mhurhangee/ep-ind-claims huggingface dataset:
A projection apparatus comprising; a prism assembly including an input sub-prism possessing a first interface surface (b) and an output sub-prism adjacent to the input sub-prism possessing a second interface surface (d) spaced apart from the first interface surface in immediate proximity thereto so as to extend thereover to receive display light transmitted through the first interface surface (b); a panel comprising a plurality of selectively adjustable reflecting elements arranged to receive from the input sub-prism an illumination light totally internally reflected from the first interface surface (b) and selectively to reflect received illumination light back through the input sub-prism for transmission through the first interface surface (b) for receipt as display light by the output sub-prism at said second interface surface (d); characterised wherein the input sub-prism possesses a base surface that is substantially congruent to a matching base surface of the output sub-prism.
An environment forming apparatus comprising: an environment forming chamber in which an object for which processing, including environmental testing or heat treatment, is to be executed is accommodated; an air conditioning chamber configured to communicates with the environment forming chamber; an air conditioning unit that is disposed in the air conditioning chamber and is configured to generates air-conditioned air by adjusting an environmental element of air; a plurality of blower fans configured to circulate the air-conditioned air between the air conditioning chamber and the environment forming chamber; a plurality of measurement units configured to measure the environmental element at a plurality of locations in the environment forming chamber and configured to output a plurality of measurement values; and a setting unit that is capable of individually setting rotation speed of each blower fan of the plurality of blower fans, wherein the setting unit is configured to changes rotation speed of the plurality of blower fans a plurality of times and is configured to acquires the plurality of measurement values after each change in a setting period before a processing period in which the processing is executed, and is configured to executes setting processing for setting rotation speed of the each blower fan in the processing period based on the plurality of measurement values, characterized in that the setting unit is configured to randomly decide a change value of rotation speed when changing rotation speed of the plurality of blower fans. an environment forming chamber in which an object for which processing, including environmental testing or heat treatment, is to be executed is accommodated; an air conditioning chamber configured to communicates with the environment forming chamber; an air conditioning unit that is disposed in the air conditioning chamber and is configured to generates air-conditioned air by adjusting an environmental element of air; a plurality of blower fans configured to circulate the air-conditioned air between the air conditioning chamber and the environment forming chamber; a plurality of measurement units configured to measure the environmental element at a plurality of locations in the environment forming chamber and configured to output a plurality of measurement values; and a setting unit that is capable of individually setting rotation speed of each blower fan of the plurality of blower fans, wherein the setting unit is configured to changes rotation speed of the plurality of blower fans a plurality of times and is configured to acquires the plurality of measurement values after each change in a setting period before a processing period in which the processing is executed, and is configured to executes setting processing for setting rotation speed of the each blower fan in the processing period based on the plurality of measurement values, characterized in that the setting unit is configured to randomly decide a change value of rotation speed when changing rotation speed of the plurality of blower fans.
An endovascular prosthesis comprising: an inner polymer structure that extends from a distal end to a proximal end along a longitudinal axis, the inner polymer structure having an inner surface facing the longitudinal axis with a first plurality of pores with each pore extending from the inner surface to an outer surface of the polymer structure; characterised in that the endovascular prosthesis further comprises: an outer metallic or pseudometallic thin-film shape-memory structure which has a thickness of about 500 Angstroms to about 50 micrometres having an inner thin-film surface coupled to the outer surface of the inner polymer structure from the distal end to the proximal end with a retrieval member at the proximal end to allow for the prosthesis to be retrieved after placement in a body vessel, the outer thin-film shape-memory structure configured with a second plurality of pores with each pore extending from the inner thin-film surface to an outer thin-film surface so that fluid communication is provided from the inside of the inner polymer structure to the body vessel.
An apparatus, for use by an Optical Line Terminal, OLT, communicatively connected to optical network units, ONUs (131, 132, 133), comprising means for performing: - grouping data units for the optical network units into groups of Encapsulation Method, EM, frame(s), wherein a respective group of EM frame(s) comprises data units addressed to a respective subset of ONUs, the apparatus characterized in that it comprises means for - generating, based on the groups of EM frame(s), a Framing Sublayer payload comprising at least one specific frame, wherein, the specific frame comprises a length indicator determined in relation to the length of the group(s) of EM frame(s) that is(are) directly following the specific frame and is(are) addressed to at least one subset of ONUs; - instructing the ONUs assigned to at least one of said at least one subset to process the EM frame directly following the specific frame, and instructing the ONUs not assigned to the at least one subset to process the EM frame that is indicated by the length indicator of the specific frame; - transmitting the Framing Sublayer payload to the ONUs (131, 132, 133). - grouping data units for the optical network units into groups of Encapsulation Method, EM, frame(s), wherein a respective group of EM frame(s) comprises data units addressed to a respective subset of ONUs, the apparatus characterized in that it comprises means for - generating, based on the groups of EM frame(s), a Framing Sublayer payload comprising at least one specific frame, wherein, the specific frame comprises a length indicator determined in relation to the length of the group(s) of EM frame(s) that is(are) directly following the specific frame and is(are) addressed to at least one subset of ONUs; - instructing the ONUs assigned to at least one of said at least one subset to process the EM frame directly following the specific frame, and instructing the ONUs not assigned to the at least one subset to process the EM frame that is indicated by the length indicator of the specific frame; - transmitting the Framing Sublayer payload to the ONUs (131, 132, 133).
A method for operating a nuclear magnetic resonance apparatus having a magic angle spinning system with an MAS turbine comprising an MAS stator for receiving an oblong MAS rotor, wherein separate gas feeds (13'; 13") for bearing and for driving of the MAS rotor are arranged in the MAS stator, wherein a gas or gas mixture (X; Y) is fed to the MAS stator through the separate gas feeds (13'; 13"), wherein a gas or gas mixture is fed to the MAS stator for the drive of the MAS rotor through a first gas feed and is fed through a second gas feed (13") for the bearing of the MAS rotor, and wherein a pressurization of the gas or gas mixture (X; Y) is regulated separately in each case before being fed into the MAS stator, characterized in that at least two different gases or gas mixtures (X; Y) are fed to the MAS stator through the separate gas feeds (13'; 13"), wherein one of the at least two different gases or gas mixtures is fed to the MAS stator for the drive of the MAS rotor through a first gas feed, another gas or gas mixture, which is different therefrom, for the bearing of the MAS rotor is fed through a second gas feed (13"), that a pressurization of the at least two different gases or gas mixtures (X; Y) is regulated separately in each case before they are fed into the MAS stator, and that the different gases or gas mixtures (X; Y) are prevented from mixing in the MAS stator by means of a flushing seal arranged in the MAS stator, through which the different gases or gas mixtures (X; Y) for the drive of the MAS rotor and for the bearing of the MAS rotor at least partially flow out of the MAS stator. that at least two different gases or gas mixtures (X; Y) are fed to the MAS stator through the separate gas feeds (13'; 13"), wherein one of the at least two different gases or gas mixtures is fed to the MAS stator for the drive of the MAS rotor through a first gas feed, another gas or gas mixture, which is different therefrom, for the bearing of the MAS rotor is fed through a second gas feed (13"), that a pressurization of the at least two different gases or gas mixtures (X; Y) is regulated separately in each case before they are fed into the MAS stator, and that the different gases or gas mixtures (X; Y) are prevented from mixing in the MAS stator by means of a flushing seal arranged in the MAS stator, through which the different gases or gas mixtures (X; Y) for the drive of the MAS rotor and for the bearing of the MAS rotor at least partially flow out of the MAS stator.
An elevator system (100A, 100B) comprising: an elevator car configured to move in an elevator shaft; a first safety circuit; a main safety controller comprising a main safety output and a secondary safety output, wherein the main safety output is configured to control machinery brakes of the elevator car based on the first safety circuit; and a secondary safety circuit connected to the secondary safety output and arranged in the elevator car and comprising at least one safety contact (114A...114N) configured to control stopping means arranged in the elevator car; wherein when the at least one safety contact (114A...114N) is triggered the secondary safety circuit is configured to control the stopping means to cause stopping of the elevator car, characterized in that the stopping means comprises a solenoid, an engagement mechanism and a safety gear, wherein in response to triggering the at least one contact (114A...114N), the solenoid is configured to cause the engagement mechanism to move to a position enabling contact with a triggering device in the elevator shaft, the triggering device in turn causing activation of the safety gear, and wherein the main safety controller comprises a first input connected to the solenoid, wherein the main safety controller is configured to test the operation of the solenoid by switching off the secondary safety output and determining whether feedback information is received from the solenoid at the first input. an elevator car configured to move in an elevator shaft; a first safety circuit; a main safety controller comprising a main safety output and a secondary safety output, wherein the main safety output is configured to control machinery brakes of the elevator car based on the first safety circuit; and a secondary safety circuit connected to the secondary safety output and arranged in the elevator car and comprising at least one safety contact (114A...114N) configured to control stopping means arranged in the elevator car; wherein when the at least one safety contact (114A...114N) is triggered the secondary safety circuit is configured to control the stopping means to cause stopping of the elevator car, characterized in that the stopping means comprises a solenoid, an engagement mechanism and a safety gear, wherein in response to triggering the at least one contact (114A...114N), the solenoid is configured to cause the engagement mechanism to move to a position enabling contact with a triggering device in the elevator shaft, the triggering device in turn causing activation of the safety gear, and wherein the main safety controller comprises a first input connected to the solenoid, wherein the main safety controller is configured to test the operation of the solenoid by switching off the secondary safety output and determining whether feedback information is received from the solenoid at the first input.
A method of assigning resources to perform direct communications in a first communication device of a wireless communication system, characterized in obtaining a first resource allocation configuration allocating resources for transmitting a first transport block in a subframe to a second communication device from a network; generating a second resource allocation configuration allocating resources for the second communication device to receive the first transport block in the subframe; and sending the second resource allocation configuration to the second communication device to initiate a direct communication between the first and second communication devices.
A method for making a foam control composition comprising a cross-linked polyorganosiloxane material including a dispersed silica filler, said method comprising the steps of: A) preparing a hydrosilylation reaction mixture by combining the following components: (i) silica filler, (ii) a polyorganosiloxane having at least two reactive substituents capable of addition reaction with component (iii) via hydrosilylation, (iii) a polyorganosiloxane having at least three reactive substituents capable of addition reaction with component (ii) via hydrosilylation, and (iv) a hydrosilylation catalyst; B) conducting a hydrosilylation reaction of components (ii) and (iii) until the reaction mixture at least partially gels to form a hydrosilylation reaction product; and C) shearing the hydrosilylation reaction product of step B); wherein the method is characterized by the step of: D) combining the hydrosilylation reaction product of step C) with a (v) silicone resin and an (vi) condensation catalyst to form a condensation reaction mixture and conducting a condensation reaction between the (v) silicone resin and the hydrosilylation reaction product of step C) to form a condensation reaction product. A) preparing a hydrosilylation reaction mixture by combining the following components: (i) silica filler, (ii) a polyorganosiloxane having at least two reactive substituents capable of addition reaction with component (iii) via hydrosilylation, (iii) a polyorganosiloxane having at least three reactive substituents capable of addition reaction with component (ii) via hydrosilylation, and (iv) a hydrosilylation catalyst; (i) silica filler, (ii) a polyorganosiloxane having at least two reactive substituents capable of addition reaction with component (iii) via hydrosilylation, (iii) a polyorganosiloxane having at least three reactive substituents capable of addition reaction with component (ii) via hydrosilylation, and (iv) a hydrosilylation catalyst; B) conducting a hydrosilylation reaction of components (ii) and (iii) until the reaction mixture at least partially gels to form a hydrosilylation reaction product; and C) shearing the hydrosilylation reaction product of step B);
Sound detection system of a musical instrument with vibrating parts, the sound detection system comprising - at least a pair of sensors; and - a preamplification unit for processing the signal output from said at least a pair of sensors along respective channels, wherein one of said at least a pair of sensors is a piezoelectric transducer and another one of said at least a pair of sensors is a transducer of another type, wherein said preamplification unit comprises, for each one of the channels, an input stage, comprising an amplifier circuit; and an equalisation circuit, said sound detection system further comprising a weighted adder section; and an output stage; wherein at least the input stage for the channel of said piezoelectric transducer is a charge amplifier circuit and at least the input stages for the channel of said transducer of another type is configured either as a charge amplifier or as non-inverting amplifier with high input impedance; and wherein said equalisation circuit comprises an RC circuit; and wherein said adder section has, for each of said channels, a volume control with arbitrary logaritmic response curve, a resistive trimmer (P2, P4, P6) in series to respective input net-work (C17, R19, C20, R22, C21, R23), and an adder amplifier for adding signals from the channels, so as to obtain a different excursion of the maximum gain value for each channel of said adder amplifier. - at least a pair of sensors; and - a preamplification unit for processing the signal output from said at least a pair of sensors along respective channels, an input stage, comprising an amplifier circuit; and an equalisation circuit, said sound detection system further comprising a weighted adder section; and an output stage; wherein at least the input stage for the channel of said piezoelectric transducer is a charge amplifier circuit and at least the input stages for the channel of said transducer of another type is configured either as a charge amplifier or as non-inverting amplifier with high input impedance; and wherein said equalisation circuit comprises an RC circuit; and wherein said adder section has, for each of said channels, a volume control with arbitrary logaritmic response curve, a resistive trimmer (P2, P4, P6) in series to respective input net-work (C17, R19, C20, R22, C21, R23), and an adder amplifier for adding signals from the channels, so as to obtain a different excursion of the maximum gain value for each channel of said adder amplifier.
A riser assembly (100, 200, 300, 400, 500, 600, 700, 800, 900, 1000) comprising: a riser flow spool (134, 234, 334, 434, 534, 634, 734, 834, 934,1034); a riser isolation device (136, 236, 336, 436, 536, 636, 736, 836, 936,1036) and an upper riser disconnect assembly (150, 250, 350, 450, 550, 650, 750, 850, 950,1050); wherein at least the riser flow spool is located on a riser (112, 212, 312, 412, 512, 612, 712, 812, 912, 1012) below a riser tension ring (124, 224, 324, 424, 524, 624, 724, 824, 924,1024) and wherein the upper riser disconnect assembly is located above the riser tension ring. a riser flow spool (134, 234, 334, 434, 534, 634, 734, 834, 934,1034); a riser isolation device (136, 236, 336, 436, 536, 636, 736, 836, 936,1036) and an upper riser disconnect assembly (150, 250, 350, 450, 550, 650, 750, 850, 950,1050); wherein at least the riser flow spool is located on a riser (112, 212, 312, 412, 512, 612, 712, 812, 912, 1012) below a riser tension ring (124, 224, 324, 424, 524, 624, 724, 824, 924,1024) and wherein the upper riser disconnect assembly is located above the riser tension ring.
A cowcatcher for disposing on a lower surface of an underframe of a railroad vehicle, comprising an impact-absorbing mechanism for absorbing an impact applied to a cowcatcher portion, wherein the impact-absorbing mechanism includes: an impact-absorbing portion for absorbing an impact; a pressing portion for pressing the impact-absorbing portion; and a guiding portion for guiding a pressing direction of the pressing portion, the impact-absorbing portion is disposed between the pressing portion and the guiding portion, the pressing portion includes a flange for crushing the impact-absorbing portion and a rod connected to the flange, a connecting portion of the rod connected to the flange being a cylinder, the guiding portion is a cylinder body into which an end portion of the rod is inserted, and includes suppression members (15e; 151e) on upper and lower inner walls of the cylinder body, and an end of the rod is guided in an axial direction of the cylinder body while a vertical displacement of the rod is suppressed by the suppression members; wherein: the cylinder body is a square tube having a rectangular cross section, the suppression members (15e; 151e) are disposed on a pair of upper and lower horizontal plates of the square tube, the end portion of the rod has a pair of plane surfaces obtained by cutting side surfaces of the cylindrical connecting portion of the rod, and a pair of left and right vertical plates (15c1) of the square tube are disposed at positions facing the plane surfaces. an impact-absorbing portion for absorbing an impact; a pressing portion for pressing the impact-absorbing portion; and a guiding portion for guiding a pressing direction of the pressing portion,
A method for classifying the level of oncofetal fibronectin in a sample, wherein oncofetal fibronectin is defined as a protein or protein fragment that specifically binds to the monoclonal antibody FDC-6, comprising: measuring the amount of an oncofetal fibronectin protein in a sample; comparing the amount of oncofetal fibronectin protein in the sample to two or more threshold levels, wherein the lower threshold is 50 ng/ml and the higher threshold is 200 ng/ml for buffer-treated samples or wherein the lower threshold is 500 ng/ml and the higher threshold is 2000 ng/ml for untreated samples; and classifying the amount of oncofetal fibronectin protein in the sample according to the highest threshold level that is less than or equal to amount of the oncofetal fibronectin protein in the sample, wherein classification of oncofetal fibronectin protein in the sample according to the highest threshold identifies an indication selected from among a higher risk of preterm, impending delivery, imminent delivery, increased ability to predict delivery date, decreased likelihood of maintaining pregnancy, increased benefit from using methods of preventing preterm delivery, increased likelihood of success in inducing delivery, and increased likelihood of delivery within a predetermined time; wherein the sample has been taken from the posterior fornix.
A method of performing measurement, which is performed by a user equipment, UE, served by a serving transmission point, TP, in a wireless communication system, the method comprising the steps of: receiving, from the serving TP, a first uplink-downlink, UL-DL, configuration related to a first neighboring TP and a second UL-DL configuration related to a second neighboring TP; determining a plurality of measurement sets for DL subframes of the serving TP considering the first UL-DL configuration and the second UL-DL configuration; and performing the measurement on the plurality of measurement sets for DL subframes respectively, wherein each of the plurality of measurement sets for DL subframes comprises subframes with a same combination of a duplex direction in a specific time interval in accordance with the first UL-DL configuration and a duplex direction in the specific time interval in accordance with the second UL-DL configuration. receiving, from the serving TP, a first uplink-downlink, UL-DL, configuration related to a first neighboring TP and a second UL-DL configuration related to a second neighboring TP; determining a plurality of measurement sets for DL subframes of the serving TP considering the first UL-DL configuration and the second UL-DL configuration; and performing the measurement on the plurality of measurement sets for DL subframes respectively, wherein each of the plurality of measurement sets for DL subframes comprises subframes with a same combination of a duplex direction in a specific time interval in accordance with the first UL-DL configuration and a duplex direction in the specific time interval in accordance with the second UL-DL configuration.