mhurhangee/patent-ind-claim-en huggingface dataset:
A steam turbine nozzle support assembly comprising: a steam turbine casing ; and a semi-annular diaphragm segment at least partially housed within the steam turbine casing , the semi-annular diaphragm segment having a horizontal joint surface and a lip portion ; and a support bar comprising: a body portion and a hook-shaped portion for engaging the lip portion of the steam turbine diaphragm segment , wherein the hook-shaped portion is a unitary structure, and wherein the hook-shaped portion includes: a first flange extending substantially perpendicularly from the body portion ; and a second flange extending substantially perpendicularly from the first flange ; wherein the support bar is configured to non-affixedly join the steam turbine casing to the steam turbine diaphragm segment ; and wherein the lip portion extends in a direction away from the horizontal joint surface and the hook-shaped portion extends upwardly to engage the lip portion . a steam turbine casing ; and a semi-annular diaphragm segment at least partially housed within the steam turbine casing , the semi-annular diaphragm segment having a horizontal joint surface and a lip portion ; and a support bar comprising: a body portion and a hook-shaped portion for engaging the lip portion of the steam turbine diaphragm segment , wherein the hook-shaped portion is a unitary structure, and wherein the hook-shaped portion includes: a first flange extending substantially perpendicularly from the body portion ; and a second flange extending substantially perpendicularly from the first flange ; wherein the support bar is configured to non-affixedly join the steam turbine casing to the steam turbine diaphragm segment ; and wherein the lip portion extends in a direction away from the horizontal joint surface and the hook-shaped portion extends upwardly to engage the lip portion . a body portion and a hook-shaped portion for engaging the lip portion of the steam turbine diaphragm segment , wherein the hook-shaped portion is a unitary structure, and wherein the hook-shaped portion includes: a first flange extending substantially perpendicularly from the body portion ; and a second flange extending substantially perpendicularly from the first flange ; a first flange extending substantially perpendicularly from the body portion ; and a second flange extending substantially perpendicularly from the first flange ; wherein the support bar is configured to non-affixedly join the steam turbine casing to the steam turbine diaphragm segment ; and wherein the lip portion extends in a direction away from the horizontal joint surface and the hook-shaped portion extends upwardly to engage the lip portion .
A portable laminating machine for hot stamping license plates, applicable for hot stamping characters on license plates, particularly alphanumerical characters or signs included in said plates which may be smooth or have been previously subjected to an embossing process for creating embossed characters or signs, by means of temperature and pressure transmission through a bag or film containing dyes, paints, or heat-transferable metalized compounds, characterized in that the machine is formed as a structure of a portable nature comprising a metallic frame with a rectangular prismatic configuration in which there are coupled an upper base having a flat surface and made of a plastic material for positioning the plate to be stamped, and a metallic side base constituting a laminating housing comprising therein, protected by a first collapsible lid , at least one main laminating roller with a silicone surface and rotating when actuated by a motor coupled to one end thereof, and thermal resistors coupled on the inner face of the lid such that they cover the roller when the lid is in a closed position; with there being a first switch actuating the motor , a second switch connecting the thermal resistors , a temperature controller , and a temperature sensor located next to the roller .
A method for storing energy in the form of hydrazine carbonate and subsequent reconversion of the hydrazine carbonate into reusable energy, characterised in that sea water is first used in an electrolysis method to produce hypochlorite, the hypochlorite reacting to form hydrazine by the introduction of ammonia, by means of the formation monochloramine, and subsequently the hydrazine reacts to form hydrazine carbonate by the introduction of carbon dioxide, the hydrazine carbonate releasing hydrogen or at least one hydrogencontaining gas by reaction on a catalyst free of noble metal, in order to release the stored energy, and the hydrogen or the gas containing at least hydrogen is to be supplied to a fuel cell or burned in order to emit the reusable energy.
Air conditioning device comprising a withdrawing circuit configured to withdraw air present in a conditioned-air zone , a mixer configured to mix the air withdrawn from the conditioned-air zone with regulated air coming from a regulated-air source, and a distribution circuit configured to re-inject the air exiting the mixer into the conditioned-air zone , the mixer comprising a body extending between lower and upper ends (58.1, 58.2), at least one air inlet (62.1, 62.2) connected to the withdrawing circuit and positioned in the vicinity of the lower end (58.1), and at least one air outlet (64.1 to 64.4) connected to the distribution circuit and positioned in the vicinity of the upper end (58.2), wherein at least one orifice from among the air inlet (62.1, 62.2) and the air outlet (64.1 to 64.4) is positioned between the lower and upper ends (58.1, 58.2), in the vicinity of one of the lower and upper ends (58.1, 58.2) that is closed off by a transverse wall (P58.1, P58.2), wherein the body of the mixer comprises an upper part comprising the upper end (58.2) of the body and having a first junction plane (P1), a lower part comprising the lower end (58.1) of the body and having a second junction plane (P2), characterized in that the device comprises a deformable connection system connecting the upper and lower parts in a sealed manner.
A light-emitting device package comprising: a first light-emitting device disposed on a lead frame and configured to emit light in a first wavelength range and a second light-emitting device configured to emit light in a second wavelength range, which is different from the first wavelength range; and a molding part disposed to surround the first light-emitting device and the second light-emitting device , wherein the molding part includes red phosphors , which are excited by the light emitted from at least one of the first light-emitting device and the second light-emitting device , and wherein the molding part has a dome shape, and varies an emission angle of light from the first light-emitting device and the second light-emitting device , characterized in that the red phosphors are fluoro-based red phosphors , wherein the fluoro-based red phosphors have a full width at half maximum within a range from 5 nm to 10 nm, and wherein the fluoro-based red phosphors are included in the molding part in an amount within a range from 5 wt% to 25 wt%. a first light-emitting device disposed on a lead frame and configured to emit light in a first wavelength range and a second light-emitting device configured to emit light in a second wavelength range, which is different from the first wavelength range; and a molding part disposed to surround the first light-emitting device and the second light-emitting device , wherein the molding part includes red phosphors , which are excited by the light emitted from at least one of the first light-emitting device and the second light-emitting device , and wherein the molding part has a dome shape, and varies an emission angle of light from the first light-emitting device and the second light-emitting device ,
Mounting device for the automated drilling of holes in building walls , comprising a drilling device with a drill bit , characterized by - an optical detection device for detecting a digital image of at least a part of the drill bit of the drilling device , and - a control device for controlling the drilling device and the optical detection device , wherein the control device is provided to evaluate said digital image and thereby assess a condition of the drill bit , and said digital image contains information about a color of the drill bit , and the control device is provided for checking the color of the drill bit , determining a blue component of the color and assessing the condition of the drill bit on the basis of the results of said checking of the color of the drill bit and said blue component. - an optical detection device for detecting a digital image of at least a part of the drill bit of the drilling device , and - a control device for controlling the drilling device and the optical detection device , wherein the control device is provided to evaluate said digital image and thereby assess a condition of the drill bit , and said digital image contains information about a color of the drill bit , and the control device is provided for checking the color of the drill bit , determining a blue component of the color and assessing the condition of the drill bit on the basis of the results of said checking of the color of the drill bit and said blue component.
A holographic image generation system comprising: a spatial light modulator having pixels; a light source configured to illuminate the spatial light modulator; a temporal modulator arranged to modulate an output intensity of the light source over time to encode light from the light source with holographic data representing a hologram at the same time as the spatial light modulator is being illuminated by the light from the light source ; a light sensor associated with the spatial light modulator and configured to receive the light from the light source , which is arranged to illuminate the spatial light modulator , and to generate a signal representative of the output intensity of the light source ; a demodulator connected to the light sensor to receive the signal and decode the signal to obtain the holographic data and connected to the spatial light modulator to set the pixels of the spatial light modulator in accordance with the holographic data to display the hologram ready for further illumination by the light source to form a holographic reconstruction; wherein the holographic data is representative of a subsequent frame of a video and the temporal modulator is configured to modulate the output intensity to encode the holographic data representative of the subsequent frame while the light source illuminates the spatial light modulator set with holographic data of a current frame of the video to reconstruct the current frame of the video, wherein the subsequent frame is subsequent the current frame. a spatial light modulator having pixels; a light source configured to illuminate the spatial light modulator; a temporal modulator arranged to modulate an output intensity of the light source over time to encode light from the light source with holographic data representing a hologram at the same time as the spatial light modulator is being illuminated by the light from the light source ; a light sensor associated with the spatial light modulator and configured to receive the light from the light source , which is arranged to illuminate the spatial light modulator , and to generate a signal representative of the output intensity of the light source ; a demodulator connected to the light sensor to receive the signal and decode the signal to obtain the holographic data and connected to the spatial light modulator to set the pixels of the spatial light modulator in accordance with the holographic data to display the hologram ready for further illumination by the light source to form a holographic reconstruction; wherein the holographic data is representative of a subsequent frame of a video and the temporal modulator is configured to modulate the output intensity to encode the holographic data representative of the subsequent frame while the light source illuminates the spatial light modulator set with holographic data of a current frame of the video to reconstruct the current frame of the video, wherein the subsequent frame is subsequent the current frame.
An ultrasonic diagnostic imaging system for determining the border of a chamber of a heart in an ultrasound image comprising: a source of cardiac image data ; a border detection processor responsive to the cardiac image data, which comprises a deformable heart model which is fitted to the heart to identify at least an inner and an outer boundary of a myocardium in the image data, wherein the fitting comprises localising the heart in the image data using a generalised Hough transform, adapting the deformable heart model to determine the pose of the heart in the image data and affine transform specific regions of the deformable heart model to fit the heart in the image data,; a user control arranged to enable a user to indicate a user-defined border of a heart chamber in relation to the identified inner and outer boundaries; and a chamber border delineator , coupled to the user control and the border detection processor, said chamber border delineator is arranged to locate the user-defined heart chamber border in the image data with respect to at least one of the boundaries identified by the border detection processor. a source of cardiac image data ; a border detection processor responsive to the cardiac image data, which comprises a deformable heart model which is fitted to the heart to identify at least an inner and an outer boundary of a myocardium in the image data, wherein the fitting comprises localising the heart in the image data using a generalised Hough transform, adapting the deformable heart model to determine the pose of the heart in the image data and affine transform specific regions of the deformable heart model to fit the heart in the image data,; a user control arranged to enable a user to indicate a user-defined border of a heart chamber in relation to the identified inner and outer boundaries; and a chamber border delineator , coupled to the user control and the border detection processor, said chamber border delineator is arranged to locate the user-defined heart chamber border in the image data with respect to at least one of the boundaries identified by the border detection processor.
A single-stage circuit breaker, comprising a first accommodation chamber having a first current path formed therein; a second accommodation chamber having a second current path formed therein; an electromagnetic trip device arranged in the first accommodation chamber; a first contact assembly and a first execution assembly used for cooperating with the electromagnetic trip device and located in the first accommodation chamber; an arc fault and leakage trip device arranged in the second accommodation chamber; a second contact assembly and a second execution assembly used for cooperating with the arc fault and leakage trip device and located in the second accommodation chamber; wherein the first execution assembly , the second execution assembly , the first contact assembly and the second contact assembly can be respectively actuated by the action of a handle , to switch the circuit breaker in an ON state or in an OFF state; a circuit board assembly for arc fault handling and leakage protection; and an auxiliary contact assembly arranged inside the second accommodation chamber for effecting safe electrical isolation of the circuit board assembly.
An elevator system comprising: an elevator car configured to travel in a hoistway , the elevator car including an elevator car door; a controller configured to control motion of the elevator car ; at least one sensor configured to sense an operating condition of the elevator system; and a sensor interface configured to detect a shutdown state of the elevator system in response to the operating condition; and characterized in that : the sensor interface is configured to detect the shutdown state of the elevator system in response to: (i) the elevator car being positioned between landings , the elevator car being stopped and the elevator car not intentionally parked between landings; and/or (ii) the elevator car being stopped at a landing, the elevator car door opening, the elevator car door closing, occupancy detected in the elevator car and the elevator car door opening, occurring in sequence a number of times; and/or (iii) the elevator car moving, occupancy being detected in the elevator car , the elevator car stopping at a landing and the elevator car door not opening for a period of time, occurring in sequence. an elevator car configured to travel in a hoistway , the elevator car including an elevator car door; a controller configured to control motion of the elevator car ; at least one sensor configured to sense an operating condition of the elevator system; and a sensor interface configured to detect a shutdown state of the elevator system in response to the operating condition; and characterized in that : the sensor interface is configured to detect the shutdown state of the elevator system in response to: (i) the elevator car being positioned between landings , the elevator car being stopped and the elevator car not intentionally parked between landings; and/or (ii) the elevator car being stopped at a landing, the elevator car door opening, the elevator car door closing, occupancy detected in the elevator car and the elevator car door opening, occurring in sequence a number of times; and/or (iii) the elevator car moving, occupancy being detected in the elevator car , the elevator car stopping at a landing and the elevator car door not opening for a period of time, occurring in sequence. (i) the elevator car being positioned between landings , the elevator car being stopped and the elevator car not intentionally parked between landings; and/or (ii) the elevator car being stopped at a landing, the elevator car door opening, the elevator car door closing, occupancy detected in the elevator car and the elevator car door opening, occurring in sequence a number of times; and/or (iii) the elevator car moving, occupancy being detected in the elevator car , the elevator car stopping at a landing and the elevator car door not opening for a period of time, occurring in sequence.
A user device comprising: an interface component configured for communicating with a server over a network; a wireless interface component (341-344); and a processor that implements a machine learning function configured: to monitor user interactions with the user device over time to establish a use profile, to detect anomalous use of the user device based on a variance from the use profile, to determine whether the anomalous use is representative of a security threat , and to instruct the user device to perform one or more automatic actions to respond to determining that the anomalous use is representative of the security threat, wherein performing the one or more automatic actions comprises activating the wireless interface component to spoof a wireless network, to collect information of a wireless device that connects to the wireless network, and to report the information of the wireless device via the interface component. an interface component configured for communicating with a server over a network; a wireless interface component (341-344); and a processor that implements a machine learning function configured: to monitor user interactions with the user device over time to establish a use profile, to detect anomalous use of the user device based on a variance from the use profile, to determine whether the anomalous use is representative of a security threat , and to instruct the user device to perform one or more automatic actions to respond to determining that the anomalous use is representative of the security threat, wherein performing the one or more automatic actions comprises activating the wireless interface component to spoof a wireless network, to collect information of a wireless device that connects to the wireless network, and to report the information of the wireless device via the interface component. to monitor user interactions with the user device over time to establish a use profile, to detect anomalous use of the user device based on a variance from the use profile, to determine whether the anomalous use is representative of a security threat , and to instruct the user device to perform one or more automatic actions to respond to determining that the anomalous use is representative of the security threat, wherein performing the one or more automatic actions comprises activating the wireless interface component to spoof a wireless network, to collect information of a wireless device that connects to the wireless network, and to report the information of the wireless device via the interface component.
A method of determining radio channel properties in a cellular multiple-input and multiple-output, MIMO, system , the cellular MIMO system comprising a base station having a plurality of antennas , the method comprising: receiving, by the plurality of antennas , pilot signals in each frame of a sequence of frames , and analyzing the pilot signals by the base station to determine the radio channel properties of radio channels between respectively each one of a plurality of terminals (11-15) and the base station , wherein the sequence of frames comprises frames of a first frame type (63-65, 68) which respectively have a first number of time slots (41-49) in which the base station receives the pilot signals, and frames of a second frame type which respectively have a second number of time slots in which the base station receives the pilot signals, the second number of time slots being greater than the first number of time slots (41-49), wherein the frames of the second frame type are included periodically in the sequence of frames after a number M of the frames of the first frame type, characterized in that the number M is larger than 1. receiving, by the plurality of antennas , pilot signals in each frame of a sequence of frames , and analyzing the pilot signals by the base station to determine the radio channel properties of radio channels between respectively each one of a plurality of terminals (11-15) and the base station , wherein the sequence of frames comprises frames of a first frame type (63-65, 68) which respectively have a first number of time slots (41-49) in which the base station receives the pilot signals, and frames of a second frame type which respectively have a second number of time slots in which the base station receives the pilot signals, the second number of time slots being greater than the first number of time slots (41-49), wherein the frames of the second frame type are included periodically in the sequence of frames after a number M of the frames of the first frame type, characterized in that the number M is larger than 1. frames of a first frame type (63-65, 68) which respectively have a first number of time slots (41-49) in which the base station receives the pilot signals, and frames of a second frame type which respectively have a second number of time slots in which the base station receives the pilot signals, the second number of time slots being greater than the first number of time slots (41-49), wherein the frames of the second frame type are included periodically in the sequence of frames after a number M of the frames of the first frame type, characterized in that the number M is larger than 1.