mhurhangee/patent-ind-claim-en huggingface dataset:
A method implemented by one or more processors, the method comprising: determining that a user has provided a spoken utterance to a computing device, wherein the spoken utterance is provided while an application graphical user interface, GUI, is being rendered at a display panel of the computing device, and wherein the computing device provides access to an automated assistant that is controllable via spoken natural language inputs; identifying, based on receiving the spoken utterance, content description data provided by an application that is rendering the application GUI at the display panel , wherein the content description data is omitted from the application GUI but characterizes one or more GUI elements that are: being rendered at the application GUI and capable of being interacted with by the user via one or more input gestures to provide an input to the application; determining, based on the content description data and the spoken utterance, whether natural language content of the spoken utterance corresponds to at least one GUI element of the one or more GUI elements characterized by the content description data ; and when the natural language content corresponds to a particular GUI element of the at least one GUI element: generating, based on the natural language content corresponding to the particular GUI element, input data that is in accordance with the natural language content of the spoken utterance . determining that a user has provided a spoken utterance to a computing device, wherein the spoken utterance is provided while an application graphical user interface, GUI, is being rendered at a display panel of the computing device, and wherein the computing device provides access to an automated assistant that is controllable via spoken natural language inputs; wherein the spoken utterance is provided while an application graphical user interface, GUI, is being rendered at a display panel of the computing device, and wherein the computing device provides access to an automated assistant that is controllable via spoken natural language inputs; identifying, based on receiving the spoken utterance, content description data provided by an application that is rendering the application GUI at the display panel , wherein the content description data is omitted from the application GUI but characterizes one or more GUI elements that are: being rendered at the application GUI and capable of being interacted with by the user via one or more input gestures to provide an input to the application; determining, based on the content description data and the spoken utterance, whether natural language content of the spoken utterance corresponds to at least one GUI element of the one or more GUI elements characterized by the content description data ; and when the natural language content corresponds to a particular GUI element of the at least one GUI element: generating, based on the natural language content corresponding to the particular GUI element, input data that is in accordance with the natural language content of the spoken utterance .
A security apparatus for a portable electronic device , the portable electronic device having an aperture , the security apparatus comprising: a lock mechanism including a lock cylinder and a cam member , the lock cylinder configured to be rotated by a key , the cam member coupled to the lock cylinder for rotation with the lock cylinder , the cam member having a slot ; and an engagement mechanism including a first finger , a second finger , and a plunger , the first finger and the second finger configured to be inserted into the aperture of the portable electronic device , the plunger positioned between the first finger and the second finger and having a cam follower positioned within the slot of the cam member , wherein as the cam member is rotated by the lock cylinder , the plunger pushes the first finger and the second finger apart from each other to engage the portable electronic device , wherein: the lock cylinder defines a longitudinal axis , and wherein the cam member is rotatable about the longitudinal axis ; the plunger moves along the longitudinal axis as the cam member is rotated by the lock cylinder ; and the slot of the cam member is obliquely angled relative to the longitudinal axis . a lock mechanism including a lock cylinder and a cam member , the lock cylinder configured to be rotated by a key , the cam member coupled to the lock cylinder for rotation with the lock cylinder , the cam member having a slot ; and an engagement mechanism including a first finger , a second finger , and a plunger , the first finger and the second finger configured to be inserted into the aperture of the portable electronic device , the plunger positioned between the first finger and the second finger and having a cam follower positioned within the slot of the cam member , wherein as the cam member is rotated by the lock cylinder , the plunger pushes the first finger and the second finger apart from each other to engage the portable electronic device , wherein: the lock cylinder defines a longitudinal axis , and wherein the cam member is rotatable about the longitudinal axis ; the plunger moves along the longitudinal axis as the cam member is rotated by the lock cylinder ; and the slot of the cam member is obliquely angled relative to the longitudinal axis . the lock cylinder defines a longitudinal axis , and wherein the cam member is rotatable about the longitudinal axis ; the plunger moves along the longitudinal axis as the cam member is rotated by the lock cylinder ; and the slot of the cam member is obliquely angled relative to the longitudinal axis .
Observer device for generating in real time an estimated path-to-follow state vector ( x̂ ) for a vehicle moving at a current speed (v a ), on the basis of a command (u) and of a current measurement vector (y) that is correlated to a physical path-to-follow state vector (x) of the vehicle , comprising a first module that calculates in real time said estimated path-to-follow state vector ( x̂ ) and an estimated measurement vector ( ŷ ) correlated with the estimated state vector ( x̂ ), characterized in that it comprises: - a second module that adjusts in real time a temporal variation x ^ ̇ in the estimated state vector ( x̂ ) in order to decrease a deviation between said current measurement vector (y) and said estimated measurement vector ( ŷ ) by multiplying said deviation by an estimated gain matrix (L c ) that is calculated by weighted summation in real time of a first estimated gain matrix (L min ) that is optimized for a first speed (v min ) lower than or equal to said current speed (v a ) and of a second estimated gain matrix (L max ) that is optimized for a second speed (v max ) higher than or equal to said current speed (v a ), a first weighting coefficient (p min ) of the first estimated gain matrix (L min ) decreasing from one to zero and a second weighting coefficient (p max ) of the second estimated gain matrix (L max ) increasing from zero to one, with a rate of decrease and a rate of increase that lessen as said current speed (v a ) gets further from the first speed (v min ) in order to get closer to the second speed (v max ), respectively. - a second module that adjusts in real time a temporal variation x ^ ̇ in the estimated state vector ( x̂ ) in order to decrease a deviation between said current measurement vector (y) and said estimated measurement vector ( ŷ ) by multiplying said deviation by an estimated gain matrix (L c ) that is calculated by weighted summation in real time of a first estimated gain matrix (L min ) that is optimized for a first speed (v min ) lower than or equal to said current speed (v a ) and of a second estimated gain matrix (L max ) that is optimized for a second speed (v max ) higher than or equal to said current speed (v a ), a first weighting coefficient (p min ) of the first estimated gain matrix (L min ) decreasing from one to zero and a second weighting coefficient (p max ) of the second estimated gain matrix (L max ) increasing from zero to one, with a rate of decrease and a rate of increase that lessen as said current speed (v a ) gets further from the first speed (v min ) in order to get closer to the second speed (v max ), respectively.
A display device for a vehicle, comprising: - a display with a display surface on a front side and with a rear side opposite thereto, - a cover screen arranged in front of the display surface , the cover screen having an edge and - a rear housing shell which has a rear wall with an edge web protruding from the latter, - the rear wall of the housing shell being arranged at a distance from the rear side of the display and characterized in that - a decorative frame comprises an inward protruding connecting section as an inner flange, on which the cover screen is glued by means of an adhesive , so that the edge of the cover screen is connected to the decorative frame and - the edge web of the housing shell is connected to the decorative frame by means of an adhesive. - a display with a display surface on a front side and with a rear side opposite thereto, - a cover screen arranged in front of the display surface , the cover screen having an edge and - a rear housing shell which has a rear wall with an edge web protruding from the latter, - the rear wall of the housing shell being arranged at a distance from the rear side of the display and characterized in that - a decorative frame comprises an inward protruding connecting section as an inner flange, on which the cover screen is glued by means of an adhesive , so that the edge of the cover screen is connected to the decorative frame and - the edge web of the housing shell is connected to the decorative frame by means of an adhesive.
A cement-based product prepared from a mixture of a cementitious binder, an aggregate, an inorganic pigment, water, optionally a concrete superplasticizer, and fine ground calcium carbonate (GCC) having a weight median particle diameter (d50) in the range of 0.5-5 μm, wherein the weight amount of the fine GCC is in the range of 50% to 300% of the inorganic pigment weight.
An autofocus apparatus, comprising: a light source ; an optical coupler having a first port, second port, a third port and a fourth port; wherein light output from the light source is coupled to the first port and splits into a first light beam and a second light beam, the first light beam being output to the second port and the second light beam being output to the third port, and wherein the forth port is coupled to an input of a spectrometer; a first optical collimator for directing the first light beam from the second port of the optical coupler onto a sample through a Dichroic mirror and a microscope objective , wherein the sample is placed on a substrate supported by an adjustable microscopy stage ; a second optical collimator for directing the second light beam from the third port of the optical coupler onto a retroreflector ; wherein the first light beam reflected from the sample is directed back into the second port and out of the fourth port, and second light beam reflected from the retroreflector is directed back into the third port and out of the fourth port; wherein the spectrometer outputs control signals to control the adjustable microscopy stage based on parabolic fit of each of three maximum peaks identified in an interference signal from the reflected first and second light beams, the parabolic fit of a maximum peak comprising fitting a parabola to the maximum data point and two adjacent data points of the maximum peak. a light source ; an optical coupler having a first port, second port, a third port and a fourth port; wherein light output from the light source is coupled to the first port and splits into a first light beam and a second light beam, the first light beam being output to the second port and the second light beam being output to the third port, and wherein the forth port is coupled to an input of a spectrometer; a first optical collimator for directing the first light beam from the second port of the optical coupler onto a sample through a Dichroic mirror and a microscope objective , wherein the sample is placed on a substrate supported by an adjustable microscopy stage ; a second optical collimator for directing the second light beam from the third port of the optical coupler onto a retroreflector ; wherein the first light beam reflected from the sample is directed back into the second port and out of the fourth port, and second light beam reflected from the retroreflector is directed back into the third port and out of the fourth port; wherein the spectrometer outputs control signals to control the adjustable microscopy stage based on parabolic fit of each of three maximum peaks identified in an interference signal from the reflected first and second light beams, the parabolic fit of a maximum peak comprising fitting a parabola to the maximum data point and two adjacent data points of the maximum peak.
An aerosol-generating device , comprising: a housing having a first end defining a mouthpiece , a second end and a cavity defined between the first end and the second end; a reservoir within the cavity for storing a liquid aerosol-forming substrate; an atomiser ; and a valve within the mouthpiece of the housing, the valve having a downstream side and an upstream side, wherein the upstream side of the valve includes one or more of a hydrophilic coating or a hydrophobic coating . a housing having a first end defining a mouthpiece , a second end and a cavity defined between the first end and the second end; a reservoir within the cavity for storing a liquid aerosol-forming substrate; an atomiser ; and a valve within the mouthpiece of the housing, the valve having a downstream side and an upstream side, wherein the upstream side of the valve includes one or more of a hydrophilic coating or a hydrophobic coating .
Device for the centrifugal separation of particles from a gas stream, with a gas inlet having an inflow channel for the raw gas and a gas outlet having an outflow channel for the particle-free clean gas , with a rotationally driven shaft which can rotate relative to an axis of rotation , and with a bladed separator rotor arranged on the shaft , which separator rotor forms a separator channel of annular cross-section coaxial with the axis of rotation , wherein the separator channel extends in the longitudinal direction of the axis of rotation from an inlet section flow-connected with the gas inlet to an outlet section flow-connected with the gas outlet and has on the circumferential side of its shell outlet openings for the particles to be separated, characterized in that an annular flow guide element coaxial to the axis of rotation is associated to the separator rotor in the outlet section for dividing the gas stream into a particle-laden partial stream and a particle-free partial stream , and in that the gas outlet forms an additional branch channel associated with the particle-laden partial stream for returning the particle-laden partial stream to the separator channel , wherein the branch channel is flow-connected to an additional return channel of the gas inlet .
A data transmission method, comprising: receiving (Step 310), by user equipment ,UE, in a connected state, a handover-free UE identifier from a network device , wherein the handover-free UE identifier is used to uniquely identify UE in a handover-free state in a handover-free area, and the handover-free area comprises at least two cells; entering (Step 320), by the UE, the handover-free state after meeting an activation condition, wherein in the handover-free state, the UE stores the handover-free UE identifier and connection context that is of the UE in the connected state, and the UE does not execute a handover procedure when the UE moves in the handover-free area; sending (Step 330), by the UE , the handover-free UE identifier to the network device after the UE determines that a deactivation condition is met; and obtaining (Step 340), by the UE , a dedicated intra-cell UE identifier of a current serving cell from the network device , and exiting the handover-free state. receiving (Step 310), by user equipment ,UE, in a connected state, a handover-free UE identifier from a network device , wherein the handover-free UE identifier is used to uniquely identify UE in a handover-free state in a handover-free area, and the handover-free area comprises at least two cells; entering (Step 320), by the UE, the handover-free state after meeting an activation condition, wherein in the handover-free state, the UE stores the handover-free UE identifier and connection context that is of the UE in the connected state, and the UE does not execute a handover procedure when the UE moves in the handover-free area; sending (Step 330), by the UE , the handover-free UE identifier to the network device after the UE determines that a deactivation condition is met; and obtaining (Step 340), by the UE , a dedicated intra-cell UE identifier of a current serving cell from the network device , and exiting the handover-free state.
A logging while drilling microresistivity tool comprising: a logging while drilling tool body ; a guard electrode configured to inject electrical current into a formation; a measuring electrode deployed in and electrically isolated from the guard electrode ; a return electrode spaced apart from the guard electrode , the return electrode providing a return path for the electrical current; a shield electrode interposed between the guard electrode and the return electrode ; first and second potential electrodes deployed in the shield electrode ; and characterized in that the logging while drilling microresistivity tool further comprises a controller including a switch configured to switch the tool between first and second microresistivity measurement modes, the switch having first and second positions, the first position corresponding to the first measurement mode and the second position corresponding to the second measurement mode, wherein the shield electrode is (i) electrically connected to a current/voltage supply when the switch is in the first position and (ii) electrically connected to the tool body when the switch is in the second position. a logging while drilling tool body ; a guard electrode configured to inject electrical current into a formation; a measuring electrode deployed in and electrically isolated from the guard electrode ; a return electrode spaced apart from the guard electrode , the return electrode providing a return path for the electrical current; a shield electrode interposed between the guard electrode and the return electrode ; first and second potential electrodes deployed in the shield electrode ; and characterized in that the logging while drilling microresistivity tool further comprises a controller including a switch configured to switch the tool between first and second microresistivity measurement modes, the switch having first and second positions, the first position corresponding to the first measurement mode and the second position corresponding to the second measurement mode, wherein the shield electrode is (i) electrically connected to a current/voltage supply when the switch is in the first position and (ii) electrically connected to the tool body when the switch is in the second position.
An apparatus comprising: a first layer comprising one or more sensors (101a - 101a(i)), wherein each sensor is configured to be able to detect changes in an electric field in the vicinity of the sensor; a second layer comprising a substrate configured to produce one or more charge carriers in response to incident radiation ; and a third layer comprising a plurality of electrodes (103a - 103a(j)), wherein the plurality of electrodes (103a - 103a(j)) are configured to be selectively addressed to alter the electric field in the vicinity of the one or more sensors during a readout operation of the one or more sensors (101a - 101a(i)) wherein the second layer is disposed between the first layer and the third layer . a first layer comprising one or more sensors (101a - 101a(i)), wherein each sensor is configured to be able to detect changes in an electric field in the vicinity of the sensor; a second layer comprising a substrate configured to produce one or more charge carriers in response to incident radiation ; and a third layer comprising a plurality of electrodes (103a - 103a(j)), wherein the plurality of electrodes (103a - 103a(j)) are configured to be selectively addressed to alter the electric field in the vicinity of the one or more sensors during a readout operation of the one or more sensors (101a - 101a(i)) wherein the second layer is disposed between the first layer and the third layer .
A device for fastening loads to the underside of a scaffolding deck of a scaffold, comprising at least one fastening means , which enables a fastening to the underside of the scaffolding deck , and at least one fastening option (10', 10") for loads, characterized in that the device has a horizontal load beam , to which the fastening option (10', 10", 10"') for loads is attached and the load beam is horizontally variable in its length, wherein the fastening means are formed at horizontally opposite ends of the load beam , and the fastening option (10', 10") for loads is configured as a running rail (10"). at least one fastening means , which enables a fastening to the underside of the scaffolding deck , and at least one fastening option (10', 10") for loads, characterized in that the device has a horizontal load beam , to which the fastening option (10', 10", 10"') for loads is attached and the load beam is horizontally variable in its length, wherein the fastening means are formed at horizontally opposite ends of the load beam , and the fastening option (10', 10") for loads is configured as a running rail (10").
A process comprising: (a) providing a concentration device comprising a sintered porous polymer matrix comprising at least one concentration agent that comprises diatomaceous earth bearing, on at least a portion of its surface, a surface treatment comprising a surface modifier comprising ferric oxide, titanium dioxide, fine-nanoscale gold or platinum, or a combination thereof, wherein said at least one concentration agent has a negative zeta potential at a pH of 7; (b) providing a sample comprising at least one microorganism strain; (c) contacting said concentration device with said sample such that at least a portion of said at least one microorganism strain is bound to or captured by said concentration device; and (d) detecting the presence of at least one bound microorganism strain. (a) providing a concentration device comprising a sintered porous polymer matrix comprising at least one concentration agent that comprises diatomaceous earth bearing, on at least a portion of its surface, a surface treatment comprising a surface modifier comprising ferric oxide, titanium dioxide, fine-nanoscale gold or platinum, or a combination thereof, wherein said at least one concentration agent has a negative zeta potential at a pH of 7; (b) providing a sample comprising at least one microorganism strain; (c) contacting said concentration device with said sample such that at least a portion of said at least one microorganism strain is bound to or captured by said concentration device; and (d) detecting the presence of at least one bound microorganism strain.