mhurhangee/ep-ind-claims huggingface dataset:
Method for calibrating the orientation of a moving object sensor, comprising the steps of: detecting the movement of the object sensor, repeated detection of at least one static object by the moving object sensor at different positions of the object sensor, calculating the relative positions of the static object with respect to the corresponding positions of the object sensor, calculating expected positions of the static object from the relative positions assuming an orientation error of the object sensor, calculating an error parameter from the expected positions, minimizing the error parameter by adjusting the orientation error of the object sensor. detecting the movement of the object sensor, repeated detection of at least one static object by the moving object sensor at different positions of the object sensor, calculating the relative positions of the static object with respect to the corresponding positions of the object sensor, calculating expected positions of the static object from the relative positions assuming an orientation error of the object sensor, calculating an error parameter from the expected positions, minimizing the error parameter by adjusting the orientation error of the object sensor.
An information processing device comprising; an imaging section configured to capture an image; a display section configured to display a captured image of the imaging section; and a data processing section configured to receive the virtual image from a server and superimposedly display the received virtual image on the captured image displayed on the display section, wherein the data processing section is configured to estimate the position of the imaging section after predetermined time according to motion information of the information processing device, to transmit the estimated position information to the server, to receive the virtual image captured from the estimated position or the depth map and the image for virtual image generation from the server, and to display the received image or the image generated based on the received image on the display section, wherein the data processing section is configured to calculate probability of the capturing direction of the imaging section after time T + Δt considering network delay time Δt that is round trip time of a communication with the server by applying position/orientation information of the imaging section and motion information at current time T, to select an angle range based on the calculated probability of the capturing direction, and to receive, from the server, selected virtual images of multiple viewpoints included in the selected angle range or the depth map corresponding to the selected angle range and the image for virtual image generation corresponding to the selected angle range, wherein the selected virtual images are selected based on the probability that the imaging section is set to each viewpoint, and wherein a resolution of the selected virtual images is selected based on the probability of the viewpoint.
A trailer having a trailer vehicle function control system, the system comprising an electronic control unit and comprising a trailer access point microcontroller, which electronic control unit is adapted to control the height of the trailer and a CAN bus, wherein the control system further comprises communication means adapted to receive data concerning trailer height, which data is passed to the electronic control unit, wherein the electronic control unit compares the actual trailer height with the received data concerning trailer height and if the actual trailer height is different to the received data trailer height, adjusts the trailer height to the received data trailer height, wherein the system further comprises a standards compliant communications interface adapted to communicate wirelessly with an electronic device remote from the communications interface, wherein when the communications interface receives data from the device concerning trailer height, the electronic control unit adjusts the trailer height en route to the received data trailer height, wherein the electronic control unit is a trailer electronic brake control unit, which electronic brake control unit can receive telematics and/or GPS data via CAN bus, the trailer access point microcontroller comprising the interface to the on-board electronic systems and the trailer electronic braking system and an interface for sending and receiving data in a wireless format.
A method of predicting the likelihood of response of a human breast cancer patient diagnosed with a HER2 expressing tumor of the breast to treatment with a HER2 inhibitor, comprising determining, in a tumor sample obtained from said subject, the expression level of RNA transcripts or their expression products of the PTPN11 gene, wherein a lower level of expression relative to the expression level of a gene present in the same cell, which is known to be down-regulated in patients showing resistance to HER2 inhibitor treatment or a lower level of expression relative to the expression level of the PTPN11 gene in a normal cell of the same cell type indicates that the subject is likely to be resistant to treatment with the HER2 inhibitor.
A hot-rolled austenitic manganese steel strip having a chemical composition in percent by weight of 0.4 % ≤ C ≤ 1.2 % 12.0 % ≤ Mn ≤ 25.0 % P ≥ 0.03 % Si ≤ 2 % Al ≤ 0,05%, V ≤ 0,5%, Nb ≤ 0,5%, Ti ≤ 0,5%, Cr ≤ 10%, Ni ≤ 10%, W ≤ 1%, Mo ≤ 1%, Cu ≤ 3%, B ≤ 0,02%, N ≤ 0,04%, the rest iron and impurities due to production, and having a mean grain size above 13 μm, wherein a product of elongation at break in % and tensile strength in MPa of above 65,000, in particular above 70,000 MPa% is obtained.
Climbing aid for attachment to the limbs of a user, the climbing aid including a front guard, wherein the front guard includes a front surface (301; 401; 501; 601), and a plurality of teeth (116; 603) protruding from the front surface for assisting a user in climbing over an obstacle, wherein the teeth include at least one engagement surface (114; 307; 407; 507), characterised in that the front guard includes a weight bearing foot strap (109; 607) connected to a lower portion of the front guard positioned near a user's foot when in use for bearing the weight of the user and arranged such that the at least one engagement surface (114; 307; 407; 507) at least partially engages with a surface of the obstacle when pressure is applied to the foot strap (109; 607).
An apparatus for transporting a work piece to a milling region of a milling machine, the apparatus comprising: a subset of guide members constituting a staging region; a loader member (354, 754) configured to impart a loading force, responsive to a load signal, to transition the work piece from the staging region; an effector (352, 752) coupled to the loader member; and an alignment device (391a, 391b) configured to align the subset of guide members and the effector to form a portion of the path in a first mode, characterised in that: the loader member imparts the force unto the work piece at the staging region, and the effector comprises: a path cleaner configured to apply a cleaning force to contacting surfaces (462, 464) of one or more other guide members (424a, 424b; 524a, 524b) disposed on a path that the work piece traverses from the staging region to the milling region in a first interval of time, where the effector is configured further to engage a portion of the work piece to transfer the loading force from the loader member to the work piece in a second interval of time. a subset of guide members constituting a staging region; a loader member (354, 754) configured to impart a loading force, responsive to a load signal, to transition the work piece from the staging region; an effector (352, 752) coupled to the loader member; and an alignment device (391a, 391b) configured to align the subset of guide members and the effector to form a portion of the path in a first mode, characterised in that: the loader member imparts the force unto the work piece at the staging region, and the effector comprises: a path cleaner configured to apply a cleaning force to contacting surfaces (462, 464) of one or more other guide members (424a, 424b; 524a, 524b) disposed on a path that the work piece traverses from the staging region to the milling region in a first interval of time, where the effector is configured further to engage a portion of the work piece to transfer the loading force from the loader member to the work piece in a second interval of time. the loader member imparts the force unto the work piece at the staging region, and the effector comprises: a path cleaner configured to apply a cleaning force to contacting surfaces (462, 464) of one or more other guide members (424a, 424b; 524a, 524b) disposed on a path that the work piece traverses from the staging region to the milling region in a first interval of time, where the effector is configured further to engage a portion of the work piece to transfer the loading force from the loader member to the work piece in a second interval of time. a path cleaner configured to apply a cleaning force to contacting surfaces (462, 464) of one or more other guide members (424a, 424b; 524a, 524b) disposed on a path that the work piece traverses from the staging region to the milling region in a first interval of time, where the effector is configured further to engage a portion of the work piece to transfer the loading force from the loader member to the work piece in a second interval of time.
A method using beamforming in a wireless communication system, the communication method comprising: generating uplink data to be transmitted from a Mobile Station, MS, to a Base Station, BS; and transmitting a scheduling request signal requesting uplink resource allocation, wherein the scheduling request signal is transmitted in at least one channel region corresponding to at least one MS transmission beam and at least one BS reception beam, and wherein the at least one channel region is selected from in an uplink resource area allocated to a scheduling request channel. generating uplink data to be transmitted from a Mobile Station, MS, to a Base Station, BS; and transmitting a scheduling request signal requesting uplink resource allocation, wherein the scheduling request signal is transmitted in at least one channel region corresponding to at least one MS transmission beam and at least one BS reception beam, and wherein the at least one channel region is selected from in an uplink resource area allocated to a scheduling request channel.
A vibration suppression structure of a front-end module in which a plurality of in-vehicle parts incorporated in a vehicle front section are aggregated and assembled to a heat exchanger support frame, characterized in that the plurality of in-vehicle parts are classified into a first in-vehicle (12,40,42) part that vibrates at a frequency in a first frequency band and a second in-vehicle part that vibrates at a frequency in a second frequency band having a frequency range higher than the frequency range in the first frequency band, the first in-vehicle part (12,40,42) is elastically supported by the heat exchanger support frame interposed by a first mount member, the second in-vehicle part is rigidly fixed to the heat exchanger support frame, any the heat exchanger support frame is elastically supported by a vehicle body (55, 56) interposed by a second mount member.
A computer-implemented method for controlling two or more power supply units (PSUs) of a server system, each PSU comprising an internal fan, and the server system comprises a system fan, wherein the computer-implemented method comprising: monitoring the PSUs by a baseboard management controller and detecting a failure of a PSU, said detecting being performed by checking whether the PSUs are switched on to an AC power source; if the PSUs are switched on to the AC power source, then a predefined criterion is checked to determine if the PSUs are in an uncoupled state and at least one of the following is true: a failure of at least one fan in the server system and/or a temperature in the server system is greater than a threshold operational temperature; if the PSUs are not switched on to the AC power source, restarting the AC power source for the two or more PSUs and performing a software-based recovery process which is comprised of: reducing duty of at least one system fan to a predetermined percentage for a predetermined period of time; and setting a checkpoint period where the two or more PSUs cannot send a failure alert. monitoring the PSUs by a baseboard management controller and detecting a failure of a PSU, said detecting being performed by checking whether the PSUs are switched on to an AC power source; if the PSUs are switched on to the AC power source, then a predefined criterion is checked to determine if the PSUs are in an uncoupled state and at least one of the following is true: a failure of at least one fan in the server system and/or a temperature in the server system is greater than a threshold operational temperature; if the PSUs are not switched on to the AC power source, restarting the AC power source for the two or more PSUs and performing a software-based recovery process which is comprised of: reducing duty of at least one system fan to a predetermined percentage for a predetermined period of time; and setting a checkpoint period where the two or more PSUs cannot send a failure alert. reducing duty of at least one system fan to a predetermined percentage for a predetermined period of time; and setting a checkpoint period where the two or more PSUs cannot send a failure alert.
Automatic obstruction device (21, 121, 221) for closing a filling circuit for filling one or more tank(s) with a fluid, in a manner at least partially sealed to the fluid, so as to prevent the filling of the one or more tank(s) when a predetermined event occurs, the automatic obstruction device (21, 121, 221) comprising: - at least one movable element (44, 144, 244), capable of being moved between a non-obstruction position of the filling circuit, in which the at least one movable element (44, 144, 244) is able to be positioned so as to offer a resistance to the fluid compatible with the filling of the tank, and an obstruction position of the filling circuit, in which the at least one movable element (44, 144, 244) is able to be positioned so as to offer a resistance to the fluid that is incompatible with the filling of the tank, - at least one holding element (52, 144, 244) of the at least one movable element (44, 144, 244), capable - of holding the at least one movable element (44, 144, 244) in the non-obstruction position, and - of being deformed or moved so as to allow the movement of the at least one movable element (44, 144, 244) toward the obstruction position, characterized In that the automatic obstruction device (21, 121, 221) further comprises: - at least a first means (54, 154, 254) of non-reversible movement or of non-reversible modification of the at least one holding element (52, 144, 244) so as to allow the movement of the at least one movable element (44, 144, 244) only toward the obstruction position, the at least one first means (54, 154, 254) of non-reversible movement or non-reversible modification being controllable by a control device. - at least one movable element (44, 144, 244), capable of being moved between a non-obstruction position of the filling circuit, in which the at least one movable element (44, 144, 244) is able to be positioned so as to offer a resistance to the fluid compatible with the filling of the tank, and an obstruction position of the filling circuit, in which the at least one movable element (44, 144, 244) is able to be positioned so as to offer a resistance to the fluid that is incompatible with the filling of the tank, - at least one holding element (52, 144, 244) of the at least one movable element (44, 144, 244), capable - of holding the at least one movable element (44, 144, 244) in the non-obstruction position, and - of being deformed or moved so as to allow the movement of the at least one movable element (44, 144, 244) toward the obstruction position, - of holding the at least one movable element (44, 144, 244) in the non-obstruction position, and - of being deformed or moved so as to allow the movement of the at least one movable element (44, 144, 244) toward the obstruction position, - at least a first means (54, 154, 254) of non-reversible movement or of non-reversible modification of the at least one holding element (52, 144, 244) so as to allow the movement of the at least one movable element (44, 144, 244) only toward the obstruction position,
An underwater vehicle, comprising: - an on board power grid, the power grid comprising powerlines (2, 3, 4), - a plurality of DC energy storage sources (5, 6, 7) based on lithium-ion batteries, each source (5, 6, 7) having a positive terminal and a negative terminal, and being connected on the one hand to charging means and on the other hand to energy consumers of the vehicle, one of the terminals of each source (5, 6, 7) being connected to a first powerline of the power grid, the other terminal of each source being connected on the one hand by a second powerline of the power grid to the charging means through first one-way semiconductor conducting means, said first one-way semiconductor conducting means being mounted in the forward direction defined from the second powerline to the other terminal of each source (5, 6, 7), characterized in that the other terminal of each source is connected on the other hand by a third powerline of the electric grid to consumers through second one-way semiconductor conducting means, and in that said second one-way semiconductor conducting means are mounted in the forward direction defined from the other terminal of each source (5, 6, 7) to the third powerline. - an on board power grid, the power grid comprising powerlines (2, 3, 4), - a plurality of DC energy storage sources (5, 6, 7) based on lithium-ion batteries, each source (5, 6, 7) having a positive terminal and a negative terminal, and being connected on the one hand to charging means and on the other hand to energy consumers of the vehicle, one of the terminals of each source (5, 6, 7) being connected to a first powerline of the power grid, the other terminal of each source being connected on the one hand by a second powerline of the power grid to the charging means through first one-way semiconductor conducting means, said first one-way semiconductor conducting means being mounted in the forward direction defined from the second powerline to the other terminal of each source (5, 6, 7), characterized in that the other terminal of each source is connected on the other hand by a third powerline of the electric grid to consumers through second one-way semiconductor conducting means, and in that said second one-way semiconductor conducting means are mounted in the forward direction defined from the other terminal of each source (5, 6, 7) to the third powerline.
A variable stator vane comprising: an airfoil disposed between spaced apart inner and outer buttons (218, 220) centered about a rotational axis, the inner and outer buttons (218, 220) each having a button forward edge portion and the airfoil including leading and trailing edges (222, 224), pressure and suction sides (223, 225), and a root and a tip; and wherein: the leading edge includes a local forward sweep at the root and a local aft sweep at the tip, thereby forming a locally swept leading edge, respectively, thereat; the button forward edge portion of the inner button is vertically aligned with the locally swept leading edge at the root and substantially covers the leading edge of the airfoil at the root; and the button forward edge portion of the outer button is vertically aligned with the locally swept leading edge at the tip and substantially covers the leading edge of the airfoil at the tip. an airfoil disposed between spaced apart inner and outer buttons (218, 220) centered about a rotational axis, the inner and outer buttons (218, 220) each having a button forward edge portion and the airfoil including leading and trailing edges (222, 224), pressure and suction sides (223, 225), and a root and a tip; and wherein: the leading edge includes a local forward sweep at the root and a local aft sweep at the tip, thereby forming a locally swept leading edge, respectively, thereat; the button forward edge portion of the inner button is vertically aligned with the locally swept leading edge at the root and substantially covers the leading edge of the airfoil at the root; and the button forward edge portion of the outer button is vertically aligned with the locally swept leading edge at the tip and substantially covers the leading edge of the airfoil at the tip. the leading edge includes a local forward sweep at the root and a local aft sweep at the tip, thereby forming a locally swept leading edge, respectively, thereat; the button forward edge portion of the inner button is vertically aligned with the locally swept leading edge at the root and substantially covers the leading edge of the airfoil at the root; and the button forward edge portion of the outer button is vertically aligned with the locally swept leading edge at the tip and substantially covers the leading edge of the airfoil at the tip.
A device for massaging muscles in the oral cavity comprising a body with drive means and a power unit, and an extending element detachably coupled to the body, wherein the device comprises two massage units, arranged on the end portion of the extending element, wherein the massage units are arranged on opposite sides of said end portion, and comprise essentially rounded shapes in a cross-sectional plane seen in a direction along the rotational axis, wherein the massage units operate with a rotating movement, which rotates about a rotational axis essentially perpendicular to the end portion, wherein the rotating movement of massage units is an alternating rotation, alternating between a clockwise and an anti-clockwise rotational angular displacement, and wherein the two massage units operate at different frequencies. wherein the device comprises two massage units, arranged on the end portion of the extending element, wherein the massage units are arranged on opposite sides of said end portion, and comprise essentially rounded shapes in a cross-sectional plane seen in a direction along the rotational axis, wherein the massage units operate with a rotating movement, which rotates about a rotational axis essentially perpendicular to the end portion, wherein the rotating movement of massage units is an alternating rotation, alternating between a clockwise and an anti-clockwise rotational angular displacement, and wherein the two massage units operate at different frequencies.