mhurhangee/ep-ind-claims huggingface dataset:
An information processing apparatus, comprising: an image acquisition unit which acquires an input image generated by imaging a real space using an image pickup apparatus; a display control unit which superimposes virtual objects, which are associated with one or more real objects shown in the input image, on the input image; and a selection unit which selects, after one real object from among the one or more real objects is designated by a user, the designated real object as an interested object across a plurality of frames, wherein the display control unit changes displayed information, which is displayed by the virtual object associated with the interested object, according to a relative position or attitude between the interested object and the image pickup apparatus, characterised in that, when the interested object is not designated by the user, the selection unit selects a real object identified by a given standard, from among the one or more real objects, as a default object, and wherein the display control unit controls display of a virtual object associated with the default object in a manner that the default object is capable of being identified by the user, and wherein the selection unit selects the default object as the interested object, when a predetermined user input is detected. an image acquisition unit which acquires an input image generated by imaging a real space using an image pickup apparatus; a display control unit which superimposes virtual objects, which are associated with one or more real objects shown in the input image, on the input image; and a selection unit which selects, after one real object from among the one or more real objects is designated by a user, the designated real object as an interested object across a plurality of frames, wherein the display control unit changes displayed information, which is displayed by the virtual object associated with the interested object, according to a relative position or attitude between the interested object and the image pickup apparatus, characterised in that, when the interested object is not designated by the user, the selection unit selects a real object identified by a given standard, from among the one or more real objects, as a default object, and wherein the display control unit controls display of a virtual object associated with the default object in a manner that the default object is capable of being identified by the user, and wherein the selection unit selects the default object as the interested object, when a predetermined user input is detected.
Heatable device, comprising a device body as well as heating means for at least temporary and/or regional heating of the device and/or the device body, wherein the heating means comprises an electrically and/or thermally conductive compound, wherein the conductive compound comprises at least one carbon material and the conductive compound is arranged and/or formed at least regionally at the heatable device, wherein the heatable device is constructed as an injection-moulding device and wherein the device body comprises an arrangement for at least temporary reception of a medium and wherein the heating means is constructed for at least temporary and/or regional heating of the arrangement for receiving the medium and/or of the medium, wherein the arrangement for at least temporary reception of a medium is constructed a single-part or multi-part mould and/or as a single-part or multi-part tool and wherein the device is coated at least regionally on at least one surface (13, 15, 20, 21) with the conductive compound and/or the conductive compound is arranged or formed within the device, characterised in that the conductive compound has a first phase and at least two conductivity additives provided in the first phase and the first phase is a base material of plastic.
An article, the article consisting of: a. a self-sintered polysilocarb derived silicon carbide composition; b. the self-sintered polysilocarb derived silicon carbide composition consisting of sintered polysilocarb derived silicon carbide particles having an average diameter of either less than 0.25 μ m or 0.4 μm to 0.6 μm and being essentially free from an oxide layer on their surface, whereby the sintered SiC article is substantially free from sintering aids. a. a self-sintered polysilocarb derived silicon carbide composition; b. the self-sintered polysilocarb derived silicon carbide composition consisting of sintered polysilocarb derived silicon carbide particles having an average diameter of either less than 0.25 μ m or 0.4 μm to 0.6 μm and being essentially free from an oxide layer on their surface, whereby the sintered SiC article is substantially free from sintering aids.
An interference rejection combining, IRC, method supporting transmit diversity, comprising: generating an N ∗ N interference and noise covariance matrix corresponding to one subcarrier from signals, in a transmit diversity mode, received at cell reference signal, CRS, resource positions via N receiving antennas, where N is greater than or equal to 3; performing Cholescy decomposition and upper triangular matrix inversion on the N ∗ N interference and noise covariance matrix to obtain an N ∗ N block matrix; expanding the N ∗ N block matrix to a 2N ∗ 2N noise whitening matrix; and whitening the received signals and channel estimation values according to the 2N ∗ 2N noise whitening matrix, and using the whitened received signals and channel estimation values to obtain a minimum mean square error-IRC, MMSE-IRC, processing result; characterized in that said expanding the N ∗ N block matrix to the 2N ∗ 2N noise whitening matrix comprises: forming the 2N ∗ 2N noise whitening matrix by using the N ∗ N block matrix and conjugates of the N ∗ N block matrix, wherein main diagonal elements of the formed 2N ∗ 2N noise whitening matrix are the N ∗ N block matrix and the conjugates of the N ∗ N block matrix, and off-diagonal elements of the formed 2N ∗ 2N noise whitening matrix are zero. generating an N ∗ N interference and noise covariance matrix corresponding to one subcarrier from signals, in a transmit diversity mode, received at cell reference signal, CRS, resource positions via N receiving antennas, where N is greater than or equal to 3; performing Cholescy decomposition and upper triangular matrix inversion on the N ∗ N interference and noise covariance matrix to obtain an N ∗ N block matrix; expanding the N ∗ N block matrix to a 2N ∗ 2N noise whitening matrix; and whitening the received signals and channel estimation values according to the 2N ∗ 2N noise whitening matrix, and using the whitened received signals and channel estimation values to obtain a minimum mean square error-IRC, MMSE-IRC, processing result; characterized in that said expanding the N ∗ N block matrix to the 2N ∗ 2N noise whitening matrix comprises: forming the 2N ∗ 2N noise whitening matrix by using the N ∗ N block matrix and conjugates of the N ∗ N block matrix, wherein main diagonal elements of the formed 2N ∗ 2N noise whitening matrix are the N ∗ N block matrix and the conjugates of the N ∗ N block matrix, and off-diagonal elements of the formed 2N ∗ 2N noise whitening matrix are zero.
An elevator inspection system, comprising: a sensor implement; a robotic platform supporting the sensor implement, the robotic platform configured to inspect a hoistway; a controller operationally connected to the robotic platform and the sensor implement, wherein the controller is configured to define hoistway model data for the hoistway, from sensor data, corresponding to locations and shape boundaries of the hoistway and doorway openings formed in the hoistway; characterized in that: the controller is configured to determine, from the hoistway model data, tilt and twist of the hoistway, locations and sizes of doorway openings, sill to sill distances, guide rail to guide rail distances, and sill to guide rail distances for each of the doorway openings; and in that the robotic platform is a drone or comprises a robotic arm. a sensor implement; a robotic platform supporting the sensor implement, the robotic platform configured to inspect a hoistway; a controller operationally connected to the robotic platform and the sensor implement, wherein the controller is configured to define hoistway model data for the hoistway, from sensor data, corresponding to locations and shape boundaries of the hoistway and doorway openings formed in the hoistway; characterized in that: the controller is configured to determine, from the hoistway model data, tilt and twist of the hoistway, locations and sizes of doorway openings, sill to sill distances, guide rail to guide rail distances, and sill to guide rail distances for each of the doorway openings; and in that the robotic platform is a drone or comprises a robotic arm.
A scan region determining apparatus for determining a scan region of a subject to be scanned by a scanning system, the scan region determining apparatus comprising: - an overview image providing unit for providing an overview image of a subject, - an element position indicator determination unit for determining, as an element position indicator, a center of an element of the subject to be scanned and an intermediate scan region, which includes the element of the subject to be scanned and is centered on the determined center of the element, with respect to and based on the overview image, - a template image providing unit for providing a template image of a template subject, which corresponds to the subject to be scanned, and for providing a template scan region including a template element, which corresponds to the element of the subject to be scanned, wherein the template image providing unit is adapted to provide a template scan region, which is defined with respect to the template image, - a spatial transformation determination unit for determining a spatial transformation defining a registration of the overview image and the template image with respect to each other, wherein initially the overview image and the template image are registered by using at least the determined center of the element of the subject to be scanned and the intermediate scan region, - a scan region determination unit for determining a final scan region by projecting the template scan region onto the overview image by using the determined spatial transformation. - an overview image providing unit for providing an overview image of a subject, - an element position indicator determination unit for determining, as an element position indicator, a center of an element of the subject to be scanned and an intermediate scan region, which includes the element of the subject to be scanned and is centered on the determined center of the element, with respect to and based on the overview image, - a template image providing unit for providing a template image of a template subject, which corresponds to the subject to be scanned, and for providing a template scan region including a template element, which corresponds to the element of the subject to be scanned, wherein the template image providing unit is adapted to provide a template scan region, which is defined with respect to the template image, - a spatial transformation determination unit for determining a spatial transformation defining a registration of the overview image and the template image with respect to each other, wherein initially the overview image and the template image are registered by using at least the determined center of the element of the subject to be scanned and the intermediate scan region, - a scan region determination unit for determining a final scan region by projecting the template scan region onto the overview image by using the determined spatial transformation.
A power tool comprising: a motor; a transmission receiving rotary power from the motor, the transmission having a transmission output member (28, 28a, 28b); a rotary impact mechanism having a first spindle (60, 60a, 62b), a second spindle (32, 32b), a hammer and an anvil, the second spindle being disposed coaxially with the first spindle, the hammer being drivingly coupled to the second spindle (32, 32b); means (62, 62a, 60b, 48, 68, 70, 80, 70a, 110, 112, 30) for selectively coupling the first (60, 60a, 62b) and second (32, 32b) spindles with the anvil and the transmission output member, wherein coupling of the first spindle (60, 60a, 62b) with the anvil and the transmission output member directly drives the anvil and wherein coupling of the second spindle (32, 32b) with the anvil and the transmission output member drives the anvil through the hammer; wherein the first spindle is coupled for rotation with at least one of the transmission output member and the second spindle; and wherein a clutch member is coupled for rotation with the anvil characterised in that the clutch member is axially movable to permit the clutch member and the first spindle to be selectively engaged to one another. a motor; a transmission receiving rotary power from the motor, the transmission having a transmission output member (28, 28a, 28b); a rotary impact mechanism having a first spindle (60, 60a, 62b), a second spindle (32, 32b), a hammer and an anvil, the second spindle being disposed coaxially with the first spindle, the hammer being drivingly coupled to the second spindle (32, 32b); means (62, 62a, 60b, 48, 68, 70, 80, 70a, 110, 112, 30) for selectively coupling the first (60, 60a, 62b) and second (32, 32b) spindles with the anvil and the transmission output member, wherein coupling of the first spindle (60, 60a, 62b) with the anvil and the transmission output member directly drives the anvil and wherein coupling of the second spindle (32, 32b) with the anvil and the transmission output member drives the anvil through the hammer; wherein the first spindle is coupled for rotation with at least one of the transmission output member and the second spindle; and
Hand-held tool, in particular nail-setting device, comprising a handle for manual actuation of the hand-held tool, an interface for fastening the hand-held tool to a remote actuation device and a control means for controlling the hand-held tool in a manual mode and in a remote actuation mode, characterised by an inquiry means for inquiring whether the hand-held tool is fastened to a remote actuation device, wherein the control means controls the hand-held tool in the manual mode if the inquiry means detects that the hand-held tool is not fastened to a remote actuation device and wherein the control means controls the hand-held tool in the remote actuation mode if the inquiry means detects that the hand-held tool is fastened to a remote actuation device.
A method for acquiring a depth map by indirect time-of-flight in a network of photosensitive pixels (RES_PX) segmented into groups of pixels, comprising at least one capture (Capt1-Capt4) during which the pixels of the network are controlled by a demodulation signal (DEMOD), characterised in that the method comprises introducing phase shifts into the demodulation signal at different values (Δ1-Δ12) distributed in each group of pixels (Coll-Col12, Bk), and in that the method further comprises calculating, for each pixel, a time-of-flight phase difference (φ) between the demodulation signal (DEMOD) and a light signal received during said at least one capture (Capt1-Capt4), the calculation of the time-of-flight phase difference (φ) comprising a compensation for the phase shift (Δi) introduced onto the demodulation signal for each group of pixels. characterised in that the method comprises introducing phase shifts into the demodulation signal at different values (Δ1-Δ12) distributed in each group of pixels (Coll-Col12, Bk), and in that the method further comprises calculating, for each pixel, a time-of-flight phase difference (φ) between the demodulation signal (DEMOD) and a light signal received during said at least one capture (Capt1-Capt4), the calculation of the time-of-flight phase difference (φ) comprising a compensation for the phase shift (Δi) introduced onto the demodulation signal for each group of pixels.
A folding hopper assembly for bulk material processing apparatus comprising: at least one sidewall pivotally mounted to a support frame via at least one first pivot mount; a first power operated mechanism having a first power operated actuator to provide pivoting of the sidewall between a lowered first position and a second raised position; at least one end wall pivotally mounted to the support frame via at least one second pivot mount and extending perpendicular or transverse to the sidewall; a second power operated mechanism having a second power operated actuator to provide pivoting of the end wall between a lowered first position and a second raised position; characterised by: first and second mechanical interlock connections provided respectively at the side and end wall such that when interlocked the side and end walls are prevented from being pivoted from the raised second position to the lowered first position; wherein the first or second power operated mechanism comprises a third power operated actuator configured to provide a translational movement of the side or end wall in an upward and downward direction such that a locking and unlocking of the first and second interlock connections comprises the pivoting and the translational movement of the side or end wall. at least one sidewall pivotally mounted to a support frame via at least one first pivot mount; a first power operated mechanism having a first power operated actuator to provide pivoting of the sidewall between a lowered first position and a second raised position; at least one end wall pivotally mounted to the support frame via at least one second pivot mount and extending perpendicular or transverse to the sidewall; a second power operated mechanism having a second power operated actuator to provide pivoting of the end wall between a lowered first position and a second raised position; characterised by: first and second mechanical interlock connections provided respectively at the side and end wall such that when interlocked the side and end walls are prevented from being pivoted from the raised second position to the lowered first position; wherein the first or second power operated mechanism comprises a third power operated actuator configured to provide a translational movement of the side or end wall in an upward and downward direction such that a locking and unlocking of the first and second interlock connections comprises the pivoting and the translational movement of the side or end wall. first and second mechanical interlock connections provided respectively at the side and end wall such that when interlocked the side and end walls are prevented from being pivoted from the raised second position to the lowered first position; wherein the first or second power operated mechanism comprises a third power operated actuator configured to provide a translational movement of the side or end wall in an upward and downward direction such that a locking and unlocking of the first and second interlock connections comprises the pivoting and the translational movement of the side or end wall.
A method of generating print data for use by an additive manufacturing system to generate a plurality of three-dimensional objects within a build chamber having a build surface, the method comprising: receiving first spatial data defining a first three-dimensional object and second spatial data defining a second three-dimensional object; generating, from the first spatial data, first print data to cause the additive manufacturing system to manufacture the first three-dimensional object at least partly from a first build material by depositing and selectively solidifying at least one layer of build material comprising the first build material; generating intermediate print data to cause the additive manufacturing system to manufacture a partition formed to separate a lower part of the build chamber, containing the three-dimensional object, from an upper part of the build chamber; and generating, from the second spatial data, second print data to cause the additive manufacturing system to manufacture the second three-dimensional object at least partly from a second build material by depositing and selectively solidifying at least one layer of build material comprising the second build material in the upper part of the build chamber. receiving first spatial data defining a first three-dimensional object and second spatial data defining a second three-dimensional object; generating, from the first spatial data, first print data to cause the additive manufacturing system to manufacture the first three-dimensional object at least partly from a first build material by depositing and selectively solidifying at least one layer of build material comprising the first build material; generating intermediate print data to cause the additive manufacturing system to manufacture a partition formed to separate a lower part of the build chamber, containing the three-dimensional object, from an upper part of the build chamber; and generating, from the second spatial data, second print data to cause the additive manufacturing system to manufacture the second three-dimensional object at least partly from a second build material by depositing and selectively solidifying at least one layer of build material comprising the second build material in the upper part of the build chamber.
Bearing device for bearing a shaft, having a bearing and a supporting structure with a stool plate for supporting the bearing, with at least one sensor (24, 30, 50) which is fitted in an integrated manner into the stool plate and is arranged in the power flow area of the bearing device, with the electrical resistance of the sensor (24, 30, 50) being influenced by the contact force of the bearing, which acts on the sensor (24, 30, 50), such that the contact force of the bearing can be tapped off electrically at the sensor (24, 30, 50), characterized in that the sensor (24, 30, 50) is a piezoresistive sensor and has one or more piezoresistive thin layers (44, 60).
Method for frequency tuning a set of plates (4, 5) of a watch, the plates being disposed on top of one another with a space defined between the plates, and wherein a mechanical shock to the set of plates is generated, the vibration frequency of each plate being checked, wherein the set of plates forms a dial of the watch, with at least a first dial plate and a second plate on top of and spaced apart from the first plate, and characterised in that a vibration frequency matching operation is carried out for at least one of the plates if different from the other plate so as to obtain an identical vibration frequency for each plate in order to tune the plates at least according to the first vibration eigenmode to avoid any contact between the plates as a result of any mechanical shock.