mhurhangee/ep-ind-claims huggingface dataset:
An exposure apparatus that exposes an object with an energy beam, the apparatus comprising: a movable body that is arranged to hold the object, and can move in directions of six degrees of freedom, the directions of six degrees of freedom including at least a first direction and a second direction (X, Y) that are orthogonal to each other within a predetermined plane, and including a direction orthogonal to the predetermined plane; a measurement system that includes an encoder system (70A, 70B, 70C, 70D, 70E, 70F) in which one of a grating section (39Y 1, 39Y 2, 39X 1, 39X 2) and a head unit (62A-62D) is arranged on a surface of the movable body on which the object is held and the other of the grating section and the head unit is arranged facing the surface of the movable body, and which is configured to measure position information of the movable body in at least one of the first and second directions (X, Y) and in a rotational direction around an axis orthogonal to the predetermined plane; and a drive device that is configured to drive the movable body within the predetermined plane based on measurement information of the encoder system and correction information for compensating a measurement error of the encoder system that occurs due to a rotation of the movable body around the axis orthogonal to the predetermined plane, wherein the measurement error changes in accordance with a position of the movable body in the direction orthogonal to the predetermined plane. a movable body that is arranged to hold the object, and can move in directions of six degrees of freedom, the directions of six degrees of freedom including at least a first direction and a second direction (X, Y) that are orthogonal to each other within a predetermined plane, and including a direction orthogonal to the predetermined plane; a measurement system that includes an encoder system (70A, 70B, 70C, 70D, 70E, 70F) in which one of a grating section (39Y 1, 39Y 2, 39X 1, 39X 2) and a head unit (62A-62D) is arranged on a surface of the movable body on which the object is held and the other of the grating section and the head unit is arranged facing the surface of the movable body, and which is configured to measure position information of the movable body in at least one of the first and second directions (X, Y) and in a rotational direction around an axis orthogonal to the predetermined plane; and a drive device that is configured to drive the movable body within the predetermined plane based on measurement information of the encoder system and correction information for compensating a measurement error of the encoder system that occurs due to a rotation of the movable body around the axis orthogonal to the predetermined plane, wherein the measurement error changes in accordance with a position of the movable body in the direction orthogonal to the predetermined plane.
A process for preparing a compound of formula, or a pharmaceutically acceptable salt thereof: wherein X represents N or C-F; R 1 represents hydrogen or methyl; R 2 represents hydrogen, methyl or trifluoromethyl; and R 3 represents hydrogen, cyano, hydroxy or hydroxymethyl, comprising reacting a compound of formula with a compound of formula: wherein X, R 1, R 2 and R 3 are as defined above, L 1 represents a leaving group, M 1 represents a boronic acid moiety -B 2 or a cyclic ester thereof formed with an organic diol, and R p represents an N -protecting group; in the presence of a transition metal catalyst; followed, as necessary, by removal of the N -protecting group R p. X represents N or C-F; R 1 represents hydrogen or methyl; R 2 represents hydrogen, methyl or trifluoromethyl; and R 3 represents hydrogen, cyano, hydroxy or hydroxymethyl,
A control method for a climate control system having at least one first climate control device and at least one second climate control device, wherein between the first climate control device and the second climate control device a thermal influence is carried out by means of an climate control medium, characterized in that a total energy demand which is formed as sum of energy demand of the first climate control device and energy demand of the second climate control device is minimized by means of a control algorithm by regulating first setting parameters of the first climate control device and second setting parameters of the second climate control device.
A method for determining a number of vehicle-to-X messages for rejection, wherein a work cycle of a vehicle-to-X communication unit involves vehicle-to-X messages being received, wherein the work cycle involves a number of received vehicle-to-X messages being determined, and wherein the work cycle involves an existent computation power being available, characterised in that taking into consideration the existent computation power in the work cycle the determination of number of vehicle-to-X messages for rejection takes place according to the number of vehicle-to-X messages received.
System for real time mud monitoring, said system comprising instrumentation to measure mud weight/density, viscosity and rheology, for real time continuous or frequent measurement of said parameters of the mud being pumped into the well, a skid where said instrumentation for measurements is arranged, allowing continuous flow through the skid, in a parallel branch line, wherein said instrumentation are connected in real time to a mud process for measurements and to a data collection and analysis system connected in real time and interfaced to a mud engineer. instrumentation to measure mud weight/density, viscosity and rheology, for real time continuous or frequent measurement of said parameters of the mud being pumped into the well, a skid where said instrumentation for measurements is arranged, allowing continuous flow through the skid, in a parallel branch line, wherein said instrumentation are connected in real time to a mud process for measurements and to a data collection and analysis system connected in real time and interfaced to a mud engineer.
A sensing system for providing signals representative of a magnitude of moment fraction applied to an implantable sensor at a selected site, comprising: a sensor module characterised by a first transducer configured to produce a first signal having an associated first response to pressure and bending applied to the sensor module, and a second transducer configured be produce a second signal having an associated second response to pressure and bending applied to the sensor module, the second response different than the first response; and a processor configured to compute a moment fraction in response to the first signal and the second signal and configured generate notification in response to the moment fraction. a sensor module characterised by a first transducer configured to produce a first signal having an associated first response to pressure and bending applied to the sensor module, and a second transducer configured be produce a second signal having an associated second response to pressure and bending applied to the sensor module, the second response different than the first response; and a first transducer configured to produce a first signal having an associated first response to pressure and bending applied to the sensor module, and a second transducer configured be produce a second signal having an associated second response to pressure and bending applied to the sensor module, the second response different than the first response; and a processor configured to compute a moment fraction in response to the first signal and the second signal and configured generate notification in response to the moment fraction.
An air circulation and ventilation system for an enclosure, comprising: a housing defining a manifold, including: a first intake aperture configured to receive air from within the enclosure; a first outlet aperture configured to emit air from the manifold to outside the enclosure; and a fan configured to draw air in through the first intake aperture; a port configured to allow additional air into the enclosure, the port including a port damper for selectively opening and closing the port; and a switch operably coupled to the fan and the port damper, the switch configured to provide a first state wherein the port damper is closed and the fan is off, and a second state wherein the port damper is open and the fan is on, wherein the housing further comprises an outlet damper for selectively opening and closing the first outlet aperture, the outlet damper operatively coupled to the switch, and the second state further comprises the outlet damper in an open position. a housing defining a manifold, including: a first intake aperture configured to receive air from within the enclosure; a first outlet aperture configured to emit air from the manifold to outside the enclosure; and a fan configured to draw air in through the first intake aperture; a first intake aperture configured to receive air from within the enclosure; a first outlet aperture configured to emit air from the manifold to outside the enclosure; and a fan configured to draw air in through the first intake aperture; a port configured to allow additional air into the enclosure, the port including a port damper for selectively opening and closing the port; and a switch operably coupled to the fan and the port damper, the switch configured to provide a first state wherein the port damper is closed and the fan is off, and a second state wherein the port damper is open and the fan is on, wherein the housing further comprises an outlet damper for selectively opening and closing the first outlet aperture, the outlet damper operatively coupled to the switch, and the second state further comprises the outlet damper in an open position.
A method of determining a treatment for a subject with cancer, the method comprising: a. preparing a sample obtained from a cancerous tissue from the subject for a light scattering test; b. applying second harmonic generation two photon scattering measurements from the sample to determine directionality of scattered photons; c. obtaining a signature score using selected data from SHG data; d. determining if the signature score falls above or below a reference level, wherein if the signature score is above the reference level, the subject is recommended to be treated with neoadjuvant therapy, and if the signature score is below the reference level, the subject is recommended to be subjected to surgical treatment a. preparing a sample obtained from a cancerous tissue from the subject for a light scattering test; b. applying second harmonic generation two photon scattering measurements from the sample to determine directionality of scattered photons; c. obtaining a signature score using selected data from SHG data; d. determining if the signature score falls above or below a reference level, wherein if the signature score is above the reference level, the subject is recommended to be treated with neoadjuvant therapy, and if the signature score is below the reference level, the subject is recommended to be subjected to surgical treatment
A method for providing voice stream augmented note taking, the method comprising: recording an audio stream associated with at least one speaker; converting the audio stream into at least one text chunk; receiving at least one text entry from a user within a note taking application; determining whether the at least one text entry from the user is associated with the at least one text chunk; and in response to determining that the at least one text entry from the user is associated with the at least one text chunk, displaying the at least one text chunk to the user as a suggestion. recording an audio stream associated with at least one speaker; converting the audio stream into at least one text chunk; receiving at least one text entry from a user within a note taking application; determining whether the at least one text entry from the user is associated with the at least one text chunk; and in response to determining that the at least one text entry from the user is associated with the at least one text chunk, displaying the at least one text chunk to the user as a suggestion.
A manufacturing method of a nitride semiconductor ultraviolet light-emitting element having a peak emission wavelength of 285 nm or shorter comprising: a first step of forming an n-type semiconductor layer composed of an n-type Al X Ga 1-X N-based semiconductor (1 ≥ X ≥ 0.5) on an upper surface of an underlying portion including a sapphire substrate; a second step of forming, above the n-type semiconductor layer, an active layer that includes a light-emitting layer composed of an Al Y Ga 1-Y N-based semiconductor (X > Y > 0) and that is composed of an AlGaN-based semiconductor as a whole; and a third step of forming a p-type semiconductor layer composed of a p-type Al Z Ga 1-Z N-based semiconductor (1 ≥ Z > Y) above the active layer, characterised in that a growth temperature at the second step is higher than 1200°C and equal to or higher than a growth temperature at the first step. a first step of forming an n-type semiconductor layer composed of an n-type Al X Ga 1-X N-based semiconductor (1 ≥ X ≥ 0.5) on an upper surface of an underlying portion including a sapphire substrate; a second step of forming, above the n-type semiconductor layer, an active layer that includes a light-emitting layer composed of an Al Y Ga 1-Y N-based semiconductor (X > Y > 0) and that is composed of an AlGaN-based semiconductor as a whole; and a third step of forming a p-type semiconductor layer composed of a p-type Al Z Ga 1-Z N-based semiconductor (1 ≥ Z > Y) above the active layer, characterised in that a growth temperature at the second step is higher than 1200°C and equal to or higher than a growth temperature at the first step.
A plastic component for a motor vehicle, comprising a base body with a thickness and with a freely accessible functional surface which is designed so that an adhesive tape can be stuck along this functional surface and can be connected to the functional surface, wherein the base body has in the region of the functional surface a channel-like recess extending inwards from the functional surface into the base body and a ridge-like shaped portion extending outwards from the functional surface, characterised in that the recess and the shaped portion border each other and are formed in one piece with the base body such that together they form a cutting template for the adhesive tape, said cutting template being integrated into the base body, and the distance between the recess and the shaped portion is no more than 15 mm.
Aluminium riding stirrup comprising a tread with upper surface where the foot rests and an arched structure that in turn comprises one pair of branches whose bases are integral with the two sides of the tread and an upper arched structure that joins said branches, characterized in that it comprises one or more parts or elements (4, 5) made of titanium, at least one of said titanium parts or elements being applied in any way to said upper surface of said tread, and wherein said titanium part or element comprises a surface where the rider's foot rests, provided with projections or rough portions suited to increase friction and the grip of the foot on said surface.
An electronic apparatus, comprising: a plurality of vent holes (h) provided on a side face of the electronic apparatus and configured to communicate an inside and an outside of the electronic apparatus with each other therethrough; a fan configured to suck or discharge air through the plurality of vent holes; a first groove formed on the side face and extending in a forward and rearward direction; a second groove formed on a front face of the electronic apparatus so as to extend in a leftward and rightward direction and connect at an end portion thereof to a front end of the first groove; the plurality of vent holes being formed on an inner face of the first groove of the side face, and wherein at least one of an aperture for exposing a connector therethrough and an insertion slot for a recording medium is formed on an inner face of the second groove. a plurality of vent holes (h) provided on a side face of the electronic apparatus and configured to communicate an inside and an outside of the electronic apparatus with each other therethrough; a fan configured to suck or discharge air through the plurality of vent holes; a first groove formed on the side face and extending in a forward and rearward direction; a second groove formed on a front face of the electronic apparatus so as to extend in a leftward and rightward direction and connect at an end portion thereof to a front end of the first groove; the plurality of vent holes being formed on an inner face of the first groove of the side face, and wherein at least one of an aperture for exposing a connector therethrough and an insertion slot for a recording medium is formed on an inner face of the second groove.
A driving circuit for a bistable display, the driving circuit comprising - a first terminal arranged to be connected to a row electrode of the bistable display; - a second terminal arranged to be connected to a column electrode of the bistable display; - a third terminal arranged to be connected to a pixel electrode (16, 27, 37) of the bistable display, - a load impedance; - a first rectifying diode (13, 24) connected between the second terminal and the third terminal; - a second rectifying diode (14, 25) connected in series with the load impedance between the first terminal and the third terminal, wherein said first rectifying diode (13, 24) is forward connected from the second terminal to the third terminal, said second rectifying diode (14, 25) is forward connected from the third terminal to the load impedance, and said load is connected to the first terminal, and - said at least one row electrode, said at least one column electrode and said pixel electrode are on the same side of the bistable display, - a first terminal arranged to be connected to a row electrode of the bistable display; - a second terminal arranged to be connected to a column electrode of the bistable display; - a third terminal arranged to be connected to a pixel electrode (16, 27, 37) of the bistable display, - a load impedance; - a first rectifying diode (13, 24) connected between the second terminal and the third terminal; - a second rectifying diode (14, 25) connected in series with the load impedance between the first terminal and the third terminal, wherein said first rectifying diode (13, 24) is forward connected from the second terminal to the third terminal, said second rectifying diode (14, 25) is forward connected from the third terminal to the load impedance, and said load is connected to the first terminal, and - said at least one row electrode, said at least one column electrode and said pixel electrode are on the same side of the bistable display,
A control method for a circuit, wherein the circuit comprises a bus capacitance comprising a positive terminal, a negative terminal and a neutral point, at least two bridge arms connected between the positive terminal and the negative terminal of the bus capacitance, wherein each bridge arm is an NPC bridge arm, that comprises a first main switch, a second main switch, a third main switch, and a fourth main switch connected in series between the positive and the negative terminals of the bus capacitance and a first diode and a second diode connected respectively between the connection point of the first switch and the second switch and the neutral point of the bus capacitance and between the connection point of the third switch and the fourth switch and the neutral point of the bus capacitance, an auxiliary switch (Up.Auxl, Down.Auxl) assisting in switching of main switches (R.upl, R.up2, R.downl, R.down2, S.upl, S.up2, S.downl, S.down2, T.upl, T.up2, T.down1, T.down2) provided in the bridge arms, auxiliary diodes and an inductor (Tx.up.Aux, Tx.down.Aux), the auxiliary switch is connected on one side to the positive terminal of the bus capacitance and on the other side to a connection point of the inductor and a first auxiliary diode, the inductor is connected at one side to the neutral point of the bus capacitance through the first auxiliary diode, and at the other side is connected through auxiliary diodes to the connection points between the first switch and the second switch of the bridge arm, characterized in that the control method comprises steps of: S1. after controlling the auxiliary switch (Up.Auxl, Down.Auxl) to be turned on for a first period of time, controlling the main switches (R.upl, R.downl, S.upl, S.downl, T.upl, T.down1) set at a same position of the bridge arms and connected with the bus capacitance to be simultaneously turned on; and S2. after a second period of time following the time when the main switches (R.upl, R.downl, S.upl, S.downl, T.upl, T.down1) set at the same position of the bridge arms and connected with the bus capacitance are simultaneously turned on, turning off the auxiliary switch (Up.Auxl, Down.Aux1). S1. after controlling the auxiliary switch (Up.Auxl, Down.Auxl) to be turned on for a first period of time, controlling the main switches (R.upl, R.downl, S.upl, S.downl, T.upl, T.down1) set at a same position of the bridge arms and connected with the bus capacitance to be simultaneously turned on; and S2. after a second period of time following the time when the main switches (R.upl, R.downl, S.upl, S.downl, T.upl, T.down1) set at the same position of the bridge arms and connected with the bus capacitance are simultaneously turned on, turning off the auxiliary switch (Up.Auxl, Down.Aux1).
A method for communicating by a network device using a first communications protocol and a second communications protocol, the method comprising: establishing communication with another network device using the second communications protocol, the other network device configured to communicate with a service at a server via a first network using the first communications protocol, the first communications protocol being different than the second communications protocol; receiving network configuration information from the other network device to enable the network device to join the first network; in response to said receiving the network configuration information, establishing communication with the first network; and connecting to the service via the first network using the first communications protocol. establishing communication with another network device using the second communications protocol, the other network device configured to communicate with a service at a server via a first network using the first communications protocol, the first communications protocol being different than the second communications protocol; receiving network configuration information from the other network device to enable the network device to join the first network; in response to said receiving the network configuration information, establishing communication with the first network; and connecting to the service via the first network using the first communications protocol.