mhurhangee/ep-ind-claims huggingface dataset:
A process for producing a flame-retardant polyurethane foam of density from 5 to 50 g/L, by mixing a) organic polyisocyanate with b) polymeric compounds having at least two hydrogen atoms reactive toward isocyanates, c) optionally chain extender and/or crosslinking agent, d) flame retardant, e) blowing agent, f) catalysts, and optionally g) auxiliary and additives to give a reaction mixture and permitting said reaction mixture to react completely, where the flame retardant (d) comprises expandable graphite and oligomeric organophosphorus flame retardant which has at least three phosphorus ester units. a) organic polyisocyanate with b) polymeric compounds having at least two hydrogen atoms reactive toward isocyanates, c) optionally chain extender and/or crosslinking agent, d) flame retardant, e) blowing agent, f) catalysts, and optionally g) auxiliary and additives
Use of a composite fibre for the production of an insulation material, the composite fibre comprising one or more polymer(s) and aerogel particles, wherein the aerogel particles are encapsulated by the one or more polymer(s), and wherein the aerogel particles are positioned along at least a part of said composite fibre; wherein the particle size of the aerogel is within the range of 0.1-500 μm; wherein the aerogel particles exhibit a porosity of 50% or more, and pores ranging from 2 to 50 nm in diameter.
An automatic lens to cornea standoff control system (100, 230, 230') comprising: an ophthalmic microscope (110, 210, 210') with a lens arrangement configured for viewing images of an eye (140, 240, 240'); a front lens assembly (114, 214, 214', 414) having a lens holder (116, 216, 216') containing a high diopter lens (120, 220, 220'), wherein the front lens assembly is configured to adjustably position the high diopter lens between the lens arrangement of the ophthalmic microscope and the eye; a sensor (236, 236') configured to detect a distance (238, 238') between the high diopter lens (120, 220, 220') and a surface (144, 244, 244') of the eye (140, 240, 240') and to transmit a detected distance; a controller (232, 232', 432) configured to receive the detected distance (238, 238') from the sensor (236, 236'), determine when the detected distance is less than a predetermined threshold standoff distance, and, in case the detected distance is less than the threshold, transmit a control signal describing a distance for the high diopter lens (120, 220, 220') to move away from the surface of the eye; and an actuator (234, 234', 434) coupled with the front lens assembly (114, 214, 214', 414), the actuator configured to receive the control signal and cause the high diopter lens to move the distance away from the surface of the eye, characterized in that the control system further includes an over-ride control system configured to receive an over-ride signal and prevent, based on the over-ride signal, the controller from transmitting the control signal. an ophthalmic microscope (110, 210, 210') with a lens arrangement configured for viewing images of an eye (140, 240, 240'); a front lens assembly (114, 214, 214', 414) having a lens holder (116, 216, 216') containing a high diopter lens (120, 220, 220'), wherein the front lens assembly is configured to adjustably position the high diopter lens between the lens arrangement of the ophthalmic microscope and the eye; a sensor (236, 236') configured to detect a distance (238, 238') between the high diopter lens (120, 220, 220') and a surface (144, 244, 244') of the eye (140, 240, 240') and to transmit a detected distance; a controller (232, 232', 432) configured to receive the detected distance (238, 238') from the sensor (236, 236'), determine when the detected distance is less than a predetermined threshold standoff distance, and, in case the detected distance is less than the threshold, transmit a control signal describing a distance for the high diopter lens (120, 220, 220') to move away from the surface of the eye; and an actuator (234, 234', 434) coupled with the front lens assembly (114, 214, 214', 414), the actuator configured to receive the control signal and cause the high diopter lens to move the distance away from the surface of the eye, characterized in that the control system further includes an over-ride control system configured to receive an over-ride signal and prevent, based on the over-ride signal, the controller from transmitting the control signal.
Method for displaying the surroundings of a vehicle, wherein objects in the surroundings of the vehicle are detected with sensors, characterized in that respectively detected objects which can give rise to a probability of a collision are described with precisely two coordinate points (11, 13) and a degree of position fuzziness which is assigned to the respective coordinate point (11, 13), wherein the coordinate points (11, 13) and the degrees of position fuzziness are stored as data in an interface which can be accessed by driving assistance systems of the vehicle, and the position fuzziness is described by a Gaussian distribution about the coordinate point (11, 13).
A user terminal grouping method, wherein the method is applied to a conference server, and the method comprises: receiving a conference participation request sent by a first user terminal, acquiring an identity code of a user of the first user terminal from the conference participation request, and involving the first user terminal in a conference; comparing the identity code with identity codes corresponding to other user terminals that participate in the conference; the method being characterized by: if it is determined, according to a comparison result, that a second user terminal among the other user terminals in the conference and the first user terminal correspond to the same identity code, determining that the first user terminal and the second user terminal are terminals of the same user; and sending, to a user terminal of another user in the conference, description information used to indicate that both the first user terminal and the second user terminal belong to the user, so that the user terminal of the another user in the conference identifies, according to the description information, both data sent by the first user terminal and data sent by the second user terminal that are received, as data sent by the user. receiving a conference participation request sent by a first user terminal, acquiring an identity code of a user of the first user terminal from the conference participation request, and involving the first user terminal in a conference; comparing the identity code with identity codes corresponding to other user terminals that participate in the conference; the method being characterized by: if it is determined, according to a comparison result, that a second user terminal among the other user terminals in the conference and the first user terminal correspond to the same identity code, determining that the first user terminal and the second user terminal are terminals of the same user; and sending, to a user terminal of another user in the conference, description information used to indicate that both the first user terminal and the second user terminal belong to the user, so that the user terminal of the another user in the conference identifies, according to the description information, both data sent by the first user terminal and data sent by the second user terminal that are received, as data sent by the user. if it is determined, according to a comparison result, that a second user terminal among the other user terminals in the conference and the first user terminal correspond to the same identity code, determining that the first user terminal and the second user terminal are terminals of the same user; and sending, to a user terminal of another user in the conference, description information used to indicate that both the first user terminal and the second user terminal belong to the user, so that the user terminal of the another user in the conference identifies, according to the description information, both data sent by the first user terminal and data sent by the second user terminal that are received, as data sent by the user.
Microscope having - a plurality of objectives with one or with a plurality of common optical lenses, wherein the common optical lens has a first lens surface (1.1) and a second lens surface (1.2), wherein the first lens surface (1.1) is provided in order to be oriented towards an object to be observed and the second lens surface (1.2) is provided in order to be oriented away from the object to be observed, characterized in that - the common optical lens has at least one channel opening at the first lens surface (1.1), wherein the channel extends through the optical lens, and - at least one portion (6.1) of a media line is formed in the channel, and having a media feed apparatus for feeding a medium to a contact region between the optical lens and the object, comprising the optical lens, at least one media line for guiding a medium between the contact region and a reservoir, wherein the media line is accommodated over a portion (6.1) of its length in the channel. - a plurality of objectives with one or with a plurality of common optical lenses, wherein the common optical lens has a first lens surface (1.1) and a second lens surface (1.2), wherein the first lens surface (1.1) is provided in order to be oriented towards an object to be observed and the second lens surface (1.2) is provided in order to be oriented away from the object to be observed, - the common optical lens has at least one channel opening at the first lens surface (1.1), wherein the channel extends through the optical lens, and - at least one portion (6.1) of a media line is formed in the channel, and having a media feed apparatus for feeding a medium to a contact region between the optical lens and the object, comprising the optical lens, at least one media line for guiding a medium between the contact region and a reservoir, wherein the media line is accommodated over a portion (6.1) of its length in the channel. and having a media feed apparatus for feeding a medium to a contact region between the optical lens and the object, comprising the optical lens, at least one media line for guiding a medium between the contact region and a reservoir, wherein the media line is accommodated over a portion (6.1) of its length in the channel.
An electric motor (121, 300) comprising: a stator with a stator core; and a rotor installed within a bore of the stator, wherein the rotor and the stator are installed in an enclosed motor housing, forming a rotor chamber and a stator chamber separate from the rotor chamber; wherein the stator core has one or more stator core sections (321, 322, 323); wherein each of the one or more stator core sections (321, 322, 323) is a single-piece unit formed of soft magnetic composite material; wherein the one or more stator core sections (321, 322, 323) are positioned end-to-end, and wherein one or more seals (325, 326) are positioned at each end of each of the one or more stator core sections (321, 322, 323), thereby forming a plurality of stator slots, wherein each of the stator slots extends through each of the one or more stator core sections (321, 322, 323), wherein the stator slots are in fluid communication with each other and thereby form the stator chamber, wherein the stator chamber is filled with a first fluid being a dielectric oil and the rotor chamber is filled with a second fluid being a lubricating oil; and wherein the one or more seals (325, 326) prevent fluids external to the stator chamber from entering the stator chamber. a stator with a stator core; and a rotor installed within a bore of the stator, wherein the rotor and the stator are installed in an enclosed motor housing, forming a rotor chamber and a stator chamber separate from the rotor chamber; wherein the stator core has one or more stator core sections (321, 322, 323); wherein each of the one or more stator core sections (321, 322, 323) is a single-piece unit formed of soft magnetic composite material; wherein the one or more stator core sections (321, 322, 323) are positioned end-to-end, and wherein one or more seals (325, 326) are positioned at each end of each of the one or more stator core sections (321, 322, 323), thereby forming a plurality of stator slots, wherein each of the stator slots extends through each of the one or more stator core sections (321, 322, 323), wherein the stator slots are in fluid communication with each other and thereby form the stator chamber, wherein the stator chamber is filled with a first fluid being a dielectric oil and the rotor chamber is filled with a second fluid being a lubricating oil; and wherein the one or more seals (325, 326) prevent fluids external to the stator chamber from entering the stator chamber.
A method for classifying waste when inserted in a waste container, the method comprising: - capturing at least one audio signal, by using a sound sensor, the audio signal corresponding to the interaction of a waste item with a friction element in the waste container, when the waste item is inserted in the container, wherein the interaction comprises that the waste item slides on the friction element; wherein the audio signal lasts at least 0,1 seconds; - calculating the frequency components of the captured audio signal; - obtaining a plurality of Mel-Frequency Spectrum Coefficients, MFSC, from the calculated frequency components; - classifying the captured audio signal as corresponding to a type of waste item detected as a predetermined type of waste item, the classification being performed by a machine-learning classifier based on the obtained Mel-Frequency Spectrum Coefficients. - capturing at least one audio signal, by using a sound sensor, the audio signal corresponding to the interaction of a waste item with a friction element in the waste container, when the waste item is inserted in the container, wherein the interaction comprises that the waste item slides on the friction element; wherein the audio signal lasts at least 0,1 seconds; - calculating the frequency components of the captured audio signal; - obtaining a plurality of Mel-Frequency Spectrum Coefficients, MFSC, from the calculated frequency components; - classifying the captured audio signal as corresponding to a type of waste item detected as a predetermined type of waste item, the classification being performed by a machine-learning classifier based on the obtained Mel-Frequency Spectrum Coefficients.
An in vitro method for the diagnosis of ovarian carcinoma in a patient, comprising the following steps: a) determining the concentration C of anti-TUBB3 autoantibodies in a serum sample of said patient; b) comparing said concentration C of autoantibodies to a threshold value x, wherein a concentration of said autoantibodies higher than said threshold value identifies the presence of ovarian carcinoma in said patient; wherein said determining in step a) is carried out by ELISA assay with detection of said antibodies by a peptide consisting of a sequence selected from SEQ ID NO 1 or SEQ ID NO 3 or SEQ ID NO 4. a) determining the concentration C of anti-TUBB3 autoantibodies in a serum sample of said patient; b) comparing said concentration C of autoantibodies to a threshold value x, wherein a concentration of said autoantibodies higher than said threshold value identifies the presence of ovarian carcinoma in said patient;
A face capture and matching system comprising: a memory storing machine readable instructions to: receive captured images of an area monitored by an image capture device; detect at least one face in the captured images; selectively queue the captured images to process the captured images that include a predetermined number of the at least one detected face for movement tracking; track movement of the at least one detected face in the area monitored by the image capture device; select at least one fusion technique for grouping images of same faces together to identify the at least one tracked detected face; and based on the at least one tracked detected face and on the at least one selected fusion technique, select at least one image from the captured images to be used for identifying the at least one tracked detected face, the at least one selected fusion technique being applied to the at least one selected image; and a processor to implement the machine readable instructions. a memory storing machine readable instructions to: receive captured images of an area monitored by an image capture device; detect at least one face in the captured images; selectively queue the captured images to process the captured images that include a predetermined number of the at least one detected face for movement tracking; track movement of the at least one detected face in the area monitored by the image capture device; select at least one fusion technique for grouping images of same faces together to identify the at least one tracked detected face; and based on the at least one tracked detected face and on the at least one selected fusion technique, select at least one image from the captured images to be used for identifying the at least one tracked detected face, the at least one selected fusion technique being applied to the at least one selected image; and receive captured images of an area monitored by an image capture device; detect at least one face in the captured images; selectively queue the captured images to process the captured images that include a predetermined number of the at least one detected face for movement tracking; track movement of the at least one detected face in the area monitored by the image capture device; select at least one fusion technique for grouping images of same faces together to identify the at least one tracked detected face; and based on the at least one tracked detected face and on the at least one selected fusion technique, select at least one image from the captured images to be used for identifying the at least one tracked detected face, the at least one selected fusion technique being applied to the at least one selected image; and a processor to implement the machine readable instructions.
A sensor arrangement for measuring at least one component of a force or torque, comprising the following features: a first contact structure and a second contact structure between which the at least one component of the force or torque is to be measured, characterized by a plurality of sensor elements, each of which is connected to the first contact structure via a first joint (111, 112,...) and to the second contact structure via a second joint (121, 122,...) and which are designed to measure the component of the force or torque between the first contact structure and the second contact structure, the first contact structure, the second contact structure and the plurality of sensor elements forming a coiled sensor structure which extends along a surface of the sensor arrangement in the form of a jacket or spiral. a first contact structure and a second contact structure between which the at least one component of the force or torque is to be measured, characterized by a plurality of sensor elements, each of which is connected to the first contact structure via a first joint (111, 112,...) and to the second contact structure via a second joint (121, 122,...) and which are designed to measure the component of the force or torque between the first contact structure and the second contact structure, the first contact structure, the second contact structure and the plurality of sensor elements forming a coiled sensor structure which extends along a surface of the sensor arrangement in the form of a jacket or spiral.
Construction machine for specialised civil engineering, with a leader, on which a feed carriage is guided, which has a receptacle for a drilling or pile-driving device and which is connected to a first drive, via which it can be moved along the leader, characterised in that an additional auxiliary carriage is arranged on the leader, which can be moved along the leader via a second drive, wherein at least one actuator and/or at least one sensor is arranged on the auxiliary carriage, wherein the auxiliary carriage does not directly contribute to the drilling and pile-driving process and, in particular, does not apply any feed force to a working tool.
Coupling control device for controlling a drive assembly of a trailer coupling for a vehicle, wherein the trailer coupling has a coupling element fitted to a coupling support for coupling a trailer, wherein the coupling control device (50; 150) has an electrical motor output load connection arrangement for the electrical power supply to the drive assembly of the trailer coupling, and wherein the coupling control device (50; 150) has a vehicle electrical system interface for connection to a vehicle electrical system of the vehicle, in particular to a vehicle control unit of the vehicle, wherein the vehicle electrical system interface has electrical individual motor load input connections for the connection of cables of the vehicle electrical system of the vehicle provided for the electrical power supply and control of an individual drive motor, characterised in that the motor output load connection arrangement includes first and second electrical load output connections (54, 56) for the connection of a first and second electrical drive motor (26, 28) of the drive assembly of the trailer coupling to the coupling control device (50; 150), and that it has switching means for the simultaneous and/or sequential electrical connection of the first and second electrical load output connections (54, 56) to the individual motor load input connections.
An apparatus comprising: a memory management unit configured to receive memory access requests from a plurality of I/O devices and to implement a protection mode; wherein, while not executing in the protection mode, the memory management unit is configured to permit memory access requests from the plurality of I/O devices by mapping different memory access requests to different respective sets of memory address translation data, the apparatus being further characterized in that, while executing in the protection mode, the memory management unit is configured to prevent memory accesses by the plurality of I/O devices by mapping each of the memory access requests to the same address translation data. a memory management unit configured to receive memory access requests from a plurality of I/O devices and to implement a protection mode; wherein, while not executing in the protection mode, the memory management unit is configured to permit memory access requests from the plurality of I/O devices by mapping different memory access requests to different respective sets of memory address translation data, the apparatus being further characterized in that, while executing in the protection mode, the memory management unit is configured to prevent memory accesses by the plurality of I/O devices by mapping each of the memory access requests to the same address translation data.