide a signal which varies in dependence upon the change in the electrical properties of the said oscillator; the sensor being arranged such that a change in the magnitude or direction of the object electromagnetic field associated with the object to be sensed, as experienced by the said sensor element, causes a change in the electric or magnetic susceptibility of the said sensor element, whereby the said sensor electromagnetic field experiences a changing electric or magnetic susceptibility which in turn causes at least one electrical property of the oscillator to be altered. an oscillator including means for generating a sensor electromagnetic field including a stripline or transmission line segment; and a sensor element arranged in proximity with the means for generating the sensor electromagnetic field, the sensor element having an electric or magnetic susceptibility that varies as a function of the magnitude and/or direction of the object electromagnetic field; and an output arranged to provide a signal which varies in dependence upon the change in the electrical properties of the said oscillator; the sensor being arranged such that a change in the magnitude or direction of the object electromagnetic field associated with the object to be sensed, as experienced by the said sensor element, causes a change in the electric or magnetic susceptibility of the said sensor element, whereby the said sensor electromagnetic field experiences a changing electric or magnetic susceptibility which in turn causes at least one electrical property of the oscillator to be altered.
A wall arrangement for delimiting a sports field, particularly an ice skating rink or an ice hockey field, or a playing field for ball games with wall elements, which on the inner side directed towards the sports or playing field have a perimeter wall, wherein the wall elements are movably connected together and are positioned loosely on the ground without being fastened to the ground, wherein ropes (8, 9) extend on the outer side of the wall elements in the longitudinal direction of the wall elements and the wall elements are connected to the ropes (8, 9) so that the wall elements are elastically supported on the ropes (8, 9), characterised in that the ropes (8, 9) are tensioned at a distance from the wall elements with tensioning devices which are held by supports fastened to the ground, that the wall elements have rigid holders projecting from their rear side with rope guiding elements, which are connected to the ropes (8, 9), that a plurality of wall elements are connected to form respective wall sections, behind which a respective at least one rope, preferably an upper and a lower rope (8, 9) is/are tensioned, that arranged at at least one end region of each wall section there is a support with a tensioning device for each rope, that the tensioning device is a pneumatic piston/cylinder device, to the piston rod of which the associated rope (8, 9) is fastened, and that the pressure of the piston/cylinder device is adjustable so that the tensional force of the ropes (8, 9) is adjustable.
A composition containing cannabidiol and cannabidivarol for use in preventing and/or treating dysmenorrhea, characterized in that, the composition comprises cannabidiol and cannabidivarol, a penetration enhancer as well as a carrier, and the mass ratio of the cannabidiol to the cannabidivarol is (0.1-10):1.
A method of operating a server (105, 502, 505) in an infrastructure service to reroute a packet flow sent from the server (105, 502, 505) to an end point (101, 501) over an outbound path (121, 123, 125, 521, 523, 525), the method comprising: detecting a failure of the outbound path (121, 123, 125, 521, 523, 525) based on at least a measure of forward progress made on a connection between the server (105, 502, 505) and the end point (101, 501) while sending packets from the server (105, 502, 505) to the end point (101, 501), where the measure of forward progress is related to an amount of time elapsed after sending a first packet from the server (105, 502, 505) to the end point (101, 501) without receiving an acknowledgment from the end point (101, 501); and characterised by: in response to the failure, generating a hash value (303, 304, 305) based at least on an identifying value of the connection and a failure counter (119, 323, 324, 519) associated with the measure of forward progress made on the connection; selecting a next outbound path (121, 123, 125, 521, 523, 525) for the packet flow based on at least the hash value generated in response to the failure; and sending the packet flow over the next outbound path (121, 123, 125, 521, 523, 525) to the end point (101, 501). detecting a failure of the outbound path (121, 123, 125, 521, 523, 525) based on at least a measure of forward progress made on a connection between the server (105, 502, 505) and the end point (101, 501) while sending packets from the server (105, 502, 505) to the end point (101, 501), where the measure of forward progress is related to an amount of time elapsed after sending a first packet from the server (105, 502, 505) to the end point (101, 501) without receiving an acknowledgment from the end point (101, 501); and characterised by: in response to the failure, generating a hash value (303, 304, 305) based at least on an identifying value of the connection and a failure counter (119, 323, 324, 519) associated with the measure of forward progress made on the connection; selecting a next outbound path (121, 123, 125, 521, 523, 525) for the packet flow based on at least the hash value generated in response to the failure; and sending the packet flow over the next outbound path (121, 123, 125, 521, 523, 525) to the end point (101, 501). in response to the failure, generating a hash value (303, 304, 305) based at least on an identifying value of the connection and a failure counter (119, 323, 324, 519) associated with the measure of forward progress made on the connection; selecting a next outbound path (121, 123, 125, 521, 523, 525) for the packet flow based on at least the hash value generated in response to the failure; and sending the packet flow over the next outbound path (121, 123, 125, 521, 523, 525) to the end point (101, 501).