mhurhangee/ep-ind-claims huggingface dataset:
A geodesic radome comprising shaped panels containing a consolidated plurality of plies, the plies comprising polyolefin tapes, characterized in that the shaped panels have a compressive strength of between 10 MPa and 100 MPa as measured in accordance with ASTM D 695-10, an interlaminar shear strength of between 3 MPa and 75 MPa as measured in accordance with ASTM D 2344/D2344M-00 2006 and a thermal expansion of between 1e-6 1/K and 50e-6 1/K as measured in accordance with ASTM D 696/DIN 53752.
A catheter tube element, preferably for arranging a guide wire, characterised in that the catheter tube element consists of a first layer forming an external layer, and a second layer at least partially forming the internal layer, wherein the first layer comprises at least one plastic or multiple plastics from the group consisting of polyether block amide (PEBA), polyamide, and elastomer-modified polyamide, and the second layer contains ethylene tetrafluoroethylene (ETFE), characterised in that the catheter tube element is produced by means of co-extrusion or by means of an immersion method, which preferably has a number of steps.
Use of a process cartridge, detachably mounted in an image formation apparatus, the image formation apparatus configured with a power output unit that is swingable, wherein an outer circumference of the power output unit contains a recessed portion, the process cartridge comprising a power receiving unit, and the power receiving unit comprising: a fixing protrusion, wherein: the fixing protrusion is disposed inside the power receiving unit, and the fixing protrusion is engaged with the recessed portion of the power output unit to receive a driving force, characterized in that the power receiving unit is configured to, when the power receiving unit moves along an axial direction thereof and is in a contact engagement with the power output unit, have the fixing protrusion abut against a front end of the power output unit to cause the power output unit to be tilted and swung. the fixing protrusion is disposed inside the power receiving unit, and the fixing protrusion is engaged with the recessed portion of the power output unit to receive a driving force, characterized in that the power receiving unit is configured to, when the power receiving unit moves along an axial direction thereof and is in a contact engagement with the power output unit, have the fixing protrusion abut against a front end of the power output unit to cause the power output unit to be tilted and swung.
A vehicle, comprising: an engine; an oil debris sensor coupled to the engine; a communications system; and a processor communicatively coupled to the oil debris sensor and the communications system, the processor configured to: increment a counter when the oil debris sensor detects a particle over a predetermined size; increment the counter each time an accumulated mass of particles under the predetermined size exceeds a predetermined mass threshold; transmit, via the communications system, a first message when the counter exceeds a predetermined counter threshold; and reset the counter when the counter does not exceed the predetermined counter threshold within a predetermined amount of time. an engine; an oil debris sensor coupled to the engine; a communications system; and a processor communicatively coupled to the oil debris sensor and the communications system, the processor configured to: increment a counter when the oil debris sensor detects a particle over a predetermined size; increment the counter each time an accumulated mass of particles under the predetermined size exceeds a predetermined mass threshold; transmit, via the communications system, a first message when the counter exceeds a predetermined counter threshold; and reset the counter when the counter does not exceed the predetermined counter threshold within a predetermined amount of time. increment a counter when the oil debris sensor detects a particle over a predetermined size; increment the counter each time an accumulated mass of particles under the predetermined size exceeds a predetermined mass threshold; transmit, via the communications system, a first message when the counter exceeds a predetermined counter threshold; and reset the counter when the counter does not exceed the predetermined counter threshold within a predetermined amount of time.
A method comprising: receiving a radio frequency signal comprising a first pilot signal of a first predetermined type; receiving one or more first pilot signaling parameters in the first pilot signal, characterized by; receiving a second pilot signal of a second predetermined type based on the one or more first pilot signaling parameters; decoding from the received second pilot signal one or more layer 1 pre signaling parameters; receiving one or more layer 1 signaling parameters based on the received one or more layer 1 pre signaling parameters, wherein the layer 1 signaling parameters indicate a first interleaving length for a first physical layer pipe and a second interleaving length for a second physical layer pipe, wherein the first interleaving length comprises a first number of transmission frames and the second interleaving length comprises a second number of transmission frames; selecting a service; and receiving the selected service in the first or the second physical layer pipe based on the one or more layer 1 signaling parameters. receiving a radio frequency signal comprising a first pilot signal of a first predetermined type; receiving one or more first pilot signaling parameters in the first pilot signal, characterized by; receiving a second pilot signal of a second predetermined type based on the one or more first pilot signaling parameters; decoding from the received second pilot signal one or more layer 1 pre signaling parameters; receiving one or more layer 1 signaling parameters based on the received one or more layer 1 pre signaling parameters, wherein the layer 1 signaling parameters indicate a first interleaving length for a first physical layer pipe and a second interleaving length for a second physical layer pipe, wherein the first interleaving length comprises a first number of transmission frames and the second interleaving length comprises a second number of transmission frames;
A method of determining one or more properties of a tablet pharmaceutical dosage formulation, the tablet having opposite circular surfaces spaced apart by the minor axis of a generally rectangular cross section of the tablet, the method comprising: exposing a first surface of said formulation to incident radiation; receiving radiation; detecting Raman scattered elements in said received radiation; and determining one or more of said properties from said detected Raman scattered elements, characterised in that: the step of receiving is a step of receiving from a second surface of said formulation spaced from said first surface, elements of said incident radiation forward scattered through said formulation from said first surface, and in that the first and second surfaces are the circular surfaces of the tablet. exposing a first surface of said formulation to incident radiation; receiving radiation; detecting Raman scattered elements in said received radiation; and determining one or more of said properties from said detected Raman scattered elements, characterised in that: the step of receiving is a step of receiving from a second surface of said formulation spaced from said first surface, elements of said incident radiation forward scattered through said formulation from said first surface, and in that the first and second surfaces are the circular surfaces of the tablet. the step of receiving is a step of receiving from a second surface of said formulation spaced from said first surface, elements of said incident radiation forward scattered through said formulation from said first surface, and in that the first and second surfaces are the circular surfaces of the tablet.
A metering system (110...116) comprising a container for receiving pourable material and a pneumatic conveyor device (100...105) coupled with the container, a contact surface of the pneumatic conveyor device (100...105) pointing into the interior of the container, the pneumatic conveyor device (100...105) having the following features: - the contact surface that is designed to be in contact with the pourable material, - an ejector pump comprising a mixing chamber, a jet nozzle that opens into the mixing chamber and to which pressure can be applied, and at least one aspiration channel that leads away from the contract surface and opens into the mixing chamber, and - at least one air-intake channel that leads away from the contact surface and to which pressure can be applied or that opens onto an outer surface of the pneumatic conveyor device (100...105), - the at least one aspiration channel and the at least one air-intake channel forming at least one aspiration opening and at least one air-intake opening in the region of the contact surface, - the at least one aspiration channel and the at least one air-intake channel being oriented in substantially the same manner in the region of the contact surface, the flow directions in the at least one aspiration channel and the at least one air-intake channel being aligned antiparallel when the pneumatic conveyor device (100...105) is in operation, characterised in that the pneumatic conveyor device (100...105) being arranged entirely outside the container. - the contact surface that is designed to be in contact with the pourable material, - an ejector pump comprising a mixing chamber, a jet nozzle that opens into the mixing chamber and to which pressure can be applied, and at least one aspiration channel that leads away from the contract surface and opens into the mixing chamber, and - at least one air-intake channel that leads away from the contact surface and to which pressure can be applied or that opens onto an outer surface of the pneumatic conveyor device (100...105), - the at least one aspiration channel and the at least one air-intake channel forming at least one aspiration opening and at least one air-intake opening in the region of the contact surface, - the at least one aspiration channel and the at least one air-intake channel being oriented in substantially the same manner in the region of the contact surface, the flow directions in the at least one aspiration channel and the at least one air-intake channel being aligned antiparallel when the pneumatic conveyor device (100...105) is in operation, characterised in that the pneumatic conveyor device (100...105) being arranged entirely outside the container.
A photoelectric sensor, comprising: a case (1, 6); and a main body part (2, 7) set inside the case (1, 6), wherein the case (1, 6) is cylindrical and the main body part (2, 7) is columnar; and further, the circumferential wall of the case (1, 6) is provided with at least one case connecting hole, the outer surface of the circumferential wall of the main body part (2, 7) is also provided with at least one main body connecting hole, and the case (1, 6) and the main body part (2, 7) are fixedly connected together by at least one connecting member configured to be inserted into the case connecting hole and the main body connecting hole; and the photoelectric sensor further comprises: a positioning protrusion and a positioning recess (51, 71), one of the positioning protrusion and the positioning recess (51, 71) is provided on the inner surface of the circumferential wall of the case (1, 6), the other is provided on the outer surface of the circumferential wall of the main body part (2, 7), and the positioning recess (51, 71) is suitable for receiving a part or all of the positioning protrusion; and when the positioning recess (51, 71) receives a part or all of the positioning protrusion, the position of the case connecting hole is consistent with that of the main body connecting hole; the opening width of an opening, configured to allow the insertion of the positioning protrusion, of the positioning recess (51, 71) is larger than or equal to the width of the positioning protrusion; and when the main body part (2, 7) is set inside the case (1, 6), a part or all of the positioning protrusion is positioned in the positioning recess (51, 71).
A method comprising: identifying, using at least one processing device, a detection of a particular computing device on a network of a computing environment; determining that the particular computing device belongs to a subset of computing devices for which vulnerability scans are to be opportunistically performed; identifying at least two different scans to be performed on the detected particular computing device and at least two different particular scan engines, in a plurality of scan engines, adapted to perform the respective scans; and causing the at least two scans to be performed on the detected particular computing device while the detected particular computing device is on the network using the particular scan engines, wherein causing the at least two scans to be performed includes sending a respective scan request to the respective identified particular scan engine and the respective scan request includes a scan script that, when executed by the respective particular scan engine, causes the respective particular scan engine to perform the respective scan. identifying, using at least one processing device, a detection of a particular computing device on a network of a computing environment; determining that the particular computing device belongs to a subset of computing devices for which vulnerability scans are to be opportunistically performed; identifying at least two different scans to be performed on the detected particular computing device and at least two different particular scan engines, in a plurality of scan engines, adapted to perform the respective scans; and causing the at least two scans to be performed on the detected particular computing device while the detected particular computing device is on the network using the particular scan engines, wherein causing the at least two scans to be performed includes sending a respective scan request to the respective identified particular scan engine and the respective scan request includes a scan script that, when executed by the respective particular scan engine, causes the respective particular scan engine to perform the respective scan.
Transcatheter delivery system for a self-expandable heart valve prosthesis comprising a handle (17, 17'), a hollow shaft, a distal tip (1, 1", 1′′′), and an actuation mechanism for moving the valve prosthesis towards said distal tip (1, 1", 1′′′) or said handle (17, 17'), said hollow shaft being adapted to slidingly receive the compressed valve prosthesis; the system includes a valve prosthesis crimping tool that comprises a hollow conical element, a detachable transfer tube adapted to be temporarily connected to said conical element and a pulling device; said conical element being adapted to let the valve prosthesis in an expanded state enter the conical element through its basis and enter said transfer tube in a compressed state, characterised in that the crimping tool further comprises a transfer tube secure cap adapted to be temporarily connected to said transfer tube and wherein the crimping tool is configured such that said valve prosthesis is adapted to be pulled by said pulling device when crossing said conical element and entering said transfer tube until reaching said transfer tube secure cap. the system includes a valve prosthesis crimping tool that comprises a hollow conical element, a detachable transfer tube adapted to be temporarily connected to said conical element and a pulling device; said conical element being adapted to let the valve prosthesis in an expanded state enter the conical element through its basis and enter said transfer tube in a compressed state, characterised in that the crimping tool further comprises a transfer tube secure cap adapted to be temporarily connected to said transfer tube and wherein the crimping tool is configured such that said valve prosthesis is adapted to be pulled by said pulling device when crossing said conical element and entering said transfer tube until reaching said transfer tube secure cap.
Formulation comprising at least one continuous phase, at least one discontinuous phase and at least one surfactant, characterised in that at least one discontinuous phase comprises two small molecule organic functional materials selected from hole injection materials, hole transport materials, hole blocking materials, electron injection materials, electron transport materials, electron blocking materials, exciton blocking materials (ExBM), host materials, emitter materials, metal complexes, and dyes, wherein the small molecule organic functional materials have a molecular weight of ≤ 4000 g/mol.
A system to provide haptic feedback during a medical procedure comprising: a surgical instrument; a quantitative three-dimensional, Q3D, endoscope having a field of view and including an imaging sensor array comprising a plurality of imaging sensors, wherein each imaging sensor includes a corresponding lens stack and a two-dimensional arrangement of pixels arranged in a focal plane of the lens stack, wherein at least three of the imaging sensors of the imaging sensor array are disposed to have coplanar fields of view that overlap, and wherein the corresponding lens stack of each imaging sensor creates a separate optical channel to resolve an image in the focal plane of the corresponding lens stack; wherein the Q3D endoscope is operable to measure deformation of different locations of a tissue structure in contact with the surgical instrument placed within its field of view; wherein the surgical instrument is operable to move across a tissue surface to contact and impart a force to deform different tissue surface locations of the tissue structure placed within the Q3D endoscope field of view; at least one processor configured to produce a Q3D model that provides a map of the measures of tissue structure deformation for the contact between the instrument and the tissue surface at the different contact locations of the tissue structure surface; and a haptic user interface device configured to produce haptic feedback indicative of the map of the measures of tissue structure deformation at the contact locations of the tissue structure surface. a surgical instrument; a quantitative three-dimensional, Q3D, endoscope having a field of view and including an imaging sensor array comprising a plurality of imaging sensors, wherein each imaging sensor includes a corresponding lens stack and a two-dimensional arrangement of pixels arranged in a focal plane of the lens stack, wherein at least three of the imaging sensors of the imaging sensor array are disposed to have coplanar fields of view that overlap, and wherein the corresponding lens stack of each imaging sensor creates a separate optical channel to resolve an image in the focal plane of the corresponding lens stack; wherein the Q3D endoscope is operable to measure deformation of different locations of a tissue structure in contact with the surgical instrument placed within its field of view; wherein the surgical instrument is operable to move across a tissue surface to contact and impart a force to deform different tissue surface locations of the tissue structure placed within the Q3D endoscope field of view; at least one processor configured to produce a Q3D model that provides a map of the measures of tissue structure deformation for the contact between the instrument and the tissue surface at the different contact locations of the tissue structure surface; and a haptic user interface device configured to produce haptic feedback indicative of the map of the measures of tissue structure deformation at the contact locations of the tissue structure surface.
A sensor device for generating an electrical signal, the device comprising or consisting of an electrically conductive material having a measurement sensing location thereon for measuring the electrical signal and, at least in part, a three-dimensionally profiled surface having a texture, wherein the texture is configured so as to provide a change in said electrical signal when subjected to a movement of a conductive object across the textured surface, and wherein the device is configured to detect a contact position, speed of movement and/or a direction of movement of said conductive object on/across the textured surface of the electrically conductive material relative to the measurement sensing location based on the change in the electrical signal.
Composition comprising: - (i) from 20% to 70% by weight, relative to the total weight of the composition, of one or more C2-C4 monoalcohol, - (ii) one or more polycondensate of ethylene oxide and of propylene oxide, in an amount ranging from 0.1 % to 10% by weight relative to the weight of the composition; the polycondensate having the formula below: H-(O-CH 2 CH 2) x -(O-CH(CH 3)-CH 2) y -(O-CH 2 CH 2) z -OH in which x and z range from 2 to 150 and y ranges from 1 to 100; - (iii) one or more nonionic surfactant other than the polycondensates (ii), present in a concentration ranging from 0.01% to 5% by weight, relative to the total weight of the composition; the nonionic surfactant being chosen from alkylpolyglucosides bearing an alkyl group comprising from 8 to 30 carbon atoms (C8-C30-alkyl polyglucosides). - (i) from 20% to 70% by weight, relative to the total weight of the composition, of one or more C2-C4 monoalcohol, - (ii) one or more polycondensate of ethylene oxide and of propylene oxide, in an amount ranging from 0.1 % to 10% by weight relative to the weight of the composition; the polycondensate having the formula below: H-(O-CH 2 CH 2) x -(O-CH(CH 3)-CH 2) y -(O-CH 2 CH 2) z -OH in which x and z range from 2 to 150 and y ranges from 1 to 100; - (iii) one or more nonionic surfactant other than the polycondensates (ii), present in a concentration ranging from 0.01% to 5% by weight, relative to the total weight of the composition; the nonionic surfactant being chosen from alkylpolyglucosides bearing an alkyl group comprising from 8 to 30 carbon atoms (C8-C30-alkyl polyglucosides).