mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a multilayer structure, comprising obtaining a substrate film for accommodating electronics, providing a number of conductive traces on a first side of the substrate film to establish a predetermined circuit design, establishing an opening in, and through, the thickness of the substrate film wherein the opening is dimensioned so as to match the dimensions of a flexible connector cable or wire in a predetermined feed-through position with minimized additional clearance, directing part of the connector cable or wire through the opening, wherein one end of the connector cable or wire is prior to, upon or after said directing attached to a predefined contact area on the first side of the substrate film, wherein the contact area connects the connector cable or wire electrically to the circuit design, the other end being located after said directing, at the latest, on the second side for electrically connecting to an external element, and molding thermoplastic material on said first side of the substrate film to substantially seal the circuit design between the plastic layer and the first side of the substrate film.
A mount for connecting a gimbal to a mount platform, the mount comprising: a fixed mount floor rigidly attachable to the mount platform; a fixed mount ceiling rigidly attachable to the mount platform, wherein a gap exists between a top surface of the fixed mount floor and a bottom surface of the fixed mount ceiling; a plurality of elastic connectors protruding from the bottom surface of the fixed mount ceiling; a floating base having a top surface mechanically coupled to the plurality of elastic connectors and hanging below the fixed mount ceiling and adjacent to the fixed mount floor; a gimbal connection housing rigidly attached to the floating base, the gimbal connection housing removably connectable to the gimbal; a plurality of locking blocks protruding from the floating base towards the fixed mount floor; a plurality of locking slots in the fixed mount floor structured to form a cavity reciprocal to the plurality of locking blocks; wherein at an equilibrium position without a net contact force applied to the floating base in a direction toward the fixed mount floor, a gap exists between ends of the plurality of locking blocks and corresponding ends of the plurality of locking slots, and wherein at a non-equilibrium position when a net contact force is applied to the floating base in the direction towards the fixed mount floor, the ends of the plurality of locking blocks are flush with the corresponding ends of the plurality of locking slots. a fixed mount floor rigidly attachable to the mount platform; a fixed mount ceiling rigidly attachable to the mount platform, wherein a gap exists between a top surface of the fixed mount floor and a bottom surface of the fixed mount ceiling; a plurality of elastic connectors protruding from the bottom surface of the fixed mount ceiling; a floating base having a top surface mechanically coupled to the plurality of elastic connectors and hanging below the fixed mount ceiling and adjacent to the fixed mount floor; a gimbal connection housing rigidly attached to the floating base, the gimbal connection housing removably connectable to the gimbal; a plurality of locking blocks protruding from the floating base towards the fixed mount floor; a plurality of locking slots in the fixed mount floor structured to form a cavity reciprocal to the plurality of locking blocks; wherein at an equilibrium position without a net contact force applied to the floating base in a direction toward the fixed mount floor, a gap exists between ends of the plurality of locking blocks and corresponding ends of the plurality of locking slots, and wherein at a non-equilibrium position when a net contact force is applied to the floating base in the direction towards the fixed mount floor, the ends of the plurality of locking blocks are flush with the corresponding ends of the plurality of locking slots.
A telephone switching apparatus accommodating at least one extension telephone and configured to enable the extension telephone to communicate with an outside-line network through an outside-line interface, wherein the telephone switching apparatus comprises recording means for automatically recording a call between the extension telephone and the outside-line network, and when the recording means starts recording, a button operation state becomes a recording function operation state where a Dual Tone Multi-Frequency, DTMF, signal cannot be sent, and characterized in that the telephone switching apparatus comprises switching means for switching, when the recording means starts recording and a specific button of the extension telephone is pressed, the button operation state to a Dual Tone Multi-Frequency, DTMF, signal sending function operation state where a DTMF signal can be sent.
Linear path sensor for detecting a linear movement of an object, comprising a measurement value transducer, which is connectable/connected to the object and is embodied in a tubular fashion, and comprising at least one measurement coil arranged fixedly on or in a housing, wherein the measurement value transducer and the housing are arranged coaxially with respect to one another and the measurement value transducer is mounted displaceably relative to the measurement coil, and comprising a device for detecting the inductance of the measurement coil as a result of a displacement of the measurement value transducer, characterized in that the measurement value transducer has a cutout in its lateral wall, the width of said cutout varying in the longitudinal extent of the measurement value transducer.
A fitting (41, 71) for fixing the vertical tail stabilizer of an aircraft in an area of its structured rear fuselage based on a skin manufactured with a composite material as a unitary piece and frames manufactured with a composite material, comprising: - lugs (45, 45'; 75, 75') for fixing the vertical tail stabilizer, - vertical walls (47, 47'; 77, 77') for fixing the fitting (41, 71) to the fuselage frames, and - horizontal walls (51, 51'; 81, 81') for fixing the fitting (41, 71) to the skin of the fuselage, wherein - a first piece (43, 73) manufactured with a composite material comprises the lugs (45, 45'; 75, 75') and the vertical walls (47, 47'; 77, 77'); characterised in that - at least one pair of additional pieces (49, 49; 79, 79') manufactured separately from the first piece with a composite material comprises the horizontal walls (51, 51'; 81, 81'). - lugs (45, 45'; 75, 75') for fixing the vertical tail stabilizer, - vertical walls (47, 47'; 77, 77') for fixing the fitting (41, 71) to the fuselage frames, and - horizontal walls (51, 51'; 81, 81') for fixing the fitting (41, 71) to the skin of the fuselage, wherein - a first piece (43, 73) manufactured with a composite material comprises the lugs (45, 45'; 75, 75') and the vertical walls (47, 47'; 77, 77'); characterised in that - at least one pair of additional pieces (49, 49; 79, 79') manufactured separately from the first piece with a composite material comprises the horizontal walls (51, 51'; 81, 81').
Method for communicating on the basis of an ad hoc-type, wireless motor vehicle communication system, wherein transport users communicate with one another and/or transport users and the transport infrastructure communicate, characterized in that a) at least one first radio transmission and radio reception device associated with a first transport user transmits at least one first message to at least one second radio transmission and radio reception device which is in the radio supply area of the first radio transmission and radio reception device and is associated with a second transport user or a transport infrastructure device, b) the first message is transmitted in such a manner that a first direction of a position change of the first transport user is determined on the basis of the received first message, c) a history of determined directions is formed on the basis of the at least first message, d) a correlation between the first direction and the history of directions is determined, e) a decision on the presence of a hazardous situation is made on the basis of the correlation, f) if the correlation value is essentially zero and the decision reveals a hazardous situation, the second radio transmission and radio reception devices are used to transmit a second message to the first radio transmission and radio reception device. a) at least one first radio transmission and radio reception device associated with a first transport user transmits at least one first message to at least one second radio transmission and radio reception device which is in the radio supply area of the first radio transmission and radio reception device and is associated with a second transport user or a transport infrastructure device, b) the first message is transmitted in such a manner that a first direction of a position change of the first transport user is determined on the basis of the received first message, c) a history of determined directions is formed on the basis of the at least first message, d) a correlation between the first direction and the history of directions is determined, e) a decision on the presence of a hazardous situation is made on the basis of the correlation, f) if the correlation value is essentially zero and the decision reveals a hazardous situation, the second radio transmission and radio reception devices are used to transmit a second message to the first radio transmission and radio reception device.
A method for processing multicast data messages at a first managed forwarding element 'MFE' executing on a first host machine, the first MFE, in conjunction with a set of additional MFEs (1030B-1030C) executing on additional host machines (1025B, 1015), implementing a distributed multicast logical router and a plurality of logical switches (902A-902B) that logically connect to the distributed multicast logical router, the method comprising: receiving, from a source data compute node 'DCN' that operates on the first host machine and logically connects to a first logical switch in the set of logical switches (902A-902B), a multicast data message to be replicated to DCNs (VM2, VM3, VM4, VM5) belonging to a particular multicast group to which the source DCN belongs; replicating the multicast data message to replicate to a first set of local DCNs (VM3, VM4) in the multicast group that also operate on the first host machine, the first set of DCNs comprising at least a second DCN logically connected to the first logical switch and a third DCN logically connected to a second logical switch and not to the first logical switch, wherein the first set of local DCNs (VM3, VM4) have reported participating in the particular multicast group to which the source DCN belongs; and replicating the multicast data message to other MFEs in the set of additional MFEs (1030B-1030C) that have reported participating in the multicast group, to replicate the multicast data message to a second set of DCNs (VM2, VM5) executing on the additional host machines (1025B, 1015) and which also belong to the particular multicast group to which the source DCN belongs. receiving, from a source data compute node 'DCN' that operates on the first host machine and logically connects to a first logical switch in the set of logical switches (902A-902B), a multicast data message to be replicated to DCNs (VM2, VM3, VM4, VM5) belonging to a particular multicast group to which the source DCN belongs; replicating the multicast data message to replicate to a first set of local DCNs (VM3, VM4) in the multicast group that also operate on the first host machine, the first set of DCNs comprising at least a second DCN logically connected to the first logical switch and a third DCN logically connected to a second logical switch and not to the first logical switch, wherein the first set of local DCNs (VM3, VM4) have reported participating in the particular multicast group to which the source DCN belongs; and replicating the multicast data message to other MFEs in the set of additional MFEs (1030B-1030C) that have reported participating in the multicast group, to replicate the multicast data message to a second set of DCNs (VM2, VM5) executing on the additional host machines (1025B, 1015) and which also belong to the particular multicast group to which the source DCN belongs.
A composition comprising: i) a first peptide comprising the amino acid sequence PFPQPELPY (SEQ ID NO:3) or the amino acid sequence PQPELPYPQ (SEQ ID NO:4), ii) a second peptide comprising the amino acid sequence PFPQPEQPF (SEQ ID NO:10) or the amino acid sequence PQPEQPFPW (SEQ ID NO:15), and iii) a third peptide comprising the amino acid sequence PIPEQPQPY (SEQ ID NO:17) or the amino acid sequence EQPIPEQPQ (SEQ ID NO: 18) or the amino acid sequence QQPIPEQPQ (SEQ ID NO:19). i) a first peptide comprising the amino acid sequence PFPQPELPY (SEQ ID NO:3) or the amino acid sequence PQPELPYPQ (SEQ ID NO:4), ii) a second peptide comprising the amino acid sequence PFPQPEQPF (SEQ ID NO:10) or the amino acid sequence PQPEQPFPW (SEQ ID NO:15), and iii) a third peptide comprising the amino acid sequence PIPEQPQPY (SEQ ID NO:17) or the amino acid sequence EQPIPEQPQ (SEQ ID NO: 18) or the amino acid sequence QQPIPEQPQ (SEQ ID NO:19).
Sensor module with at least one sensor for the detection and conversion of a physical variable into an electrical sensor signal, with an electrical interface which is designed to provide the sensor signal to a processing device, wherein the electrical interface is assigned a signal processing device, which is designed for the switchable provision of the sensor signal to an interface contact (18, 19) of the interface, either as a positive binary voltage signal PNP or as a negative binary voltage signal NPN and/or is designed for the switchable provision of the sensor signal to an interface contact (18, 19) of the interface, either as an analog voltage signal or as an analog current signal, characterised in that the signal processing device is designed for an additional provision of the sensor signal to the respective interface contact (18, 19) in the form of a digital voltage signal.
Process for separating carbon dioxide from a waste gas (3, 11) of a fluid catalytic cracking installation containing carbon dioxide, nitrogen and carbon monoxide, wherein: i) at least a portion of the carbon monoxide of the waste gas is converted into carbon dioxide to form a flow enriched in carbon dioxide by combustion, ii) at least a portion of the flow enriched in carbon dioxide (17, 21, 25) from step i) is separated by adsorption to form a gas enriched in carbon dioxide and depleted in nitrogen and a gas rich in nitrogen and depleted in carbon dioxide, and at least a portion of the gas enriched in carbon dioxide and depleted in nitrogen is separated in a separation apparatus by way of separation at a temperature of less than 0°C by partial condensation and/or by distillation to form a fluid rich in carbon dioxide (29, 35) and a fluid depleted in carbon dioxide (31, 37) and iii) a gas containing at least 90% oxygen is sent to the combustion of step i) as is a gas containing at least 40% carbon dioxide, consisting either of a product of the separation of the flow enriched in carbon dioxide, or of a portion of the flow enriched in carbon dioxide. i) at least a portion of the carbon monoxide of the waste gas is converted into carbon dioxide to form a flow enriched in carbon dioxide by combustion, ii) at least a portion of the flow enriched in carbon dioxide (17, 21, 25) from step i) is separated by adsorption to form a gas enriched in carbon dioxide and depleted in nitrogen and a gas rich in nitrogen and depleted in carbon dioxide, and at least a portion of the gas enriched in carbon dioxide and depleted in nitrogen is separated in a separation apparatus by way of separation at a temperature of less than 0°C by partial condensation and/or by distillation to form a fluid rich in carbon dioxide (29, 35) and a fluid depleted in carbon dioxide (31, 37) and iii) a gas containing at least 90% oxygen is sent to the combustion of step i) as is a gas containing at least 40% carbon dioxide, consisting either of a product of the separation of the flow enriched in carbon dioxide, or of a portion of the flow enriched in carbon dioxide.
A method of determining the blood alcohol content by 1 H-NMR spectroscopy in a blood sample in vitro, wherein the blood sample is whole blood, comprising the steps of: a) collecting and measuring a predetermined amount of whole blood via a capillary; b) mixing the predetermined amount of whole blood of step a) with a volume-related surplus of a deuterated solvent and a predetermined amount of an internal standard, c) creating a 1 H-NMR spectrum of the mixture obtained in step b), and d) determining the concentration of ethanol in the blood sample by comparing the signals of the ethanol with the signals of the internal standard in the 1 H-NMR spectrum created. a) collecting and measuring a predetermined amount of whole blood via a capillary; b) mixing the predetermined amount of whole blood of step a) with a volume-related surplus of a deuterated solvent and a predetermined amount of an internal standard, c) creating a 1 H-NMR spectrum of the mixture obtained in step b), and d) determining the concentration of ethanol in the blood sample by comparing the signals of the ethanol with the signals of the internal standard in the 1 H-NMR spectrum created.
The tetradentate chelating monoquinoline derivative of formula and pharmaceutically acceptable salts thereof: wherein X represents a -NH 2; Y represents a group with the following formula: -(CH 2)n-NR 6 -(CH 2)m-NR 7 R 8; n represents 1 or 2 or 3 or 4 or 5, m represents 1 or 2 or 3 or 4 or 5; R 6 represents hydrogen atom, or C 1-6 alkyl, or CF 3 or a halogen atom; the definition of R 7 or R 8 is the same as that of R 6; R 1, R 2, R 3, R 4 and R 5 are the same or different and independently represent a group or an atom selected from H or a halogen atom, or -CF 3. X represents a -NH 2; Y represents a group with the following formula: -(CH 2)n-NR 6 -(CH 2)m-NR 7 R 8; n represents 1 or 2 or 3 or 4 or 5, m represents 1 or 2 or 3 or 4 or 5; R 6 represents hydrogen atom, or C 1-6 alkyl, or CF 3 or a halogen atom; the definition of R 7 or R 8 is the same as that of R 6; R 1, R 2, R 3, R 4 and R 5 are the same or different and independently represent a group or an atom selected from H or a halogen atom, or -CF 3.
A method, performed by a computing system, for loading a deferred object model (620A, 620B, 620C) into a memory of the computing system without initially loading an entirety of the deferred object model into the memory and without having to fully parse a hierarchical object definition that defines the deferred object model, the method comprising: accessing a map that correlates positions of a hierarchical object definition and corresponding hierarchical positions within an object model, wherein the hierarchical object definition includes a plurality of object definitions that each describe a corresponding object and a hierarchical position of the corresponding object within the object model such that a plurality of objects are included in the object model, each object in the plurality of objects has a corresponding entry in the map, and a first object in the plurality of objects comprising an array of indexed elements represented by a first entry in the map, the first entry includes position data for not every indexed element in the array, wherein the indexed elements are at a regular index of elements, and positions of entries in the map are controlled so that positions of any two of the entries for smaller objects that are not larger than a predetermined threshold, are no more than a predetermined distance apart; and initially constructing the deferred object model of the object model using the map to parse only a subset of the plurality of object definitions included in the hierarchical object definition, thereby constructing only some deferred objects of the deferred object model, thereby reducing load time of the deferred object model as compared to completely loading the deferred object model into the memory. accessing a map that correlates positions of a hierarchical object definition and corresponding hierarchical positions within an object model, wherein the hierarchical object definition includes a plurality of object definitions that each describe a corresponding object and a hierarchical position of the corresponding object within the object model such that a plurality of objects are included in the object model, each object in the plurality of objects has a corresponding entry in the map, and a first object in the plurality of objects comprising an array of indexed elements represented by a first entry in the map, the first entry includes position data for not every indexed element in the array, wherein the indexed elements are at a regular index of elements, and positions of entries in the map are controlled so that positions of any two of the entries for smaller objects that are not larger than a predetermined threshold, are no more than a predetermined distance apart; and initially constructing the deferred object model of the object model using the map to parse only a subset of the plurality of object definitions included in the hierarchical object definition, thereby constructing only some deferred objects of the deferred object model, thereby reducing load time of the deferred object model as compared to completely loading the deferred object model into the memory.
A method for operating a display of a user equipment, wherein the display of the user equipment is configured to display an object, wherein a permission is assigned to the object, the permission defining an allowance for a person to view the object, the method comprising: capturing an image of an eye of a person looking at the display; determining a gaze position of the person looking at the display based on the captured image of the eye of the person, the gaze position defining a position on the display at which the person is looking; determining a distance between the gaze position and a position of the object; capturing an image of an iris of the person; determining an identifying information for the person based on the image of the iris; determining, if the person is allowed to view the object, based on the permission assigned to the object and the identifying information for the person; and if the person is not allowed to view the object, concealing the object depending on the determined distance between the gaze position and the position of the object, wherein concealing the object comprises blurring the object, wherein a degree of the blurring is a monotonic function of the distance between the gaze position and the position of the object, wherein the degree of blurring increases when the distance becomes smaller. capturing an image of an eye of a person looking at the display; determining a gaze position of the person looking at the display based on the captured image of the eye of the person, the gaze position defining a position on the display at which the person is looking; determining a distance between the gaze position and a position of the object; capturing an image of an iris of the person; determining an identifying information for the person based on the image of the iris; determining, if the person is allowed to view the object, based on the permission assigned to the object and the identifying information for the person; and if the person is not allowed to view the object, concealing the object depending on the determined distance between the gaze position and the position of the object, wherein concealing the object comprises blurring the object, wherein a degree of the blurring is a monotonic function of the distance between the gaze position and the position of the object, wherein the degree of blurring increases when the distance becomes smaller.