mhurhangee/ep-ind-claims huggingface dataset:
A thermal conductive silicone composition comprising: a component that is an organopolysiloxane having two or more alkenyl groups per molecule and is contained in an amount of 100 parts by mass; a component that is an organohydrogenpolysiloxane having two or more hydrogen atoms directly bonded to silicon atoms and is contained in such an amount that the number of moles of hydrogen atoms directly bonded to silicon atoms in the component is 0.1 to 5.0 times the number of moles of alkenyl groups derived from the component; a component that is a heat conductive filler contained in an amount of 2,800 to 4,000 parts by mass, wherein the heat conductive filler comprises aluminum hydroxide in an amount of 50 mass% or more, and the aluminum hydroxide is a mixture constituted of (C-1) 25 to 35 mass% of aluminum hydroxide having an average particle size of 0.1 μm or more and less than 40 μm, and (C-2) 65 to 75 mass% of aluminum hydroxide having an average particle size of 40 μm or more and 100 μm or less; and a component that is a platinum group metal-based curing catalyst having a platinum group metal element content of 0.1 to 1,000 ppm relative to the component based on mass. a component that is an organopolysiloxane having two or more alkenyl groups per molecule and is contained in an amount of 100 parts by mass; a component that is an organohydrogenpolysiloxane having two or more hydrogen atoms directly bonded to silicon atoms and is contained in such an amount that the number of moles of hydrogen atoms directly bonded to silicon atoms in the component is 0.1 to 5.0 times the number of moles of alkenyl groups derived from the component; a component that is a heat conductive filler contained in an amount of 2,800 to 4,000 parts by mass, wherein the heat conductive filler comprises aluminum hydroxide in an amount of 50 mass% or more, and the aluminum hydroxide is a mixture constituted of (C-1) 25 to 35 mass% of aluminum hydroxide having an average particle size of 0.1 μm or more and less than 40 μm, and (C-2) 65 to 75 mass% of aluminum hydroxide having an average particle size of 40 μm or more and 100 μm or less; and (C-1) 25 to 35 mass% of aluminum hydroxide having an average particle size of 0.1 μm or more and less than 40 μm, and (C-2) 65 to 75 mass% of aluminum hydroxide having an average particle size of 40 μm or more and 100 μm or less; and a component that is a platinum group metal-based curing catalyst having a platinum group metal element content of 0.1 to 1,000 ppm relative to the component based on mass.
A hazard detection system, comprising: a plurality of safety sensors comprising a smoke sensor and a carbon monoxide sensor; a safety processor operative to: communicate with the safety sensors; and activate an alarm if any of the safety sensors detect a hazard event; and a system processor operative to execute a plurality of user interface features, wherein the safety processor is characterized by relatively limited processing power in comparison to that of the system processor, wherein the safety processor is further characterized by relatively low power consumption in comparison to that of the system processor when both the safety processor and the system processor are active, wherein the safety processor is operative to independently activate the alarm regardless of whether the system processor is functioning and wherein the safety processor is further operative to manage power consumption of at least one of the plurality of safety sensors. a plurality of safety sensors comprising a smoke sensor and a carbon monoxide sensor; a safety processor operative to: communicate with the safety sensors; and activate an alarm if any of the safety sensors detect a hazard event; and a system processor operative to execute a plurality of user interface features, communicate with the safety sensors; and activate an alarm if any of the safety sensors detect a hazard event; and a system processor operative to execute a plurality of user interface features, wherein the safety processor is characterized by relatively limited processing power in comparison to that of the system processor, wherein the safety processor is further characterized by relatively low power consumption in comparison to that of the system processor when both the safety processor and the system processor are active, wherein the safety processor is operative to independently activate the alarm regardless of whether the system processor is functioning and wherein the safety processor is further operative to manage power consumption of at least one of the plurality of safety sensors.
Apparatus for detecting sound waves emanating from a body of a subject, the apparatus comprising: a housing; a membrane, disposed at an opening of the housing, configured to deflect, when the outer face of the membrane contacts the body, responsively to the sound waves impinging on the membrane; a piezoelectric microphone, disposed within the housing, configured to detect vibrations of air caused by the deflection of the membrane, and to generate a microphone output in response thereto; an accelerometer, disposed on the inner face of the membrane, configured to deflect, along with the membrane, at frequencies below a minimum frequency that is detectable by the piezoelectric microphone, and to generate an accelerometer output in response thereto; and a processor, configured to process the microphone output and the accelerometer output, and to generate, responsively to the processing, a sound signal that represents the impinging sound waves emanating from the body of the subject. a housing; a membrane, disposed at an opening of the housing, configured to deflect, when the outer face of the membrane contacts the body, responsively to the sound waves impinging on the membrane; a piezoelectric microphone, disposed within the housing, configured to detect vibrations of air caused by the deflection of the membrane, and to generate a microphone output in response thereto; an accelerometer, disposed on the inner face of the membrane, configured to deflect, along with the membrane, at frequencies below a minimum frequency that is detectable by the piezoelectric microphone, and to generate an accelerometer output in response thereto; and a processor, configured to process the microphone output and the accelerometer output, and to generate, responsively to the processing, a sound signal that represents the impinging sound waves emanating from the body of the subject.
A mobile electronic device configured to determine transportation thereof, the mobile electronic device comprising: at least one controller that is configured to, detect a predetermined vibration; detect a predetermined change in magnetic field strength within a predetermined period of time when the predetermined vibration has been detected; and determine that the transportation is a train when a predetermined change in magnetic field strength is detected within a predetermined period of time, and determine that the transportation is an automobile when the predetermined change in the magnetic field strength is not detected within the predetermined period of time, characterized in that when the predetermined change in the magnetic field strength is detected, the controller is configured to measure a change in an orientation of the mobile electronic device for a certain time, and when a predetermined change in the orientation of the mobile electronic device is detected based on the measured change in the orientation of the mobile electronic device, the controller is configured to determine that the transportation of the mobile electronic device is an automobile detect a predetermined vibration; detect a predetermined change in magnetic field strength within a predetermined period of time when the predetermined vibration has been detected; and determine that the transportation is a train when a predetermined change in magnetic field strength is detected within a predetermined period of time, and determine that the transportation is an automobile when the predetermined change in the magnetic field strength is not detected within the predetermined period of time, characterized in that when the predetermined change in the magnetic field strength is detected, the controller is configured to measure a change in an orientation of the mobile electronic device for a certain time, and when a predetermined change in the orientation of the mobile electronic device is detected based on the measured change in the orientation of the mobile electronic device, the controller is configured to determine that the transportation of the mobile electronic device is an automobile
A crane base for a loading crane comprising - a base part having a mounting region for mounting the rotating part of a loading crane, - at least one support portion serving for additionally supporting the crane base on a substructure, and - a joint which connects the base part and the at least one support portion together, characterised in that the joint is in the form of a torsionally flexible carrier, wherein the one end of the carrier is connected to the base part and the other end of the carrier is connected to the at least one support portion. - a base part having a mounting region for mounting the rotating part of a loading crane, - at least one support portion serving for additionally supporting the crane base on a substructure, and - a joint which connects the base part and the at least one support portion together,
Apparatus for acquiring and dynamically visualizing coronary information, the apparatus adapted to a) acquire first dynamic cardiac data during a first cardiac stage, said first dynamic cardiac data acquired during said first cardiac stage corresponding to an image sequence of the heart with a contrast agent in a vessel of the heart; b) acquire second dynamic cardiac data during a second cardiac stage, said second cardiac data acquired during said second cardiac stage corresponding to an image sequence of the heart with the contrast agent irrigating a surrounding tissue of the vessel of the heart; and c) visualize continuously the first cardiac data and the second cardiac data in a superimposed presentation; d) wherein the first cardiac data and the second cardiac data corresponding to a same phase within a cardiac cycle are visualized simultaneously and wherein a cardiac stage defines a period of time where a certain amount or volume of blood with the injected contrast agent, passes certain stages of the blood circulation. a) acquire first dynamic cardiac data during a first cardiac stage, said first dynamic cardiac data acquired during said first cardiac stage corresponding to an image sequence of the heart with a contrast agent in a vessel of the heart; b) acquire second dynamic cardiac data during a second cardiac stage, said second cardiac data acquired during said second cardiac stage corresponding to an image sequence of the heart with the contrast agent irrigating a surrounding tissue of the vessel of the heart; and c) visualize continuously the first cardiac data and the second cardiac data in a superimposed presentation; d) wherein the first cardiac data and the second cardiac data corresponding to a same phase within a cardiac cycle are visualized simultaneously and wherein a cardiac stage defines a period of time where a certain amount or volume of blood with the injected contrast agent, passes certain stages of the blood circulation.
A robotic vehicle chassis, comprising: - a first chassis section; - a second chassis section; - a hinge joint connecting the first and second chassis sections such that the first and second chassis sections are capable of rotation with respect to each other in at least a first direction; - a spring element extending between the first and second chassis sections, the spring element providing a force that provides an urging force to assist the first and second chassis sections toward a position in which there is a zero degree of rotation between the first and second chassis sections; - at least one rotation stop (826, 828) positioned to prevent undesired rotation about the hinge joint; - a drive wheel mounted to one of the first and second chassis sections; and - an omni-wheel mounted to the other of the first and second chassis sections, the omni-wheel being mounted at an angle orthogonal with respect to the drive wheel, wherein the hinge joint rotates in response to the curvature of a surface the vehicle is traversing and is limited in rotation to a set range of degrees by the at least one rotation stop (826, 828). - a first chassis section; - a second chassis section; - a hinge joint connecting the first and second chassis sections such that the first and second chassis sections are capable of rotation with respect to each other in at least a first direction; - a spring element extending between the first and second chassis sections, the spring element providing a force that provides an urging force to assist the first and second chassis sections toward a position in which there is a zero degree of rotation between the first and second chassis sections; - at least one rotation stop (826, 828) positioned to prevent undesired rotation about the hinge joint; - a drive wheel mounted to one of the first and second chassis sections; and - an omni-wheel mounted to the other of the first and second chassis sections, the omni-wheel being mounted at an angle orthogonal with respect to the drive wheel,
Reflector for a spotlight for illuminating a surface portion, wherein the reflector, as a whole, is formed approximately in the shape of a half-shell for essentially completely capturing the light of a point-shaped light source that radiates into a half-space, and is formed by two shell halves (8a, 8b) each of which is configured to be double-convergent and single-reflecting, such that the total light captured is substantially completely radiated past the light source at different sides of the light source, characterized in that the shell halves (8a, 8b) of a respective reflector together form a half-shell of approximately double pear shape and with a double-shell curvature that has a constriction formed by the transition region of the two shell halves (8a, 8b) and is of approximately gap shape, wherein the constriction extends beyond the reflector shell and has a depth that decreases from one side of the reflector toward the opposite side of the reflector, so that the constriction has a larger depth at an edge portion of the reflector shell than on an opposite edge portion of the reflector shell.
A working vehicle including: a work unit (12, 13), which is hydraulically driven; a hydraulic pump, which is driven by an electric motor; a power source and a power supply circuit, which supply electric power to the electric motor; and a main body, which supports the work unit (12, 13), the hydraulic pump, the electric motor, the power source, and the power supply circuit, the working vehicle comprising: a plurality of fixation components fixed to the main body; and a first fixation mechanism, which fixes a first fixation component of the plurality of fixation components to the main body, the first fixation mechanism including: a first conductor; a first conduction member, which makes the first conductor and the main body electrically conductive to each other; and a second conduction member, which makes the first conductor and the first fixation component electrically conductive to each other, and wherein the first fixation mechanism is configured such that the main body and the first fixation component are electrically conductive to each other via the first conductor, the first conduction member, and the second conduction member and are equal in electric potential to each other, wherein the main body is configured to be electrically conductive and equal in electric potential to a ground pole of the power supply circuit. a plurality of fixation components fixed to the main body; and a first fixation mechanism, which fixes a first fixation component of the plurality of fixation components to the main body, the first fixation mechanism including: a first conductor; a first conduction member, which makes the first conductor and the main body electrically conductive to each other; and a second conduction member, which makes the first conductor and the first fixation component electrically conductive to each other, and wherein the first fixation mechanism is configured such that the main body and the first fixation component are electrically conductive to each other via the first conductor, the first conduction member, and the second conduction member and are equal in electric potential to each other, wherein the main body is configured to be electrically conductive and equal in electric potential to a ground pole of the power supply circuit.
A device for controlling a frequency generator for generating an electromagnetic field, the frequency generator configured to generate periodic oscillating or alternating functions with any shape according to a first operating mode at an output of the frequency generator and to continuously vary the periodic oscillating and alternating functions according to at least one additional operating mode, characterized in that the at least one additional operating mode is a combined operating mode in which a frequency and also a pulse width is continuously varied so that a magnetic flux remains constant.
An inkjet recording material, comprising an extruded mixture of thermoplastic polymers and non-chlorinated polyolefin materials wherein said mixture comprises from 0.5 wt% to 30 wt% of non-chlorinated polyolefin materials based on the total weight of the polymers constituting the material, wherein the non-chlorinated polyolefin material is maleic anhydride and acrylate modified polyolefin.
A method for preparing carnivorous fish feed pellets having enhanced palatability, comprising: a) providing a palatability-enhancing composition comprising: - a protein hydrolysate having a degree of hydrolysis from 14.5 to 100% and containing at least 17 different free amino acids, combined to - one or more nucleotides selected from inosine monophosphate, guanosine monophosphate, cytidine monophosphate, and combinations thereof, and - optionally, in the presence of one or more additional palatability-enhancing composition ingredients; b) applying said palatability-enhancing composition to carnivorous fish feed pellets; and c) recovering said carnivorous fish feed pellets having enhanced palatability. a) providing a palatability-enhancing composition comprising: - a protein hydrolysate having a degree of hydrolysis from 14.5 to 100% and containing at least 17 different free amino acids, combined to - one or more nucleotides selected from inosine monophosphate, guanosine monophosphate, cytidine monophosphate, and combinations thereof, and - optionally, in the presence of one or more additional palatability-enhancing composition ingredients; - a protein hydrolysate having a degree of hydrolysis from 14.5 to 100% and containing at least 17 different free amino acids, combined to - one or more nucleotides selected from inosine monophosphate, guanosine monophosphate, cytidine monophosphate, and combinations thereof, and - optionally, in the presence of one or more additional palatability-enhancing composition ingredients; b) applying said palatability-enhancing composition to carnivorous fish feed pellets; and c) recovering said carnivorous fish feed pellets having enhanced palatability.
Plate for a heat exchanger device, the plate comprising a first sector with mutually parallel ridges and an adjoining second sector with mutually parallel ridges extending at an angle relative to the ridges of the first sector, the plate further comprising at least one transition ridge formed as a stem branching off into two legs (62a, 62b), characterized in that the stem has a length exceeding twice, preferable thrice, a distance (d) from ridge to ridge of the mutually parallel ridges of the first and second sectors.
A composition comprising: from 30 wt% to 70 wt% of a propylene component including at least one propylene based polymer having a propylene content of at least 50.0 wt%, based on the total weight of the propylene based polymer, and a melt flow rate from 0.5 g/10 min to 200.0 g/10 min (ASTM D-1238 at 230°C, 2.16 kg), wherein the propylene based polymer is a polypropylene homopolymer; from 25 wt% to 55 wt% of a polyolefin elastomer, wherein the polyolefin elastomer is an ethylene/α-olefin copolymer, wherein the α-olefin is 1-butene or 1-octene; and from 1 wt% to 20 wt% of a block composite comprising (i) an ethylene-propylene copolymer, (ii) an isotactic polypropylene copolymer, and (iii) a block copolymer including an ethylene-propylene soft block that has a same composition as the ethylene-propylene copolymer of the block composite and an isotactic polypropylene hard block that has a same composition as the isotactic polypropylene copolymer of the block composite. from 30 wt% to 70 wt% of a propylene component including at least one propylene based polymer having a propylene content of at least 50.0 wt%, based on the total weight of the propylene based polymer, and a melt flow rate from 0.5 g/10 min to 200.0 g/10 min (ASTM D-1238 at 230°C, 2.16 kg), wherein the propylene based polymer is a polypropylene homopolymer; from 25 wt% to 55 wt% of a polyolefin elastomer, wherein the polyolefin elastomer is an ethylene/α-olefin copolymer, wherein the α-olefin is 1-butene or 1-octene; and from 1 wt% to 20 wt% of a block composite comprising (i) an ethylene-propylene copolymer, (ii) an isotactic polypropylene copolymer, and (iii) a block copolymer including an ethylene-propylene soft block that has a same composition as the ethylene-propylene copolymer of the block composite and an isotactic polypropylene hard block that has a same composition as the isotactic polypropylene copolymer of the block composite.
Method for controlling at least one electronic appliance using a remote device such as a remote control comprising control means and an appliance selection means among a plurality of appliances, said method comprising - an association programming step (3.2) between a control means and an appliance among a plurality of appliances, - a device activation step in a first mode (3.1) where the control means control the selected appliance by the selection means, - a device activation step in a second mode (3.4) where several appliances at least are controlled by the control means according to associations created during the programming step, characterised in that: - the appliance selection means among a plurality of appliance also makes it possible to activate the second mode. - an association programming step (3.2) between a control means and an appliance among a plurality of appliances, - a device activation step in a first mode (3.1) where the control means control the selected appliance by the selection means, - a device activation step in a second mode (3.4) where several appliances at least are controlled by the control means according to associations created during the programming step, - the appliance selection means among a plurality of appliance also makes it possible to activate the second mode.