mhurhangee/ep-ind-claims huggingface dataset:
Method for adapting an original paint layer on an object comprising the steps of: - arranging a resin layer on the object, subsequently allowing the resin layer to cure, wherein after curing a resin layer is obtained which is adhered peelably to the original paint layer; and - applying a new paint layer to the peelable resin layer and allowing the paint layer to dry, wherein the resin comprises a partially cured resin chosen from the group of polyvinyl butyral, ethylene vinyl acetate, ethylene acrylate, polyvinyl acetate and derivatives thereof, as well as combinations of the above stated resins and their derivatives. - arranging a resin layer on the object, subsequently allowing the resin layer to cure, wherein after curing a resin layer is obtained which is adhered peelably to the original paint layer; and - applying a new paint layer to the peelable resin layer and allowing the paint layer to dry,
A large format framing camera, configured to be installed in an aircraft for capturing ground images as the aircraft is flown along a well-defined flight line, the large format framing camera comprising: a primary camera system configured for collecting panchromatic image data, the primary camera system comprising an optical system having a first focal length; and two or more secondary camera systems (104B-104N) configured for collecting color image data, each of the secondary camera systems (104B-104N) comprising an optical system having a second focal length, and wherein the second focal length is longer than the first focal length, characterized in that the footprints (204A-204D) of the secondary camera systems (104B-104N) overlap such that the footprints (204A-204D) of the secondary camera systems (104B-104N) cover the footprint of the primary camera system in a direction perpendicular to the well-defined flight line..
A vehicle lift device for a recovery vehicle comprising: a lift boom configured to be pivotably connected to the recovery vehicle, a support boom on the lift boom configured to support a vehicle to be recovered, the vehicle lift device is characterised in that it is operable in a first operating configuration and a second operating configuration, in which: in the first operating configuration, the support boom is restricted from rotating about the lift boom by a means for restricting rotation of the support boom about the lift boom, and the support boom is configured to pivotably couple about a coupled pivot axis to a chassis of the vehicle to be recovered, and in the second operating configuration, the support boom is freely pivotable about the lift boom and the support boom is configured to be restrictively coupled with the chassis of the vehicle to be recovered to restrict pivoting of the chassis about the coupled pivot axis in at least one direction by a means for causing restriction of the pivoting of the chassis about the coupled pivot axis in the at least one direction. a lift boom configured to be pivotably connected to the recovery vehicle, a support boom on the lift boom configured to support a vehicle to be recovered, the vehicle lift device is characterised in that it is operable in a first operating configuration and a second operating configuration, in which: in the first operating configuration, the support boom is restricted from rotating about the lift boom by a means for restricting rotation of the support boom about the lift boom, and the support boom is configured to pivotably couple about a coupled pivot axis to a chassis of the vehicle to be recovered, and in the second operating configuration, the support boom is freely pivotable about the lift boom and the support boom is configured to be restrictively coupled with the chassis of the vehicle to be recovered to restrict pivoting of the chassis about the coupled pivot axis in at least one direction by a means for causing restriction of the pivoting of the chassis about the coupled pivot axis in the at least one direction. in the first operating configuration, the support boom is restricted from rotating about the lift boom by a means for restricting rotation of the support boom about the lift boom, and the support boom is configured to pivotably couple about a coupled pivot axis to a chassis of the vehicle to be recovered, and in the second operating configuration, the support boom is freely pivotable about the lift boom and the support boom is configured to be restrictively coupled with the chassis of the vehicle to be recovered to restrict pivoting of the chassis about the coupled pivot axis in at least one direction by a means for causing restriction of the pivoting of the chassis about the coupled pivot axis in the at least one direction.
An agonist polypeptide of IL-2, wherein said polypeptide is an IL-2 mutein that is at least 1000 times less effective in stimulating in vitro and/or in vivo regulatory T cells and shows greater in vivo therapeutic efficacy than native IL-2, wherein said polypeptide comprises mutations - R38K, F42I, Y45N, E62L, E68V; - R38A, F42I, Y45N, E62L, E68V; - R38K, F42K, Y45R, E62L, E68V; - R38A, F42A, Y45A, E62A, and wherein said mutations are referred to according to the numbering of the human IL-2. - R38K, F42I, Y45N, E62L, E68V; - R38A, F42I, Y45N, E62L, E68V; - R38K, F42K, Y45R, E62L, E68V; - R38A, F42A, Y45A, E62A,
Titanium oxide composite particles comprising: titanium oxide particles; and a nonionic hydrophilic polymer bound to a surface of the titanium oxide particles through at least one functional group selected from carboxyl group, amino group, diol group, salicylic acid group, and phosphoric acid group, wherein the nonionic hydrophilic polymer is polyethylene glycol, and the bonding amount of the hydrophilic polymer per unit weight of the titanium oxide composite particles is 0.3 to 0.5 g/g. titanium oxide particles; and a nonionic hydrophilic polymer bound to a surface of the titanium oxide particles through at least one functional group selected from carboxyl group, amino group, diol group, salicylic acid group, and phosphoric acid group, wherein the nonionic hydrophilic polymer is polyethylene glycol, and the bonding amount of the hydrophilic polymer per unit weight of the titanium oxide composite particles is 0.3 to 0.5 g/g.
An imaging apparatus comprising: - a mirror arrangement including a scanning mirror and an actuator, for directing electromagnetic radiations emitting from an object to be scanned; - optics; and - a detector arrangement (102, 208, 304, 400) arranged to remain in a fixed position and comprising a plurality of detectors (104, 106, 108, 110, 112, 214) configured to detect submillimeter/millimeter-range electromagnetic radiation, wherein the plurality of detectors are arranged within a region (460, 520) defined by an outer periphery (462, 532) and an inner periphery (464, 530) of the detector arrangement, the outer and inner peripheries being substantially circular in shape, characterised in that the plurality of detectors (104, 106, 108, 110, 112, 214) include at least a first type of detectors and a second type of detectors, wherein the first type of detectors are larger in size than the second type of detectors, wherein the size of a given detector corresponds to a wavelength of electromagnetic radiation detected by the given detector. - a mirror arrangement including a scanning mirror and an actuator, for directing electromagnetic radiations emitting from an object to be scanned; - optics; and - a detector arrangement (102, 208, 304, 400) arranged to remain in a fixed position and comprising a plurality of detectors (104, 106, 108, 110, 112, 214) configured to detect submillimeter/millimeter-range electromagnetic radiation, wherein the plurality of detectors are arranged within a region (460, 520) defined by an outer periphery (462, 532) and an inner periphery (464, 530) of the detector arrangement, the outer and inner peripheries being substantially circular in shape,
Method for manufacturing and assembling a pump, characterized in that the method comprises the steps of providing a housing; providing a rotor or a rotor mock-up and a rotor axis, the rotor or the rotor mock-up being inserted into the housing and being arranged to rotate around the rotor axis; determining an optimal distance (g_opt) between the housing and the rotor; moving the housing or the rotor or rotor mock-up relative to each other in a tangency direction (d), so that the distance between the rotor or the rotor mock-up and the housing is substantially equal to the optimal distance (g_opt), wherein the tangency direction (d) is the direction which joins the points of the rotor or rotor mock-up and the housing which are closer to each other when the rotor or rotor mock-up is located in its operation position; and affixing the relative position between the housing and the rotor or the rotor mock-up. providing a housing; providing a rotor or a rotor mock-up and a rotor axis, the rotor or the rotor mock-up being inserted into the housing and being arranged to rotate around the rotor axis; determining an optimal distance (g_opt) between the housing and the rotor; moving the housing or the rotor or rotor mock-up relative to each other in a tangency direction (d), so that the distance between the rotor or the rotor mock-up and the housing is substantially equal to the optimal distance (g_opt), wherein the tangency direction (d) is the direction which joins the points of the rotor or rotor mock-up and the housing which are closer to each other when the rotor or rotor mock-up is located in its operation position; and affixing the relative position between the housing and the rotor or the rotor mock-up.
A vertical transmission equipment, comprising: a base; and a carrier comprising a supporting surface and a well plate being supported by the supporting surface and movably disposed on the base along a transmission path; wherein the supporting surface of the carrier is perpendicular to an imaginary plane which is defined by the transmission path of the carrier; wherein the vertical transmission equipment further comprises a roller member movably disposed on the base, the carrier comprises a bridging structure and a supporting structure, the bridging structure is pivotally connected to the roller member and is connected to the supporting structure, and the supporting surface is located on the supporting structure; characterized in that the vertical transmission equipment further comprises a positioning assembly disposed on the base, the positioning assembly comprises a positioning structure, the bridging structure of the carrier has a positioning hole, the positioning structure of the positioning assembly is selectively inserted into the positioning hole, and when the positioning assembly is inserted into the positioning hole, the carrier is positioned. a base; and a carrier comprising a supporting surface and a well plate being supported by the supporting surface and movably disposed on the base along a transmission path; wherein the supporting surface of the carrier is perpendicular to an imaginary plane which is defined by the transmission path of the carrier;
A fungal endoglucanase polypeptide, which belongs to glycosyl hydrolase family 12, and which comprises an amino acid sequence having at least 90% sequence identity to SEQ ID NO: 64, at least 90% sequence identity to SEQ ID NO: 66 or at least 90% sequence identity to SEQ ID NO: 68 and has cellulase activity at a temperature below 50°C.
A system for selectively activating inspiratory or expiratory muscles in a subject comprising: one or more electrical signal generators;a first stimulation system comprising one or more first electrical stimulators electrically coupled to the one or more electrical signal generators; and a second stimulation system comprising one or more second electrical stimulators electrically coupled to the one or more electrical signal generators; wherein the one or more first stimulators are configured to be positioned at one or more levels of the upper thoracic spinal cord and/or near the phrenic nerve of the subject; the one or more second stimulators are configured to be positioned at one or more levels of the lower thoracic and/or upper lumbar spinal cord, wherein said one or more first electrical stimulators and one or more second electrical stimulators are configured to selectively deliver electrical stimulation from the one or more electrical signal generators, wherein the first electrical system and the second electrical system are separately ground to limit to prevent the flow of electrical current to both the expiratory and inspiratory muscles at the same time, and wherein the electrical signal generators are configured to selectively deliver electrical stimulation asynchronously to the inspiratory or expiratory muscle motor neurons via the first and second electrical stimulators, respectively. one or more electrical signal generators;a first stimulation system comprising one or more first electrical stimulators electrically coupled to the one or more electrical signal generators; and a second stimulation system comprising one or more second electrical stimulators electrically coupled to the one or more electrical signal generators; wherein the one or more first stimulators are configured to be positioned at one or more levels of the upper thoracic spinal cord and/or near the phrenic nerve of the subject; the one or more second stimulators are configured to be positioned at one or more levels of the lower thoracic and/or upper lumbar spinal cord, wherein said one or more first electrical stimulators and one or more second electrical stimulators are configured to selectively deliver electrical stimulation from the one or more electrical signal generators, wherein the first electrical system and the second electrical system are separately ground to limit to prevent the flow of electrical current to both the expiratory and inspiratory muscles at the same time, and wherein the electrical signal generators are configured to selectively deliver electrical stimulation asynchronously to the inspiratory or expiratory muscle motor neurons via the first and second electrical stimulators, respectively.
Method for detection of the concentration of at least one gaseous target substance in a gas or a gas mixture, especially air, with a sensor, wherein: a) a first measured value of the concentration of the at least one gaseous target substance is saved as the first measured value in a predetermined way and then b) the at least one target substance is kept away from the sensor with a gas shielding device for a predetermined period of time, so that the concentration of the at least one target substance measured by the sensor changes, c) before the end of the shielding of the sensor, the magnitude of the measured concentration and/or the direction of the change in concentration of the gaseous target substance as detected by the sensor is saved as the second measured value, d) the sensor is then exposed again to the gas with the at least one gaseous target substance, while e) on the basis of the difference between the first measured value and the second measured value, an actual concentration of the at least one gaseous target substance in the gas is determined by means of a processor. a) a first measured value of the concentration of the at least one gaseous target substance is saved as the first measured value in a predetermined way and then b) the at least one target substance is kept away from the sensor with a gas shielding device for a predetermined period of time, so that the concentration of the at least one target substance measured by the sensor changes, c) before the end of the shielding of the sensor, the magnitude of the measured concentration and/or the direction of the change in concentration of the gaseous target substance as detected by the sensor is saved as the second measured value, d) the sensor is then exposed again to the gas with the at least one gaseous target substance, while e) on the basis of the difference between the first measured value and the second measured value, an actual concentration of the at least one gaseous target substance in the gas is determined by means of a processor.
An articulated arm CMM comprising: an articulated arm comprising a plurality of transfer members, a plurality of articulation members connecting at least two transfer members to each other, a coordinate acquisition member at a distal end, and a base at a proximal end,wherein at least two of the articulation members each comprise at least one encoder, characterized by a monoblock housing, wherein the at least two encoders are both enclosed within the monoblock housing. an articulated arm comprising a plurality of transfer members, a plurality of articulation members connecting at least two transfer members to each other, a coordinate acquisition member at a distal end, and a base at a proximal end,wherein at least two of the articulation members each comprise at least one encoder, characterized by a monoblock housing, wherein the at least two encoders are both enclosed within the monoblock housing.
Method for ascertaining the armature stroke of a magnetic actuator which has at least one air gap and one armature, comprising the following method steps: - determining a magnetic hysteresis curve of the magnetic actuator, - selecting a curve section, which is characterized by a transition of the armature from a first stationary end position to a second stationary end position, in the magnetic hysteresis curve, - determining the magnetic energy state of the magnetic actuator in the second stationary end position of the armature on the basis of the profile of the selected curve section, - generating a curve section over the interval of the selected curve section, wherein the generated curve section simulates the magnetic actuator with the armature fixed in its first end position in order to determine a corresponding magnetic energy state of the magnetic actuator, - comparing the two energy states of the magnetic actuator based on the profiles of the selected curve section and of the generated curve section in order to ascertain the armature stroke based thereon. - determining a magnetic hysteresis curve of the magnetic actuator, - selecting a curve section, which is characterized by a transition of the armature from a first stationary end position to a second stationary end position, in the magnetic hysteresis curve, - determining the magnetic energy state of the magnetic actuator in the second stationary end position of the armature on the basis of the profile of the selected curve section, - generating a curve section over the interval of the selected curve section, wherein the generated curve section simulates the magnetic actuator with the armature fixed in its first end position in order to determine a corresponding magnetic energy state of the magnetic actuator, - comparing the two energy states of the magnetic actuator based on the profiles of the selected curve section and of the generated curve section in order to ascertain the armature stroke based thereon.
A knee joint prosthesis, comprising: a tibial component having an inferior surface and a superior surface that serves as a bearing surface for a femoral component, the superior surface having a generally concave medial compartment configured to receive and articulate with a medial femoral condyle, the medial compartment being curved about a medial center and having a length extending from an anterior end thereof to a posterior end thereof, and a generally concave lateral compartment configured to receive and articulate with a lateral femoral condyle, the lateral compartment being curved about the medial center and having a length extending from an anterior end thereof to a posterior end thereof; characterised in that wherein the lateral compartment has an anteroposterior profile that is characterised by a first, anterior arc that is concave, a second arc posterior to the first arc that is convex, and a third arc posterior to the second arc that is concave. a tibial component having an inferior surface and a superior surface that serves as a bearing surface for a femoral component, the superior surface having a generally concave medial compartment configured to receive and articulate with a medial femoral condyle, the medial compartment being curved about a medial center and having a length extending from an anterior end thereof to a posterior end thereof, and a generally concave lateral compartment configured to receive and articulate with a lateral femoral condyle, the lateral compartment being curved about the medial center and having a length extending from an anterior end thereof to a posterior end thereof; a generally concave medial compartment configured to receive and articulate with a medial femoral condyle, the medial compartment being curved about a medial center and having a length extending from an anterior end thereof to a posterior end thereof, and a generally concave lateral compartment configured to receive and articulate with a lateral femoral condyle, the lateral compartment being curved about the medial center and having a length extending from an anterior end thereof to a posterior end thereof; characterised in that wherein the lateral compartment has an anteroposterior profile that is characterised by a first, anterior arc that is concave, a second arc posterior to the first arc that is convex, and a third arc posterior to the second arc that is concave.
A system comprising: a first X-ray detector in a first layer; a second X-ray detector in a second layer; wherein the first X-ray detector comprises a first X-ray absorption layer and a first electronics layer; wherein the second X-ray detector comprises a second X-ray absorption layer and a second electronics layer; wherein the first electronics layer comprises vias extending from a first surface of the first electronics layer to a second surface of the first electronics layer; wherein the first X-ray detector is mounted to a first surface of a first printed circuit board; where an electrical connection between the first electronics layer and the first circuit board is through the vias; wherein the second X-ray detector is mounted to a first surface of a second printed circuit board, or to a second surface of the first printed circuit board opposite to the first surface of the first printed circuit board; wherein an electrical connection between the second electronics layer and the second printed circuit board or the first printed circuit board is through a second plurality of bonding wires; wherein the second plurality of bonding wires or gaps in the second X-ray absorption layer are shadowed by the first X-ray absorption layer. a first X-ray detector in a first layer; a second X-ray detector in a second layer; wherein the first X-ray detector comprises a first X-ray absorption layer and a first electronics layer; wherein the second X-ray detector comprises a second X-ray absorption layer and a second electronics layer; wherein the first electronics layer comprises vias extending from a first surface of the first electronics layer to a second surface of the first electronics layer; wherein the first X-ray detector is mounted to a first surface of a first printed circuit board; where an electrical connection between the first electronics layer and the first circuit board is through the vias; wherein the second X-ray detector is mounted to a first surface of a second printed circuit board, or to a second surface of the first printed circuit board opposite to the first surface of the first printed circuit board; wherein an electrical connection between the second electronics layer and the second printed circuit board or the first printed circuit board is through a second plurality of bonding wires; wherein the second plurality of bonding wires or gaps in the second X-ray absorption layer are shadowed by the first X-ray absorption layer.