mhurhangee/ep-ind-claims huggingface dataset:
A fiber spatial coupling device comprising: a detachable process fiber that guides laser light; an optical system that collects the laser light into the process fiber; and a main body that holds the optical system, and has a supply port for supplying gas to a space between the process fiber and the optical system, wherein a filter is linked to the supply port, and gas that has passed through the filter is supplied to an inside of the main body through the supply port, characterized in that the fiber spatial coupling device further comprises: a dehumidifier linked to the supply port, and gas that has passed through the dehumidifier is supplied to the inside of the main body through the supply port, a pressure release unit configured to release the gas in an inside of the main body when a pressure of an inside of the main body exceeds a predetermined reference value, a receptacle that holds the process fiber in the main body; a disconnection detection circuit including the process fiber and the receptacle, a pump having a discharge side coupled to the filter and the dehumidifier and a pump control unit configured to operate the pump only when an off-state of laser light and disconnection are detected by the disconnection detection circuit. a detachable process fiber that guides laser light; an optical system that collects the laser light into the process fiber; and a main body that holds the optical system, and has a supply port for supplying gas to a space between the process fiber and the optical system, wherein a filter is linked to the supply port, and gas that has passed through the filter is supplied to an inside of the main body through the supply port, characterized in that the fiber spatial coupling device further comprises: a dehumidifier linked to the supply port, and gas that has passed through the dehumidifier is supplied to the inside of the main body through the supply port, a pressure release unit configured to release the gas in an inside of the main body when a pressure of an inside of the main body exceeds a predetermined reference value, a receptacle that holds the process fiber in the main body; a disconnection detection circuit including the process fiber and the receptacle, a pump having a discharge side coupled to the filter and the dehumidifier and a pump control unit configured to operate the pump only when an off-state of laser light and disconnection are detected by the disconnection detection circuit. a dehumidifier linked to the supply port, and gas that has passed through the dehumidifier is supplied to the inside of the main body through the supply port, a pressure release unit configured to release the gas in an inside of the main body when a pressure of an inside of the main body exceeds a predetermined reference value, a receptacle that holds the process fiber in the main body; a disconnection detection circuit including the process fiber and the receptacle, a pump having a discharge side coupled to the filter and the dehumidifier and a pump control unit configured to operate the pump only when an off-state of laser light and disconnection are detected by the disconnection detection circuit.
Method for a communication device for establishment of an emergency call, said communication device being arranged to communicate within communication networks by means of communication modems, at least one of said communication networks being a wireless communication system; the method comprising the steps of: - sending an Emergency Call Establishment Request, ECER, to modems ( M 1, M 2,..., M N) of said communication device upon receiving an emergency call initiation signal; - in response to receiving the ECER, initiating, by each modem, an Emergency Call Establishment Procedure, ECEP, with its associated communication network, said ECEP comprising several signalling steps of each modem with its communication network; - receiving at least one ECER feedback signal from each modem, the ECER feedback signal indicating a signal quality for a communication link associated with each modem; and - selecting one modem M n among said modems for an emergency call based on the ECER feedback signals from said modems, characterized in that, for each modem, the signal quality of the link is evaluated during the ECEP, and the ECEP is aborted if the link quality is non-acceptable. - sending an Emergency Call Establishment Request, ECER, to modems ( M 1, M 2,..., M N) of said communication device upon receiving an emergency call initiation signal; - in response to receiving the ECER, initiating, by each modem, an Emergency Call Establishment Procedure, ECEP, with its associated communication network, said ECEP comprising several signalling steps of each modem with its communication network; - receiving at least one ECER feedback signal from each modem, the ECER feedback signal indicating a signal quality for a communication link associated with each modem; and - selecting one modem M n among said modems for an emergency call based on the ECER feedback signals from said modems,
An imaging system for analyzing a specimen, the imaging system comprising: a chamber configured to retain an imaging gas therein and to receive the specimen; a detector; an energy applying component; and a controller configured to cause the energy applying component to selectively apply energy to the specimen disposed in the chamber while the imaging gas is present at the chamber such that the detector provides a first image of the specimen acquired in a first, non-destructive imaging mode of the imaging system, and a second image of the specimen acquired in a second, destructive imaging mode of the imaging system, and to alternately acquire the first and second images while the imaging gas is retained in the chamber, and wherein the controller is further configured to, after the first image is acquired and before the second image is acquired, causing the energy applying component to apply energy to the specimen to cause atoms of the imaging gas adsorbed on a tip of the specimen to desorb from the tip without being ionized. a chamber configured to retain an imaging gas therein and to receive the specimen; a detector; an energy applying component; and a controller configured to cause the energy applying component to selectively apply energy to the specimen disposed in the chamber while the imaging gas is present at the chamber such that the detector provides a first image of the specimen acquired in a first, non-destructive imaging mode of the imaging system, and a second image of the specimen acquired in a second, destructive imaging mode of the imaging system, and to alternately acquire the first and second images while the imaging gas is retained in the chamber, and wherein the controller is further configured to, after the first image is acquired and before the second image is acquired, causing the energy applying component to apply energy to the specimen to cause atoms of the imaging gas adsorbed on a tip of the specimen to desorb from the tip without being ionized.
A method for controlling a milling roll machine comprising: at least a pair of rolls (4, 5, 6, 7) in a frame; a roll gap adjusting mechanism for driving each of the pair of rolls (4, 5, 6, 7) at different circumferential speeds and adjusting a roll gap between the pair of rolls (4, 5, 6, 7); and a stock supply mechanism for supplying a thin layer of raw material stock between the pair of rolls (4, 5, 6, 7), wherein a non-contact type temperature sensor is provided in the vicinity of the pair of rolls (4, 5, 6, 7), wherein the temperature sensor monitors a surface temperature of one of the pair of rolls (4, 5, 6, 7) as well as a temperature of a milled product after passing through the rolls (4, 5, 6, 7), and opening/closing control of the roll gap or flow rate control of the raw material stock is performed according to the surface temperature of one of the rolls (4, 5, 6, 7) and the temperature of the milled product after passing through the rolls (4, 5, 6, 7) detected by the temperature sensor. at least a pair of rolls (4, 5, 6, 7) in a frame; a roll gap adjusting mechanism for driving each of the pair of rolls (4, 5, 6, 7) at different circumferential speeds and adjusting a roll gap between the pair of rolls (4, 5, 6, 7); and a stock supply mechanism for supplying a thin layer of raw material stock between the pair of rolls (4, 5, 6, 7), wherein a non-contact type temperature sensor is provided in the vicinity of the pair of rolls (4, 5, 6, 7), wherein the temperature sensor monitors a surface temperature of one of the pair of rolls (4, 5, 6, 7) as well as a temperature of a milled product after passing through the rolls (4, 5, 6, 7), and opening/closing control of the roll gap or flow rate control of the raw material stock is performed according to the surface temperature of one of the rolls (4, 5, 6, 7) and the temperature of the milled product after passing through the rolls (4, 5, 6, 7) detected by the temperature sensor.
A system for providing parking assistance in a vehicle comprising: a video output device configured to generate a graphical display for an operator in the vehicle; a gesture input device configured to receive input gestures from the operator; a plurality of cameras in the vehicle; and a controller, the controller being operatively connected to the video output device, the plurality of cameras, and the gesture input device, and the controller being configured with a parking assistance service to: identify a plurality of available parking spaces for the vehicle; generate with the video output device an interface with a graphical depiction of the vehicle and the plurality of available parking spaces; receive a first input gestures with a gesture input device to select one parking space from the plurality of available parking spaces; and operate the vehicle to park the vehicle in the one selected parking space using the controller configured with the parking assistance service; select at least one camera that views the one parking space; and generate a video output from the selected camera with the video output device to assist an operator in parking the vehicle in the one parking space. a video output device configured to generate a graphical display for an operator in the vehicle; a gesture input device configured to receive input gestures from the operator; a plurality of cameras in the vehicle; and a controller, the controller being operatively connected to the video output device, the plurality of cameras, and the gesture input device, and the controller being configured with a parking assistance service to: identify a plurality of available parking spaces for the vehicle; generate with the video output device an interface with a graphical depiction of the vehicle and the plurality of available parking spaces; identify a plurality of available parking spaces for the vehicle; generate with the video output device an interface with a graphical depiction of the vehicle and the plurality of available parking spaces; receive a first input gestures with a gesture input device to select one parking space from the plurality of available parking spaces; and operate the vehicle to park the vehicle in the one selected parking space using the controller configured with the parking assistance service; select at least one camera that views the one parking space; and generate a video output from the selected camera with the video output device to assist an operator in parking the vehicle in the one parking space. generate a video output from the selected camera with the video output device to assist an operator in parking the vehicle in the one parking space.
A method for joining two essentially metal sheet-like workpieces (1, 2), characterized in that the peripheral regions (3, 4) to be joined of the workpieces (1, 2) are positioned with a spacing in relation to one another, at least one filler material in the form of a wire is introduced into a region between the peripheral regions before or during the joining operation, and the peripheral regions (3, 4) and the filler material are subsequently heated to a plastifying temperature by means of at least a first disk-like or stud-like frictional element, performing a relative movement in relation to the peripheral regions (3, 4) and the filler material, and are subjected by the frictional element being pressed onto the peripheral regions (3, 4) to a pressing pressure acting in a direction perpendicular to a central plane of the workpieces (1, 2) and are joined while being deformed, wherein the frictional element is not introduced between the peripheral regions (3, 4).
An article (110, 510) for mixing ambient fluid with a motive fluid, the article (110, 510) comprising: a conduit; and thermally conductive concentric inner and outer nozzles (120, 130, 150, 160) extending from the conduit, said inner nozzle (120, 150) having an exit orifice and said outer nozzle (130, 160) having an exit orifice; the conduit being configured to supply the motive fluid to the outer nozzle (130, 160) and the ambient fluid to the inner nozzle (120, 150) and comprising a first inlet (142, 146) configured to allow the ambient fluid to pass through the conduit to the inner nozzle (120, 150) and exit at the exit orifice of the inner nozzle (120, 150), a second inlet (144, 560) for receiving the motive fluid and a passage guiding the motive fluid to the outer nozzle (130, 160) that channels the motive fluid to the exit orifice of the outer nozzle (130, 160); characterized in that the exit orifice of the inner nozzle is further downstream from the conduit than the exit orifice of the outer nozzle (130, 160) by a distance (d) that is sufficient for flow from the outer nozzle to expand to ambient pressure prior to reaching an exit station of the inner nozzle, such that the flow of motive fluid enhances entrainment of the flow of ambient fluid by shear layer entrainment between the flow of ambient fluid and the flow of motive fluid. a conduit; and thermally conductive concentric inner and outer nozzles (120, 130, 150, 160) extending from the conduit, said inner nozzle (120, 150) having an exit orifice and said outer nozzle (130, 160) having an exit orifice; the conduit being configured to supply the motive fluid to the outer nozzle (130, 160) and the ambient fluid to the inner nozzle (120, 150) and comprising a first inlet (142, 146) configured to allow the ambient fluid to pass through the conduit to the inner nozzle (120, 150) and exit at the exit orifice of the inner nozzle (120, 150), a second inlet (144, 560) for receiving the motive fluid and a passage guiding the motive fluid to the outer nozzle (130, 160) that channels the motive fluid to the exit orifice of the outer nozzle (130, 160); characterized in that the exit orifice of the inner nozzle is further downstream from the conduit than the exit orifice of the outer nozzle (130, 160) by a distance (d) that is sufficient for flow from the outer nozzle to expand to ambient pressure prior to reaching an exit station of the inner nozzle, such that the flow of motive fluid enhances entrainment of the flow of ambient fluid by shear layer entrainment between the flow of ambient fluid and the flow of motive fluid.
Method for determining measurement information with a measuring device, in particular with a flow meter, having a measuring tube which receives a fluid and/or through which the fluid can flow, wherein first and second waves conducted in the side wall of the measuring tube are excited in chronological succession by first oscillation transducers (5, 6) arranged on a side wall of the measuring tube and, - in a first alternative, are conducted directly in the side wall or indirectly through the fluid to second oscillation transducers (15, 16) arranged on the or a further side wall of the measuring tube and are recorded there in order to determine first measurement data for the first wave and second measurement data for the second wave, wherein a first and a second subgroup (35, 36) of the second oscillation transducers (5, 6) are used for the recording, or, - in a second alternative, are conducted along a propagation path back to the first oscillation transducers (5, 6) and are recorded there in order to determine first measurement data for the first wave and second measurement data for the second wave, wherein a first and a second subgroup (35, 36) of the first oscillation transducers (5, 6) are used for the recording, wherein, in both alternatives, the measurement information is determined as a function of the first and second measurement data, or wherein, in both alternatives, the first measurement data are used to determine a parameter of the excitation of the second wave and the measurement information is determined as a function of the second measurement data, wherein, in order to record the first measurement data, measurement signals of the first and second subgroups (35, 36) are added together, and, in order to record the second measurement data, measurement signals of the first and second subgroups (35, 36) are subtracted from one another, or vice versa. - in a first alternative, are conducted directly in the side wall or indirectly through the fluid to second oscillation transducers (15, 16) arranged on the or a further side wall of the measuring tube and are recorded there in order to determine first measurement data for the first wave and second measurement data for the second wave, wherein a first and a second subgroup (35, 36) of the second oscillation transducers (5, 6) are used for the recording, or, - in a second alternative, are conducted along a propagation path back to the first oscillation transducers (5, 6) and are recorded there in order to determine first measurement data for the first wave and second measurement data for the second wave, wherein a first and a second subgroup (35, 36) of the first oscillation transducers (5, 6) are used for the recording,
A pharmaceutical composition comprising a peptide targeting α5β1 and αvβ3 integrins for use in treating cancer in a patient, wherein: (a) the peptide has the amino acid sequence of SEQ ID NO:1 to 6, or is a derivative thereof that is a peptide of SEQ ID NOs: 7 to 31; and (b) an effective amount of said peptide is to be administered to a cancer patient for one to four weeks, followed by an immune checkpoint inhibitor therapy. (a) the peptide has the amino acid sequence of SEQ ID NO:1 to 6, or is a derivative thereof that is a peptide of SEQ ID NOs: 7 to 31; and (b) an effective amount of said peptide is to be administered to a cancer patient for one to four weeks, followed by an immune checkpoint inhibitor therapy.
Temperature-compensated resonator (1, 11) comprising a body (5, 15) used in deformation, the core (8, 18) of the body (5, 15) being formed from quartz glass, borosilicate glass or aluminosilicate glass, at least part of the body (5, 15) comprising a coating (2, 4, 6, 12, 14, 16), whose Young's modulus variations with temperature are of the opposite sign to those of the material used for the core (8, 18), so as to enable said resonator to have a first-order (α, β) frequency variation as a function of temperature that is substantially zero.
A secure device (20; 50) for powering a plurality of electromagnets of a particle accelerator, each coupled to a dedicated converter, characterized by a standby converter and, for each electromagnet: a flyback diode connected to the electromagnet; a circuit for detecting an anomaly of the current flowing through the electromagnet; and a selection switch (33; 53), controlled by the detection circuit, adapted to decouple the electromagnet from the dedicated converter, and couple the electromagnet to said standby converter. a flyback diode connected to the electromagnet; a circuit for detecting an anomaly of the current flowing through the electromagnet; and a selection switch (33; 53), controlled by the detection circuit, adapted to decouple the electromagnet from the dedicated converter, and couple the electromagnet to said standby converter.
A heat conductive assembly (101, 101b) for transferring heat of an object to be measured to a temperature measuring component, wherein the heat conductive assembly (101, 101b) comprises: a thermally conductive substrate having an upper surface and a lower surface, wherein the lower surface of the thermally conductive substrate is adapted to contact the object to be measured, wherein the thermally conductive substrate is configured to be electrically insulating, and an electrically conductive layer fixedly disposed on the upper surface of the thermally conductive substrate; and the electrically conductive layer comprises a pair of supporting connection portions (32, 32b) that are disposed spaced apart from each other and a pair of output connection portions (34, 34b), wherein one of the supporting connection portions and one of the output connection portions are connected to each other, and wherein the other supporting connection portion and the other output connection portion are connected to each other; each of the supporting connection portions (32, 32b) is adapted to support the temperature measuring component and to be electrically connected to and be in thermally conductive contact with the temperature measuring component; and the output connection portions (34, 34b) are adapted to be electrically connected to a corresponding pair of connectors (204, 204b) configured to output a signal sensed by the temperature measuring component, characterized in that the upper surface of the thermally conductive substrate has a recess; and a portion of the electrically conductive layer is filled into the recess. a thermally conductive substrate having an upper surface and a lower surface, wherein the lower surface of the thermally conductive substrate is adapted to contact the object to be measured, wherein the thermally conductive substrate is configured to be electrically insulating, and an electrically conductive layer fixedly disposed on the upper surface of the thermally conductive substrate; and the electrically conductive layer comprises a pair of supporting connection portions (32, 32b) that are disposed spaced apart from each other and a pair of output connection portions (34, 34b), wherein one of the supporting connection portions and one of the output connection portions are connected to each other, and wherein the other supporting connection portion and the other output connection portion are connected to each other; each of the supporting connection portions (32, 32b) is adapted to support the temperature measuring component and to be electrically connected to and be in thermally conductive contact with the temperature measuring component; and the output connection portions (34, 34b) are adapted to be electrically connected to a corresponding pair of connectors (204, 204b) configured to output a signal sensed by the temperature measuring component, characterized in that the upper surface of the thermally conductive substrate has a recess; and a portion of the electrically conductive layer is filled into the recess.