mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling reductant injection for an emission reduction system of an internal combustion engine, the method comprising steps of measuring reductant flow to an injector with a flow meter, controlling at least one valve to adjust reductant flow based on said measured reductant flow and a setpoint value, characterised in that, in case the setpoint value is below a predetermined threshold value, wherein the predetermined threshold value corresponds with a minimum accuracy limit of the flow meter, the method further comprises the steps of determining a low mode setpoint value, being said predetermined threshold value or higher, allowing and restricting reductant flow to the injector in repeating allowing cycles and restricting cycles in such a way that during the allowing cycles the low mode setpoint value is used as said setpoint when controlling at least one valve, and during the restricting cycles the reductant flow is prevented, wherein allowing cycles and restricting cycles alternate, and the duration of the allowing cycles and the restricting cycles are adjusted to achieve the reductant flow as average to be the setpoint value.
An engineered, non-naturally occurring Clustered Regularly Interspaced Short Palindromic Repeat (CRISPR)-associated (Cas) system comprising: an RNA guide or a nucleic acid encoding an RNA guide, wherein the RNA guide comprises a direct repeat sequence, a spacer sequence capable of hybridizing to a target nucleic acid, and a tracrRNA; and a RuvC nuclease domain-containing CRISPR-Cas effector protein or a nucleic acid encoding the RuvC nuclease domain-containing CRISPR-Cas effector protein, wherein the RuvC nuclease domain-containing CRISPR-Cas effector protein is capable of binding to the RNA guide and of targeting the target nucleic acid sequence complementary to the spacer sequence; wherein the CRISPR-Cas effector protein comprises an amino acid sequence that is at least 95% identical to the amino acid sequence of SEQ ID NO: 6, and wherein the target nucleic acid is RNA. an RNA guide or a nucleic acid encoding an RNA guide, wherein the RNA guide comprises a direct repeat sequence, a spacer sequence capable of hybridizing to a target nucleic acid, and a tracrRNA; and a RuvC nuclease domain-containing CRISPR-Cas effector protein or a nucleic acid encoding the RuvC nuclease domain-containing CRISPR-Cas effector protein, wherein the RuvC nuclease domain-containing CRISPR-Cas effector protein is capable of binding to the RNA guide and of targeting the target nucleic acid sequence complementary to the spacer sequence; wherein the CRISPR-Cas effector protein comprises an amino acid sequence that is at least 95% identical to the amino acid sequence of SEQ ID NO: 6, and wherein the target nucleic acid is RNA.
Assembly comprising; a rail having a longitudinal rail axis, a rectangular form in a cross section perpendicular to the longitudinal rail axis and a first rail side, a second rail side, a third rail side and a fourth rail side, in which the first and third rail side extend perpendicular to the second and fourth rail side, a vehicle configured to be moved along the rail and comprising rollers which engage the rail such that each roller has a contact area with which said roller is in contact with the rail, wherein at least two rollers (21, 22, 23) are in contact with the first rail side, two rollers (24, 25) are in contact with the second rail side, characterised in that exactly one roller is in contact with the third rail side, and exactly one roller is in contact with the fourth rail side. a rail having a longitudinal rail axis, a rectangular form in a cross section perpendicular to the longitudinal rail axis and a first rail side, a second rail side, a third rail side and a fourth rail side, in which the first and third rail side extend perpendicular to the second and fourth rail side, a vehicle configured to be moved along the rail and comprising rollers which engage the rail such that each roller has a contact area with which said roller is in contact with the rail, wherein at least two rollers (21, 22, 23) are in contact with the first rail side, two rollers (24, 25) are in contact with the second rail side, characterised in that exactly one roller is in contact with the third rail side, and exactly one roller is in contact with the fourth rail side.
Braking device (20, 20A) for a movable door leaf, with a generator, the at least one generator shaft (24, 24A, 24B) of which is rotatable by movement of the door leaf and at the connection terminals (K1, K2) of which a movement-dependent first output voltage (U A1) is produced which is applied to an evaluation and control electronics system having an evaluation and control unit and a braking circuit which generates an effective braking force for damping the movement of the door leaf, wherein the braking circuit has at least one switching element via which the connection terminals (K1, K2) can be short-circuited, characterized in that a second output voltage (U A2) of the generator is applied to a charging circuit which stores electrical energy for supplying the evaluation and control electronics system with power.
A system configured to quantify risk associated with preclinical indicators of one or more hand based clinical skin conditions, the system comprising a plurality of measurement tools in connection with a processor, each of the plurality of measurement tools configured to measure a property of the skin of a subject's hand, said property related to skin health, wherein the measurement tools are configured to measure at least two of erythema, scaling, papule density, vesicle density, infiltration, fissuring, surface hydration level, skin barrier function and transepidermal water loss of a subject's hand, wherein each of the plurality of measurement tools is configured to provide a first score characteristic of the health of the skin on the hand of the subject for each property of the skin of a subject's hand measured by the measurement tools, such that each first score characteristic of the health of the skin on the hand of the subject is calculated using the property of the skin of a subject's hand measured by each of the plurality of measurement tools, wherein at least one first score characteristic of the health of the skin on the hand of the subject is scaled such that at least two first scores from each of a plurality of measurement tools are measured along the same range, and wherein the processor is configured to calculate a second score based on the combined first scores from each of a plurality of measurement tools, the second score representing the subject's risk of future development of one or more clinical skin conditions. the system comprising a plurality of measurement tools in connection with a processor, each of the plurality of measurement tools configured to measure a property of the skin of a subject's hand, said property related to skin health, wherein the measurement tools are configured to measure at least two of erythema, scaling, papule density, vesicle density, infiltration, fissuring, surface hydration level, skin barrier function and transepidermal water loss of a subject's hand, wherein each of the plurality of measurement tools is configured to provide a first score characteristic of the health of the skin on the hand of the subject for each property of the skin of a subject's hand measured by the measurement tools, such that each first score characteristic of the health of the skin on the hand of the subject is calculated using the property of the skin of a subject's hand measured by each of the plurality of measurement tools, wherein at least one first score characteristic of the health of the skin on the hand of the subject is scaled such that at least two first scores from each of a plurality of measurement tools are measured along the same range, and wherein the processor is configured to calculate a second score based on the combined first scores from each of a plurality of measurement tools, the second score representing the subject's risk of future development of one or more clinical skin conditions.
An electronic circuit apparatus having at least one resistor, the apparatus comprising: a compensating part comprising a first resistor (612, 622, 632, 642, 652, 662) and a first transistor (614, 624, 634, 644, 654, 664); and a detecting part comprising a second resistor (504, 514, 1014, 1214, 1334, 1374) and a current source (412, 502, 512, 1012, 1212, 1336, 1376), wherein the detecting part is configured to generate a tune voltage corresponding to a process variation value of the second resistor, wherein the compensating part is configured to compensate for a process variation value of the first resistor by applying the tune voltage to the first transistor which operates in a linear region, wherein the process variation value of the second resistor corresponds to the process variation value of the first resistor, and wherein the tune voltage comprises a voltage of the second resistor caused by the current source. a compensating part comprising a first resistor (612, 622, 632, 642, 652, 662) and a first transistor (614, 624, 634, 644, 654, 664); and a detecting part comprising a second resistor (504, 514, 1014, 1214, 1334, 1374) and a current source (412, 502, 512, 1012, 1212, 1336, 1376), wherein the detecting part is configured to generate a tune voltage corresponding to a process variation value of the second resistor, wherein the compensating part is configured to compensate for a process variation value of the first resistor by applying the tune voltage to the first transistor which operates in a linear region, wherein the process variation value of the second resistor corresponds to the process variation value of the first resistor, and wherein the tune voltage comprises a voltage of the second resistor caused by the current source.
A positive displacement pump for dispensing fluid comprising: a fluid body sub-assembly including a fluid body and a negating check valve, the negating check valve including a negating body defining a dispensing opening and further comprising a ball disposed within the negating body between the dispensing opening and the chamber gateway opening; and a compression spring disposed within the negating body between the dispensing opening and the ball wherein the fluid body and the negating body form a flow path for the fluid; wherein the positive displacement pump further comprises a sealing displacement chamber that forms part of the flow path and includes a chamber gateway opening, wherein the fluid is dispensed through the dispensing opening; and characterized by the pump being configured for loosening the negating check valve from the fluid body of the fluid body sub-assembly until the negating check valve is partially attached to the fluid body, wherein the positive displacement pump is thereby configured to be primed such that when the negating check valve is fully attached to the fluid body, the compression spring lodges the ball against the chamber gateway opening such that the fluid does not flow out of the dispensing opening and when the negating check valve is partially attached to the fluid body, the fluid overcomes the force of the compression spring and flows around the ball and out of the dispensing opening to allow trapped air within the flow path to flow out of the dispensing opening. a fluid body sub-assembly including a fluid body and a negating check valve, the negating check valve including a negating body defining a dispensing opening and further comprising a ball disposed within the negating body between the dispensing opening and the chamber gateway opening; and a compression spring disposed within the negating body between the dispensing opening and the ball wherein the fluid body and the negating body form a flow path for the fluid; wherein the positive displacement pump further comprises a sealing displacement chamber that forms part of the flow path and includes a chamber gateway opening, wherein the fluid is dispensed through the dispensing opening; and characterized by the pump being configured for loosening the negating check valve from the fluid body of the fluid body sub-assembly until the negating check valve is partially attached to the fluid body, wherein the positive displacement pump is thereby configured to be primed such that when the negating check valve is fully attached to the fluid body, the compression spring lodges the ball against the chamber gateway opening such that the fluid does not flow out of the dispensing opening and when the negating check valve is partially attached to the fluid body, the fluid overcomes the force of the compression spring and flows around the ball and out of the dispensing opening to allow trapped air within the flow path to flow out of the dispensing opening.
A landing device for a low gravity lander having a main body, the landing device comprising a number of leg-like rods (21, 22, 23, 24), the number of leg-like rods (21, 22, 23, 24) being attachable to a common first side surface of the main body, wherein, in the deployment position of the rods (21, 22, 23, 24), each of the number of rods (21, 22, 23, 24) is inclined with regard to a plane of the first side surface of the main body such that the rods substantially extend in a direction of movement of the low gravity lander, and wherein the number of rods (21, 22, 23, 24) is made such that they bend or buckle under forces within a predetermined range by an impact due to a landing on a landing surface, thereby absorbing an impact momentum, characterised in that the number of leg-like rods is deployable from a stowage position to a deployment position during a landing process.
An electronic device, comprising: a wireless transceiver configured to exchange data with a mobile device; and a processor configured to: monitor accelerometer data of the electronic device; obtain, from the mobile device, location coordinates of the mobile device in response to an indication in the accelerometer data that the electronic device is stationary and in response to receiving a message, from the mobile device, the message indicating that the mobile device is stationary and being transmitted by the mobile device when an accelerometer associated with the mobile device indicates that the mobile device is stationary; set the location coordinates of the mobile device as location coordinates of the electronic device; generate a beacon package comprising an identifier of the electronic device and the location coordinates of the electronic device; and transmit the beacon package to a local device in proximity to the electronic device, wherein the electronic device is configured to be in short-range wireless communication with the mobile device. a wireless transceiver configured to exchange data with a mobile device; and a processor configured to: monitor accelerometer data of the electronic device; obtain, from the mobile device, location coordinates of the mobile device in response to an indication in the accelerometer data that the electronic device is stationary and in response to receiving a message, from the mobile device, the message indicating that the mobile device is stationary and being transmitted by the mobile device when an accelerometer associated with the mobile device indicates that the mobile device is stationary; set the location coordinates of the mobile device as location coordinates of the electronic device; generate a beacon package comprising an identifier of the electronic device and the location coordinates of the electronic device; and transmit the beacon package to a local device in proximity to the electronic device, wherein the electronic device is configured to be in short-range wireless communication with the mobile device. monitor accelerometer data of the electronic device; obtain, from the mobile device, location coordinates of the mobile device in response to an indication in the accelerometer data that the electronic device is stationary and in response to receiving a message, from the mobile device, the message indicating that the mobile device is stationary and being transmitted by the mobile device when an accelerometer associated with the mobile device indicates that the mobile device is stationary; set the location coordinates of the mobile device as location coordinates of the electronic device; generate a beacon package comprising an identifier of the electronic device and the location coordinates of the electronic device; and transmit the beacon package to a local device in proximity to the electronic device, wherein the electronic device is configured to be in short-range wireless communication with the mobile device.
An engine system comprising: a first flowpath between the discharge conduit of a compressor section of a turbocharger and an intake manifold; a second flowpath between a junction upstream of the turbocharger and the intake manifold of an engine intake system; an ejector and an aspirator connected in parallel relative to one another form a portion of the second flowpath; a throttle characterized in that a first motive flow through the ejector is in an opposite direction relative to a direction of a second motive flow through the aspirator, the second motive flow being in a direction from a junction upstream of the turbocharger toward the intake manifold; and a first check valve disposed in control of the first motive flow through the ejector and a second check valve disposed in control of the second motive flow through the aspirator; wherein the first check valve allows fluid flow in the direction of the first motive flow under a boost condition with the throttle open; wherein both the ejector and the aspirator have a suction port fluidly coupled to a device requiring vacuum. a first flowpath between the discharge conduit of a compressor section of a turbocharger and an intake manifold; a second flowpath between a junction upstream of the turbocharger and the intake manifold of an engine intake system; an ejector and an aspirator connected in parallel relative to one another form a portion of the second flowpath; a throttle characterized in that a first motive flow through the ejector is in an opposite direction relative to a direction of a second motive flow through the aspirator, the second motive flow being in a direction from a junction upstream of the turbocharger toward the intake manifold; and a first check valve disposed in control of the first motive flow through the ejector and a second check valve disposed in control of the second motive flow through the aspirator; wherein the first check valve allows fluid flow in the direction of the first motive flow under a boost condition with the throttle open; wherein both the ejector and the aspirator have a suction port fluidly coupled to a device requiring vacuum.
A method for producing a three-dimensional object comprising: a. Computing, after obtaining a three dimensional computer model or a three dimensional scan of said object, a sequence of back-projections describing the three-dimensional object to be formed from different orientation angles of said object, b. defining a sequence of patterns of light (11, 46, 47, 56, 57, 66, 83, 1605, 1702, 1707, 1708) using said back-projections, and c. irradiating, with each of said patterns of light (11, 46, 47, 56, 57, 66, 83, 1605, 1702, 1707, 1708) at the respective corresponding orientation angle and according to the defined sequence, a photoresponsive material (12, 42, 53, 65, 70, 84, 1604, 1704), that is capable of alteration of its material phase upon irradiation by light, thereby creating a three-dimensional distribution of alterations within the photoresponsive medium which physically reproduces said three-dimensional object, thereby creating the three-dimensional object, characterized in that the alterations of said photoresponsive medium are recordedduring the irradiation with said patterns of light (11, 46, 47, 56, 57, 66, 83, 1605, 1702, 1707, 1708), and these recordings are used as feedback to correct or adjust subsequent patterns of light (11, 46, 47, 56, 57, 66, 83, 1605, 1702, 1707, 1708) in order to produce said three-dimensional object with improved accuracy. a. Computing, after obtaining a three dimensional computer model or a three dimensional scan of said object, a sequence of back-projections describing the three-dimensional object to be formed from different orientation angles of said object, b. defining a sequence of patterns of light (11, 46, 47, 56, 57, 66, 83, 1605, 1702, 1707, 1708) using said back-projections, and c. irradiating, with each of said patterns of light (11, 46, 47, 56, 57, 66, 83, 1605, 1702, 1707, 1708) at the respective corresponding orientation angle and according to the defined sequence, a photoresponsive material (12, 42, 53, 65, 70, 84, 1604, 1704), that is capable of alteration of its material phase upon irradiation by light, thereby creating a three-dimensional distribution of alterations within the photoresponsive medium which physically reproduces said three-dimensional object, thereby creating the three-dimensional object, characterized in that the alterations of said photoresponsive medium are recordedduring the irradiation with said patterns of light (11, 46, 47, 56, 57, 66, 83, 1605, 1702, 1707, 1708), and these recordings are used as feedback to correct or adjust subsequent patterns of light (11, 46, 47, 56, 57, 66, 83, 1605, 1702, 1707, 1708) in order to produce said three-dimensional object with improved accuracy.
Method for the replacement of a telecommunications tower placed on an existing foundation and provided with antenna equipment, characterized in that the method comprises the following steps: - setting up a replacement telecommunications tower next to the existing telecommunications tower, wherein a temporary base is deployed next to the existing telecommunications tower and the replacement telecommunications tower is placed on the temporary base, and wherein the replacement telecommunications tower is provided with antenna equipment; - setting into operation the replacement telecommunications tower; - shutting down the existing telecommunications tower; - removing the existing telecommunications tower from the existing foundation; - removing the replacement telecommunications tower from the temporary base and transfer the replacement telecommunications tower to the existing foundation; and - remove the temporary base. - setting up a replacement telecommunications tower next to the existing telecommunications tower, wherein a temporary base is deployed next to the existing telecommunications tower and the replacement telecommunications tower is placed on the temporary base, and wherein the replacement telecommunications tower is provided with antenna equipment; - setting into operation the replacement telecommunications tower; - shutting down the existing telecommunications tower; - removing the existing telecommunications tower from the existing foundation; - removing the replacement telecommunications tower from the temporary base and transfer the replacement telecommunications tower to the existing foundation; and - remove the temporary base.