mhurhangee/patent-ind-claim-en huggingface dataset:
A workstation comprising: a frame panel comprising a first inset ; a plurality of cap beams connected to the frame panel ; an inner skirt connected to and disposed at least partially around the frame panel , the inner skirt comprising a stepwell portion comprising a kickplate disposed at least partially around the frame panel ; a first mount plate connected to the kickplate of the inner skirt and extending inwardly relative to the workstation ; an outer skirt disposed at least partially around the inner skirt , wherein the outer skirt is slidable with respect to the inner skirt in a direction parallel to a central axis ; a first mounting brace connected to at least two of the plurality of cap beams ; a second mount plate connected to the first mounting brace and disposed inwardly relative to the workstation ; a first actuator disposed between the first mount plate and the second mount plate , and through the first inset , wherein the first actuator is configured to change in length and hence to change a distance between the first mount plate and the second mount plate ; and a work surface connected to the outer skirt . a frame panel comprising a first inset ; a plurality of cap beams connected to the frame panel ; an inner skirt connected to and disposed at least partially around the frame panel , the inner skirt comprising a stepwell portion comprising a kickplate disposed at least partially around the frame panel ; a first mount plate connected to the kickplate of the inner skirt and extending inwardly relative to the workstation ; an outer skirt disposed at least partially around the inner skirt , wherein the outer skirt is slidable with respect to the inner skirt in a direction parallel to a central axis ; a first mounting brace connected to at least two of the plurality of cap beams ; a second mount plate connected to the first mounting brace and disposed inwardly relative to the workstation ; a first actuator disposed between the first mount plate and the second mount plate , and through the first inset , wherein the first actuator is configured to change in length and hence to change a distance between the first mount plate and the second mount plate ; and a work surface connected to the outer skirt .
Method for manufacturing a set of optical-guide microstructures , or of its moulding insert, by using a diamond turning station provided with a drum that can be rotated about an axis C and a diamond tip , each microstructure having a prismatic shape with two surfaces with a first surface, here called active surface , intended to receive a semi-reflective treatment to extract an image injected and propagated by successive total internal reflections in the optical guide, and a second surface, called passive surface , without reflective treatment, the microstructures being juxtaposed with each other, the manufacturing method being characterised in that it comprises the following steps: - installing a piece P to be machined on the drum as follows: - the piece P to be machined is offset by a distance D from the rotation axis of the drum, the distance D being the distance that separates the axis C and a reference frame fixed in relation to the set of microstructures to be machined; - the piece P to be machined is placed so that there is a mean angle Theta between the axis C and a cutting profile corresponding to the active surfaces, the angle Theta being as follows: Theta = arccos D / Ry where Ry is a required radius of curvature in the long direction of the microstructures; - moving the diamond tip along the cutting profile of the microstructures by actuating the rotation of the drum so as to machine all the microstructures on the surface of the piece P to be machined. - installing a piece P to be machined on the drum as follows: - the piece P to be machined is offset by a distance D from the rotation axis of the drum, the distance D being the distance that separates the axis C and a reference frame fixed in relation to the set of microstructures to be machined; - the piece P to be machined is placed so that there is a mean angle Theta between the axis C and a cutting profile corresponding to the active surfaces, the angle Theta being as follows: Theta = arccos D / Ry where Ry is a required radius of curvature in the long direction of the microstructures; - the piece P to be machined is offset by a distance D from the rotation axis of the drum, the distance D being the distance that separates the axis C and a reference frame fixed in relation to the set of microstructures to be machined; - the piece P to be machined is placed so that there is a mean angle Theta between the axis C and a cutting profile corresponding to the active surfaces, the angle Theta being as follows: Theta = arccos D / Ry where Ry is a required radius of curvature in the long direction of the microstructures; - moving the diamond tip along the cutting profile of the microstructures by actuating the rotation of the drum so as to machine all the microstructures on the surface of the piece P to be machined.
A system for medical assessment comprising an electrodiagnostic functional assessment device, EFA, running a software program, a barcode scanner connected to the EFA and at least one wireless-enabled sensor configured to be attached to a selected location on a person's body, the barcode scanner being configured to scan the at least one wireless-enabled sensor, wherein the software program is configured to instruct, using the scanned sensor data from the barcode scanner, the EFA to identify the at least one scanned wireless-enabled sensor and, once identification has been conformed, then to establish a bi-directional wireless connection between the EFA and the at least one scanned wireless-enabled sensor without the use of pairing, wherein the at least one wireless-enabled sensor is configured to provide to said EFA physiological data from the person's body and quantitative quality of service data including packet loss and sensor connection data.
A common path interferometric scattering microscope comprising: a sample holder for holding a sample in a sample location; an illumination source arranged to provide illuminating light; a detector ; and an optical system being arranged to direct illuminating light onto the sample location and being arranged to collect output light in reflection, the output light comprising both light scattered from the sample location and illuminating light reflected from the sample location, and to direct the output light to the detector; and characterised by a spatial filter positioned to filter the output light, the spatial filter being arranged to pass output light but with a reduction in intensity that is greater within a predetermined numerical aperture than at larger numerical apertures. a sample holder for holding a sample in a sample location; an illumination source arranged to provide illuminating light; a detector ; and an optical system being arranged to direct illuminating light onto the sample location and being arranged to collect output light in reflection, the output light comprising both light scattered from the sample location and illuminating light reflected from the sample location, and to direct the output light to the detector; and characterised by a spatial filter positioned to filter the output light, the spatial filter being arranged to pass output light but with a reduction in intensity that is greater within a predetermined numerical aperture than at larger numerical apertures.
A humanized antibody that specifically binds to the human CD48 protein, wherein the antibody comprises a heavy chain variable region and light chain variable region, wherein the heavy chain variable region comprises the amino acid sequence of SEQ ID NO: 1 and wherein the light chain variable region comprises the amino acid sequence of SEQ ID NO: 2.
A shock sensor comprising: a housing ; a portion of the housing providing a mounting surface; a biasing magnets mounted on the housing ; a fastener for extending through the housing and a structural element of a machine , to hold the mounting surface of the housing against the machine's structural element ; a giant magnetostrictive sensing element directly or through a spacer loaded against the machine's structural element when the portion of the housing providing the mounting surface is held by the fastener against the machine's structural element ; a coil mounted on the housing and surrounding the giant magnetostrictive sensing element for sensing a change in magnetic field produced by a shock wave in the giant magnetostrictive sensing element ; said housing having a portion that extends between the mounting surface and the giant magnetostrictive sensing element , that resiliently biases the giant magnetostrictive sensing element or the spacer against the machine's structural element when the housing is brought into contact with said structural element , characterized in that said biasing magnet is in engagement with and positioned to provide a biasing magnetic field to the giant magnetostrictive sensing element also mounted on the housing , and the shock sensor further comprises a sleeve , said sleeve being surrounded by said coil and wherein said biasing magnet and said giant magnetostrictive sensing element are in direct contact and surrounded by said sleeve . a housing ; a portion of the housing providing a mounting surface; a biasing magnets mounted on the housing ; a fastener for extending through the housing and a structural element of a machine , to hold the mounting surface of the housing against the machine's structural element ; a giant magnetostrictive sensing element directly or through a spacer loaded against the machine's structural element when the portion of the housing providing the mounting surface is held by the fastener against the machine's structural element ; a coil mounted on the housing and surrounding the giant magnetostrictive sensing element for sensing a change in magnetic field produced by a shock wave in the giant magnetostrictive sensing element ; said housing having a portion that extends between the mounting surface and the giant magnetostrictive sensing element , that resiliently biases the giant magnetostrictive sensing element or the spacer against the machine's structural element when the housing is brought into contact with said structural element , characterized in that said biasing magnet is in engagement with and positioned to provide a biasing magnetic field to the giant magnetostrictive sensing element also mounted on the housing , and the shock sensor further comprises a sleeve , said sleeve being surrounded by said coil and wherein said biasing magnet and said giant magnetostrictive sensing element are in direct contact and surrounded by said sleeve .
A rotor blade assembly , comprising: a first blade segment having a first joint end , wherein the first blade segment comprises one or more shear webs extending between corresponding spar caps; a second blade segment having a second joint end , wherein the second blade segment comprises one or more shear webs extending between corresponding spar caps; and a blade insert having a first end coupled to the first joint end such that a first interface is defined between the blade insert and the first blade segment and a second end coupled to the second joint end such that a second interface is defined between the blade insert and the second blade segment , the blade insert defining a chord, the chord at the first interface , being substantially equal to the chord at the second interface , and one or more shear web couplings configured to be secured to a side of respective shear webs of blade segments and the blade insert so as to extend the shear web couplings across the first and/or second interface , wherein the blade insert comprises one or more shear webs extending between corresponding spar caps characterized in that the spar caps of the blade insert are formed from a material having a greater stiffness than any material used to form the first and second blade segments a first blade segment having a first joint end , wherein the first blade segment comprises one or more shear webs extending between corresponding spar caps; a second blade segment having a second joint end , wherein the second blade segment comprises one or more shear webs extending between corresponding spar caps; and a blade insert having a first end coupled to the first joint end such that a first interface is defined between the blade insert and the first blade segment and a second end coupled to the second joint end such that a second interface is defined between the blade insert and the second blade segment , the blade insert defining a chord, the chord at the first interface , being substantially equal to the chord at the second interface , and one or more shear web couplings configured to be secured to a side of respective shear webs of blade segments and the blade insert so as to extend the shear web couplings across the first and/or second interface , wherein the blade insert comprises one or more shear webs extending between corresponding spar caps characterized in that the spar caps of the blade insert are formed from a material having a greater stiffness than any material used to form the first and second blade segments
A polycarbonate resin composition, consisting of: a polycarbonate resin; glass fibers subjected to a surface treatment with a sizing agent; and an elastomer, wherein the glass fibers have a mass-average fiber diameter of 4 to 15 μm and a mass-average fiber length of 60 to 350 μm, the elastomer is a dimethyl polysiloxane rubber onto which an acrylic resin is grafted, the mass ratio between the polycarbonate resin and the glass fibers (the polycarbonate resin:the glass fibers) is 80 to 95:5 to 20, and the mass ratio between the elastomer and the glass fibers (the elastomer/the glass fibers) is 0.10 to 0.30. a polycarbonate resin; glass fibers subjected to a surface treatment with a sizing agent; and an elastomer, wherein the glass fibers have a mass-average fiber diameter of 4 to 15 μm and a mass-average fiber length of 60 to 350 μm, the elastomer is a dimethyl polysiloxane rubber onto which an acrylic resin is grafted, the mass ratio between the polycarbonate resin and the glass fibers (the polycarbonate resin:the glass fibers) is 80 to 95:5 to 20, and the mass ratio between the elastomer and the glass fibers (the elastomer/the glass fibers) is 0.10 to 0.30.
An ultrasonic probe, P, comprising: an ultrasonic transducer, TA, configured to transmit and receive an ultrasonic wave; a first electronic circuit electrically connected to the ultrasonic transducer, TA; second electronic circuits each electrically connected to the first electronic circuit ; and a connection layer including a first conductor disposed between the ultrasonic transducer, TA, and the first electronic circuit so that the ultrasonic transducer, TA, is electrically connected to the first electronic circuit and second conductors disposed on one surface of the first electronic circuit so that the second electronic circuits are electrically connected to the first electronic circuit , characterized in that the second conductors include a plurality of columns, and the ultrasonic probe, P, further comprises: an electrode configured to connect any one column of the second conductors to any one of the second electronic circuits , and an electrode configured to connect another column of the second conductors to another second electronic circuit . an ultrasonic transducer, TA, configured to transmit and receive an ultrasonic wave; a first electronic circuit electrically connected to the ultrasonic transducer, TA; second electronic circuits each electrically connected to the first electronic circuit ; and a connection layer including a first conductor disposed between the ultrasonic transducer, TA, and the first electronic circuit so that the ultrasonic transducer, TA, is electrically connected to the first electronic circuit and second conductors disposed on one surface of the first electronic circuit so that the second electronic circuits are electrically connected to the first electronic circuit , characterized in that the second conductors include a plurality of columns, and the ultrasonic probe, P, further comprises: an electrode configured to connect any one column of the second conductors to any one of the second electronic circuits , and an electrode configured to connect another column of the second conductors to another second electronic circuit .
A bag machine for forming bags from a film that follows a film path through the machine, comprising: an input section located on the film path; a sealing section, located on the film path down stream of the input section; an output section, located on the film path downstream of the sealing section; and, a controller , connected to control the sealing section, wherein the sealing section includes a sealer that includes a heater block and a manifold with an air flow path from the heater block to the manifold , wherein air is heated in the heater block in response to a control signal provided by the controller to the heater block , and wherein the heated air is provided through the air flow path to the manifold , and wherein the sealer includes a temperature sensor disposed in at least one of the air flow path and the manifold , wherein the bag machine further comprises a feedback circuit connected to the temperature sensor and to the controller , wherein the feedback sensor provides a signal indicative of temperature near the sensor to the controller , and characterized in that the sealing section includes a second temperature sensor located in the heater block , and further comprising a second feedback circuit connected to the second temperature sensor and to the controller , wherein the second feedback sensor provides a signal indicative of temperature near the second sensor to the controller . an input section located on the film path; a sealing section, located on the film path down stream of the input section; an output section, located on the film path downstream of the sealing section; and, a controller , connected to control the sealing section, wherein the sealing section includes a sealer that includes a heater block and a manifold with an air flow path from the heater block to the manifold , wherein air is heated in the heater block in response to a control signal provided by the controller to the heater block , and wherein the heated air is provided through the air flow path to the manifold , and wherein the sealer includes a temperature sensor disposed in at least one of the air flow path and the manifold , wherein the bag machine further comprises a feedback circuit connected to the temperature sensor and to the controller , wherein the feedback sensor provides a signal indicative of temperature near the sensor to the controller , and characterized in that the sealing section includes a second temperature sensor located in the heater block , and further comprising a second feedback circuit connected to the second temperature sensor and to the controller , wherein the second feedback sensor provides a signal indicative of temperature near the second sensor to the controller .
A control unit for ground bearing capacity analysis; wherein the control unit is configured to: determine a shape of a terrain segment ahead of a vehicle , based on sensor measurements obtained from a sensor mounted in or on the vehicle ; predict a distance between the sensor of the vehicle and the ground at the terrain segment based on the determined shape of the terrain segment ahead of the vehicle , wherein the predicted distance represents a distance that would occur if the vehicle drove on top of the determined shape; and to: when the vehicle has moved into the terrain segment : obtain, from the sensor , a measure of the distance between the sensor of the vehicle and the ground ; and determine that the terrain segment is to be avoided due to insufficient bearing capacity when the predicted distance between the sensor and the ground exceeds the measured distance between the sensor and the ground . determine a shape of a terrain segment ahead of a vehicle , based on sensor measurements obtained from a sensor mounted in or on the vehicle ; predict a distance between the sensor of the vehicle and the ground at the terrain segment based on the determined shape of the terrain segment ahead of the vehicle , wherein the predicted distance represents a distance that would occur if the vehicle drove on top of the determined shape; and to: when the vehicle has moved into the terrain segment : obtain, from the sensor , a measure of the distance between the sensor of the vehicle and the ground ; and determine that the terrain segment is to be avoided due to insufficient bearing capacity when the predicted distance between the sensor and the ground exceeds the measured distance between the sensor and the ground . obtain, from the sensor , a measure of the distance between the sensor of the vehicle and the ground ; and determine that the terrain segment is to be avoided due to insufficient bearing capacity when the predicted distance between the sensor and the ground exceeds the measured distance between the sensor and the ground .
Kit comprising: - at least one sealing sub-assembly for an enclosure assembly for mounting at various depth positions in the enclosure assembly and for receiving at least one connector terminating a data and/or power transmission line , the sealing sub-assembly comprising at least one annular sealing element and at least one washer ; and - an inner body of a housing sub-assembly , said inner body being provided with a flange adapted and arranged to support the sealing sub-assembly , in particular one of the washers thereof, wherein the flange is formed at an end of the inner body and provides a pressing surface ; characterized in that the kit further comprises: - an outer shell of the housing sub-assembly , the outer shell being configured to at least in sections take up the inner body and comprising a volume for receiving the sealing sub-assembly , wherein the outer shell comprises a counter sealing section provided by an inner circumference of the outer shell and a stop , where the inner circumference of the outer shell narrows with respect to the sealing section . - at least one sealing sub-assembly for an enclosure assembly for mounting at various depth positions in the enclosure assembly and for receiving at least one connector terminating a data and/or power transmission line , the sealing sub-assembly comprising at least one annular sealing element and at least one washer ; and - an inner body of a housing sub-assembly , said inner body being provided with a flange adapted and arranged to support the sealing sub-assembly , in particular one of the washers thereof, wherein the flange is formed at an end of the inner body and provides a pressing surface ; characterized in that the kit further comprises: - an outer shell of the housing sub-assembly , the outer shell being configured to at least in sections take up the inner body and comprising a volume for receiving the sealing sub-assembly , wherein the outer shell comprises a counter sealing section provided by an inner circumference of the outer shell and a stop , where the inner circumference of the outer shell narrows with respect to the sealing section .