mhurhangee/ep-ind-claims huggingface dataset:
An optical device having an optical film comprising first and second base films (110, 150) disposed to face each other; and a light modulation layer existing between the first and second base films (110, 150) wherein a first electrode layer and a second electrode layer (120, 140) are formed on the surfaces of the first and second base films (110, 150) that face each other, respectively, each electrode layer (120, 140) comprises a first region formed to be capable of applying an electric field to the light modulation layer, and a second region connecting each electrode layer (120, 140) to an external power source so that the first region can apply the electric field, the first and second base films (110, 150) are offset from each other so that the second region formed in the first electrode layer on the first base film and the second region formed in the second electrode layer on the second base film do not face each other, the optical film is positioned between two outer substrates having curvatures, the entire surface of the optical film is encapsulated by an encapsulant, characterized in that the first and second electrode layers (120, 140) are each patterned to result in charged regions of the first and second electrode layers (120, 140) through their connection to the external power source, said pattern being such that a charged region of any one electrode layer that does not overlap with the area of the light modulation layer in plan view does not overlap with a charged region of the other electrode layer. first and second base films (110, 150) disposed to face each other; and a light modulation layer existing between the first and second base films (110, 150) wherein a first electrode layer and a second electrode layer (120, 140) are formed on the surfaces of the first and second base films (110, 150) that face each other, respectively, each electrode layer (120, 140) comprises a first region formed to be capable of applying an electric field to the light modulation layer, and a second region connecting each electrode layer (120, 140) to an external power source so that the first region can apply the electric field, the first and second base films (110, 150) are offset from each other so that the second region formed in the first electrode layer on the first base film and the second region formed in the second electrode layer on the second base film do not face each other, the optical film is positioned between two outer substrates having curvatures, the entire surface of the optical film is encapsulated by an encapsulant, characterized in that the first and second electrode layers (120, 140) are each patterned to result in charged regions of the first and second electrode layers (120, 140) through their connection to the external power source, said pattern being such that a charged region of any one electrode layer that does not overlap with the area of the light modulation layer in plan view does not overlap with a charged region of the other electrode layer.
A refrigerated transport container comprising: a cargo space for containing an interior gas; a gas transfer membrane comprising a selectively permeable membrane configured to transfer component gases at different rates, the gas transfer membrane having an interior side to receive interior gas from the cargo space and an exterior side in communication with a gas exchange portion of an exterior gas pathway; an air mover configured to drive an exterior gas flow along the exterior gas pathway for gas transfer over the membrane; a flow controller configured to selectively activate the air mover to control transfer of a controlled component gas across the gas transfer membrane from the interior side to the exterior side; characterized by a heater upstream of the gas exchange portion of the exterior gas pathway to heat the exterior gas flow. a cargo space for containing an interior gas; a gas transfer membrane comprising a selectively permeable membrane configured to transfer component gases at different rates, the gas transfer membrane having an interior side to receive interior gas from the cargo space and an exterior side in communication with a gas exchange portion of an exterior gas pathway; an air mover configured to drive an exterior gas flow along the exterior gas pathway for gas transfer over the membrane; a flow controller configured to selectively activate the air mover to control transfer of a controlled component gas across the gas transfer membrane from the interior side to the exterior side; characterized by a heater upstream of the gas exchange portion of the exterior gas pathway to heat the exterior gas flow.
Method for transferring coolant fluid from a thank of a loading unit/station to an air conditioning system, said air conditioning station comprising: a. a coolant tank, b. a cut off valve for opening and closing at least one duct for the exit of coolant fluid, c. an HP high pressure connection connectable in the relative high pressure HP branch to the air conditioning system, so as to be connected with the high pressure liquid coolant, or fitting/valve; d. an LP low pressure connection and which can be connected through the relative branch to the air conditioning system, by means of a fitting/valve, arranged after the expansion valve of the air conditioning system; e. a suctioning group which, through compressor means, draws/extracts the coolant from the air conditioning system, through the low pressure branch, and takes it into the tank, by means of ducts, so as to empty the system; the method characterised in that for executing the step of transferring the fluid also maintaining the low pressure circuit branch open/active, through relative low pressure LP valve; the activation/opening of the low pressure LP branch which connects the air conditioning station to the LP valve of the air conditioning system, occurs at least partly simultaneously with the activation/opening of the high pressure HP branch which connects the air conditioning station to the HP valve of the air conditioning system; the coolant loaded during said transfer step passes through the valve for the expansion of the system and it is suctioned, as vapour, by the station through LP so that the net amount that enters into the system is always positive and there is more loaded coolant with respect to the suctioned coolant. a. a coolant tank, b. a cut off valve for opening and closing at least one duct for the exit of coolant fluid, c. an HP high pressure connection connectable in the relative high pressure HP branch to the air conditioning system, so as to be connected with the high pressure liquid coolant, or fitting/valve; d. an LP low pressure connection and which can be connected through the relative branch to the air conditioning system, by means of a fitting/valve, arranged after the expansion valve of the air conditioning system; e. a suctioning group which, through compressor means, draws/extracts the coolant from the air conditioning system, through the low pressure branch, and takes it into the tank, by means of ducts, so as to empty the system;
A fluid line connector, comprising: a body, a passage residing in said body, and an opening residing in said body; a radio-frequency identification (RFID) tag carried by said body; a retainer moveable through said opening in said body; an actuator member having a base and an appendage depending from said base; and a switch electrically coupled with said RFID tag, said switch changing its state upon impingement by said actuator member, impingement occurring upon both of a first force exerted to said appendage from another connector inserted into the fluid line connector and a second force exerted to said base from said retainer, wherein said base spanning from a cover of the fluid line connector via a first hinged end, said appendage spanning from said base via a second hinged end, said base moveable relative to the cover about said first hinged end, and said appendage moveable relative to said base about said second hinged end. a body, a passage residing in said body, and an opening residing in said body; a radio-frequency identification (RFID) tag carried by said body; a retainer moveable through said opening in said body; an actuator member having a base and an appendage depending from said base; and a switch electrically coupled with said RFID tag, said switch changing its state upon impingement by said actuator member, impingement occurring upon both of a first force exerted to said appendage from another connector inserted into the fluid line connector and a second force exerted to said base from said retainer, wherein said base spanning from a cover of the fluid line connector via a first hinged end, said appendage spanning from said base via a second hinged end, said base moveable relative to the cover about said first hinged end, and said appendage moveable relative to said base about said second hinged end.
A method for operating a processing entity configured to receive a 3D image data stream generated by a 3D camera over a wireless network, the 3D image data stream comprising a first image data stream comprising a mesh representing a structure of at least one real-world object, and a second image data stream comprising texture and UV maps representing a visual appearance of the at least one real-world object, the method comprising: - receiving, from the 3D camera, a resolution indicator indicating a resolution of the 3D camera, - determining an activity of the at least one real-world object shown in the 3D image data stream, - determining a transmission bandwidth of the wireless network used to receive the 3D image data stream generated by the 3D camera, - determining a first frame rate to be used by the 3D camera for the first image data stream and a second frame rate to be used by the 3D camera for the second image data stream taking into account the resolution indicator, the transmission bandwidth, and the determined activity, - transmitting to the 3D camera a scaling parameter corresponding to a ratio of the first frame rate and the second frame rate. - receiving, from the 3D camera, a resolution indicator indicating a resolution of the 3D camera, - determining an activity of the at least one real-world object shown in the 3D image data stream, - determining a transmission bandwidth of the wireless network used to receive the 3D image data stream generated by the 3D camera, - determining a first frame rate to be used by the 3D camera for the first image data stream and a second frame rate to be used by the 3D camera for the second image data stream taking into account the resolution indicator, the transmission bandwidth, and the determined activity, - transmitting to the 3D camera a scaling parameter corresponding to a ratio of the first frame rate and the second frame rate.
An optically variable security element for securing valuable articles, having - a one- or two-dimensional relief grid that is composed of a plurality of grid elements and that has a first line screen p below 500 μm in at least one spatial direction and in which the grid elements are each formed from at least two relief elements that are directionally reflective in different directions, and - having at least one dot and/or line grid that is arranged vertically above or below the relief grid and has a second line screen q in said spatial direction, the second line screen q differing from the first line screen p by less than one-fifth, and/or the first line screen p and/or the second line screen q being location-dependently modulated such that a movement effect is created by the interplay of the relief grid and the dot and/or line grid when the security element is tilted, - and the vertical spacing between the relief grid and the dot and/or line grid being less than half the line screen p. - a one- or two-dimensional relief grid that is composed of a plurality of grid elements and that has a first line screen p below 500 μm in at least one spatial direction and in which the grid elements are each formed from at least two relief elements that are directionally reflective in different directions, and - having at least one dot and/or line grid that is arranged vertically above or below the relief grid and has a second line screen q in said spatial direction, the second line screen q differing from the first line screen p by less than one-fifth, and/or the first line screen p and/or the second line screen q being location-dependently modulated such that a movement effect is created by the interplay of the relief grid and the dot and/or line grid when the security element is tilted, - and the vertical spacing between the relief grid and the dot and/or line grid being less than half the line screen p.
An in vitro method for diagnosis of NASH, Non-alcoholic steato-hepatitis, in a patient comprising the step of: a) combining the values as measured from markers present in the serum or plasma of said patient through a logistic function, so as to obtain an index, wherein said index is to be compared to a reference index, wherein said first logistic function is a1 + a2 x Log (alpha2-macroglobulin (A2M), g/l) + a3 x Age (years) + a4 x Log (alanine aminotransferase, IU / l) + a5 x (apolipoprotein A-1 (Apoa1), g/l) + a6 x Log (Aspartate transaminase, IU/l) + a7 x Log (total bilirubin (BILl), μmol/l) + a8 x Log (cholesterol, mmol/l) + a9 x Gender (0 for women, 1 for men) + a10 x Log(gamma-glutamyl transpeptidase, IU / l) + a11 x Log (Haptoglobin (Hapto), g/l) + a12 x Log (Triglycerides, mmol/l) wherein i. − 8 ≤ a 1 ≤ − 7 ii. 0.1 ≤ a2 ≤ 0.6 preferably 0.15 ≤ a2 ≤ 0.55 iii. 0.02 ≤ a3 ≤ 0.05 preferably 0.03 ≤ a3 ≤ 0.04 iv. 1.1 ≤ a4 ≤ 1.5 preferably 1.2 ≤ a4 ≤ 1.4 v. − 0.2 ≤ a 5 ≤ 1.0 vi. 1.8 ≤ a6 ≤ 2.3 preferably 1.95 ≤ a6 ≤ 2.2 vii. 0.8 ≤ a7 ≤ 1.6 preferably 0.9 ≤ a7 ≤ 1.5 viii. -1.7 ≤ a8 ≤ -1.3 preferably -1.6 ≤ a8 ≤ -1.4 ix. 0.015 ≤ a9 ≤ 0.20 x. 0.15 ≤ a10 ≤ 0.25 preferably 0.20 ≤ a10 ≤ 0.22 xi. − 0.3 ≤ a 11 ≤ 0.1 xii. 0.9 ≤ a12 ≤ 1.2 preferably 1.0 ≤ a12 ≤ 1.1. a) combining the values as measured from markers present in the serum or plasma of said patient through a logistic function, so as to obtain an index, wherein said index is to be compared to a reference index, wherein said first logistic function is a1 + a2 x Log (alpha2-macroglobulin (A2M), g/l) + a3 x Age (years) + a4 x Log (alanine aminotransferase, IU / l) + a5 x (apolipoprotein A-1 (Apoa1), g/l) + a6 x Log (Aspartate transaminase, IU/l) + a7 x Log (total bilirubin (BILl), μmol/l) + a8 x Log (cholesterol, mmol/l) + a9 x Gender (0 for women, 1 for men) + a10 x Log(gamma-glutamyl transpeptidase, IU / l) + a11 x Log (Haptoglobin (Hapto), g/l) + a12 x Log (Triglycerides, mmol/l) wherein i. − 8 ≤ a 1 ≤ − 7 ii. 0.1 ≤ a2 ≤ 0.6 preferably 0.15 ≤ a2 ≤ 0.55 iii. 0.02 ≤ a3 ≤ 0.05 preferably 0.03 ≤ a3 ≤ 0.04 iv. 1.1 ≤ a4 ≤ 1.5 preferably 1.2 ≤ a4 ≤ 1.4 v. − 0.2 ≤ a 5 ≤ 1.0 vi. 1.8 ≤ a6 ≤ 2.3 preferably 1.95 ≤ a6 ≤ 2.2 vii. 0.8 ≤ a7 ≤ 1.6 preferably 0.9 ≤ a7 ≤ 1.5 viii. -1.7 ≤ a8 ≤ -1.3 preferably -1.6 ≤ a8 ≤ -1.4 ix. 0.015 ≤ a9 ≤ 0.20 x. 0.15 ≤ a10 ≤ 0.25 preferably 0.20 ≤ a10 ≤ 0.22 xi. − 0.3 ≤ a 11 ≤ 0.1 xii. 0.9 ≤ a12 ≤ 1.2 preferably 1.0 ≤ a12 ≤ 1.1. i. − 8 ≤ a 1 ≤ − 7 ii. 0.1 ≤ a2 ≤ 0.6 preferably 0.15 ≤ a2 ≤ 0.55 iii. 0.02 ≤ a3 ≤ 0.05 preferably 0.03 ≤ a3 ≤ 0.04 iv. 1.1 ≤ a4 ≤ 1.5 preferably 1.2 ≤ a4 ≤ 1.4 v. − 0.2 ≤ a 5 ≤ 1.0 vi. 1.8 ≤ a6 ≤ 2.3 preferably 1.95 ≤ a6 ≤ 2.2 vii. 0.8 ≤ a7 ≤ 1.6 preferably 0.9 ≤ a7 ≤ 1.5 viii. -1.7 ≤ a8 ≤ -1.3 preferably -1.6 ≤ a8 ≤ -1.4 ix. 0.015 ≤ a9 ≤ 0.20 x. 0.15 ≤ a10 ≤ 0.25 preferably 0.20 ≤ a10 ≤ 0.22 xi. − 0.3 ≤ a 11 ≤ 0.1 xii. 0.9 ≤ a12 ≤ 1.2 preferably 1.0 ≤ a12 ≤ 1.1.
Method for thermally monitoring an at least two-phase brushless motor, preferably without a rotor position sensor, the method comprising at least the steps of: • energising the motor, wherein the phase voltage (UPhase) of the energisation is preferably adjusted by means of PWM control, • detecting the star point voltage, • comparing the detected star point voltage with a predetermined threshold value, and • continuing the energisation if, during comparison, the star point voltage is below the predetermined threshold value, characterised in that, • an error condition is detected if, during the comparison, the star point voltage is at or above the predetermined threshold value, and a response to the comparison occurs only if the result of the comparison is present over a predetermined period of time or a predetermined number of times. • energising the motor, wherein the phase voltage (UPhase) of the energisation is preferably adjusted by means of PWM control, • detecting the star point voltage, • comparing the detected star point voltage with a predetermined threshold value, and • continuing the energisation if, during comparison, the star point voltage is below the predetermined threshold value, characterised in that, • an error condition is detected if, during the comparison, the star point voltage is at or above the predetermined threshold value, and a response to the comparison occurs only if the result of the comparison is present over a predetermined period of time or a predetermined number of times.
A method of controlling a back-off timer in a terminal configured with multiple priorities, the method comprising: transmitting a first non-access stratum, NAS, request message set to a first priority level; and starting the back-off timer configured by a network, characterized by: further comprising transmitting a second NAS request message, which is not set to the first priority level, while the back-off timer runs. transmitting a first non-access stratum, NAS, request message set to a first priority level; and starting the back-off timer configured by a network, characterized by: further comprising transmitting a second NAS request message, which is not set to the first priority level, while the back-off timer runs. further comprising transmitting a second NAS request message, which is not set to the first priority level, while the back-off timer runs.
An ink jet textile printing ink composition comprising: a compound represented by formula: Li +; and Na +; wherein the mole ratio of the compound represented by formula to the Li + is in the range of 1:0.4 to 1:3.5.
A computer-implemented method comprising: encoding, by a sender party, quantum information into an entangled pair of information qubits, wherein the entangled pair of information qubits consists in a first information qubit and a second information qubit; encrypting, by the sender party, the entangled pair of information qubits, comprising performing i) a parity operation on the first information qubit and a parity control qubit, ii) a phase operation on the first information qubit and a phase control qubit, and iii) a sequence of one or more quantum logic gates on the phase control qubit, wherein the sequence of one or more quantum logic gates comprises a secret sequence of one or more quantum logic gates; sending, by the sender party, the first information qubit, parity control qubit, phase control qubit second information qubit, and data identifying the sequence of one or more quantum logic gates to a recipient party; obtaining, by the recipient party, the quantum information encoded into the entangled pair of information qubits based on the first information qubit, second information qubit, parity control qubit, phase control qubit, and data identifying the sequence of one or more quantum logic gates. encoding, by a sender party, quantum information into an entangled pair of information qubits, wherein the entangled pair of information qubits consists in a first information qubit and a second information qubit; encrypting, by the sender party, the entangled pair of information qubits, comprising performing i) a parity operation on the first information qubit and a parity control qubit, ii) a phase operation on the first information qubit and a phase control qubit, and iii) a sequence of one or more quantum logic gates on the phase control qubit, wherein the sequence of one or more quantum logic gates comprises a secret sequence of one or more quantum logic gates; sending, by the sender party, the first information qubit, parity control qubit, phase control qubit second information qubit, and data identifying the sequence of one or more quantum logic gates to a recipient party; obtaining, by the recipient party, the quantum information encoded into the entangled pair of information qubits based on the first information qubit, second information qubit, parity control qubit, phase control qubit, and data identifying the sequence of one or more quantum logic gates.
An automated work platform assembly for remotely servicing a lower portion of a vessel, the platform assembly comprising: a horizontal generally circular work platform extending in a first plane; an orbital track extending in a second plane substantially parallel to the first plane and on which the work platform is rotationally supported to rotate the work platform in the first plane, the orbital track including a circumferential drive ring having gear teeth; a pin gear structured to interact with the gear teeth of the circumferential drive ring; a remotely controlled motor for rotating the work platform on the orbital track by driving the pin gear; a linear track extending across a diameter of the work platform; a carriage remotely moveable on the linear track across the diameter of the work platform; and a robot attached to the carriage and moveable therewith, the robot having a vertically extending member moveable in a direction perpendicular to the first plane and having a receptacle proximate a distal end of the vertically extending member for supporting a tool. a horizontal generally circular work platform extending in a first plane; an orbital track extending in a second plane substantially parallel to the first plane and on which the work platform is rotationally supported to rotate the work platform in the first plane, the orbital track including a circumferential drive ring having gear teeth; a pin gear structured to interact with the gear teeth of the circumferential drive ring; a remotely controlled motor for rotating the work platform on the orbital track by driving the pin gear; a linear track extending across a diameter of the work platform; a carriage remotely moveable on the linear track across the diameter of the work platform; and a robot attached to the carriage and moveable therewith, the robot having a vertically extending member moveable in a direction perpendicular to the first plane and having a receptacle proximate a distal end of the vertically extending member for supporting a tool.