mhurhangee/ep-ind-claims huggingface dataset:
A biological sample imaging device comprising: a liquid flow channel through which a liquid biological sample containing particles flows, the liquid flow channel having, at a predetermined position, an imaging range within which images of the particles contained in the biological sample are taken; a pump configured to cause the biological sample, which has been introduced from a container into the liquid flow channel, to flow in a forward direction from an upstream side toward a downstream side or in a direction reverse to the forward direction; and a pump controller configured to cause the pump to sequentially perform a first operation of causing the biological sample introduced into the liquid flow channel to flow in the forward direction, and a second operation of causing the biological sample to flow in the reverse direction; wherein the biological sample imaging device further comprises: an imaging unit configured to take, within the imaging range, images of the particles contained in the biological sample that remains in the liquid flow channel after the second operation, wherein the imaging unit comprises an imaging cell; wherein after a predetermined time period has passed, the particles are precipitated at a bottom of the imaging cell, and wherein the imaging unit is configured to take the images of the particles precipitated in the imaging cell. a liquid flow channel through which a liquid biological sample containing particles flows, the liquid flow channel having, at a predetermined position, an imaging range within which images of the particles contained in the biological sample are taken; a pump configured to cause the biological sample, which has been introduced from a container into the liquid flow channel, to flow in a forward direction from an upstream side toward a downstream side or in a direction reverse to the forward direction; and a pump controller configured to cause the pump to sequentially perform a first operation of causing the biological sample introduced into the liquid flow channel to flow in the forward direction, and a second operation of causing the biological sample to flow in the reverse direction; wherein the biological sample imaging device further comprises: an imaging unit configured to take, within the imaging range, images of the particles contained in the biological sample that remains in the liquid flow channel after the second operation, wherein the imaging unit comprises an imaging cell; wherein after a predetermined time period has passed, the particles are precipitated at a bottom of the imaging cell, and wherein the imaging unit is configured to take the images of the particles precipitated in the imaging cell.
Window assembly (190, 290, 390, 490, 590) for a window opening of a motor vehicle having a front-rear direction and a vertical direction, comprising: a door frame member (21, 31, 41, 51, 61) having an outer surface (25, 35, 45, 55, 65), a front pillar, and a rear pillar (31, 41, 51, 61) that is spaced apart from the front pillar along the front-rear direction; a movable window pane (140, 240, 340, 540) having a guiding section (148, 248, 348, 548), and a window section (141, 241, 341, 541) including an outer window surface (142, 242, 342, 542) and an inner window surface (143, 243, 343, 543); a window guiding profile fastened to the front pillar, and having a sealing portion (115, 117, 118, 126, 128, 130) being configured to seal or support the window pane (140, 240, 340, 540); characterised in that the window guiding profile includes a first guiding portion configured to guide the window pane (140, 240, 340, 540) only at the inner window surface (143, 243, 343, 543), or at the inner window surface (143, 243, 343, 543) and the front end face; wherein the window guiding profile further includes a second guiding portion being configured to guide the window pane (140, 240, 340, 540) at the window outer surface (142, 242, 342, 542) and at the window inner surface (143, 243,343,543). a door frame member (21, 31, 41, 51, 61) having an outer surface (25, 35, 45, 55, 65), a front pillar, and a rear pillar (31, 41, 51, 61) that is spaced apart from the front pillar along the front-rear direction; a movable window pane (140, 240, 340, 540) having a guiding section (148, 248, 348, 548), and a window section (141, 241, 341, 541) including an outer window surface (142, 242, 342, 542) and an inner window surface (143, 243, 343, 543); a window guiding profile fastened to the front pillar, and having a sealing portion (115, 117, 118, 126, 128, 130) being configured to seal or support the window pane (140, 240, 340, 540); characterised in that the window guiding profile includes a first guiding portion configured to guide the window pane (140, 240, 340, 540) only at the inner window surface (143, 243, 343, 543), or at the inner window surface (143, 243, 343, 543) and the front end face; wherein the window guiding profile further includes a second guiding portion being configured to guide the window pane (140, 240, 340, 540) at the window outer surface (142, 242, 342, 542) and at the window inner surface (143, 243,343,543).
Method for a Magnetic resonance imaging, MRI, System for correcting a motion signal characterizing a motion of an object, which is at least partially located in a target region, wherein - an electromagnetic reference signal is emitted by a reference signal generator into the target region; - two or more receiver coil signals are generated in response to the emitted reference signal by two or more receiver coils (4a, 4b, 4c), which are located in the target region; - a first motion signal characterizing a first motion of the object is determined by a computing unit depending on temporal modulations of the two or more receiver coil signals; - a first correlation coefficient of the first motion signal and a first receiver coil signal of the two or more receiver coil signals, which is generated by a first receiver coil (4a, 4b, 4c) of the two or more receiver coils (4a, 4b, 4c), is computed by the computing unit; characterised in that - a first reference correlation coefficient is determined by the computing unit depending on a location of the first receiver coil (4a, 4b, 4c) based on a predetermined first reference correlation map; whereby the first correlation map is generated according to the following step: correlating a simulated version of the first motion signal to an assumed underlying motion of the object assumed for the simulation; - the first motion signal is corrected by the computing unit depending on the first correlation coefficient and the first reference correlation coefficient, wherein, for correcting the first motion signal, a sign of the first motion signal is inverted depending on the first correlation coefficient and the first reference correlation coefficient. - an electromagnetic reference signal is emitted by a reference signal generator into the target region; - two or more receiver coil signals are generated in response to the emitted reference signal by two or more receiver coils (4a, 4b, 4c), which are located in the target region; - a first motion signal characterizing a first motion of the object is determined by a computing unit depending on temporal modulations of the two or more receiver coil signals; - a first correlation coefficient of the first motion signal and a first receiver coil signal of the two or more receiver coil signals, which is generated by a first receiver coil (4a, 4b, 4c) of the two or more receiver coils (4a, 4b, 4c), is computed by the computing unit; characterised in that - a first reference correlation coefficient is determined by the computing unit depending on a location of the first receiver coil (4a, 4b, 4c) based on a predetermined first reference correlation map; whereby the first correlation map is generated according to the following step: correlating a simulated version of the first motion signal to an assumed underlying motion of the object assumed for the simulation; - the first motion signal is corrected by the computing unit depending on the first correlation coefficient and the first reference correlation coefficient,
Agricultural machine for harvesting forage, displaceable in a direction of advance and comprising a chassis to which at least one arm (7, 8) carrying at least one work tool is articulated, this arm (7, 8) comprising at least a first part articulated directly or indirectly to the chassis and a second part (15, 17) connected in a mobile manner to the first part and carrying the work tool, the machine also comprising at least a first actuating device connected to the first part and a second actuating device connected to the second part (15, 17), at least one of these first and second actuating devices (19 and 21) being controlled to adjust a distance (d) measured transversely to the direction of advance and from which the work tool extends laterally relative to the chassis, between a minimum value and a maximum value, at least the other of these first and second actuating devices (19 and 21) being controlled to displace the work tool vertically between at least a work position and at least a raised position in which the work tool extends at a certain height (h) above the ground, the machine comprising servo-control means for positioning at least one of these first and second actuating devices (19 and 21) in accordance with a control setpoint which determines a target height of the work tool relative to the ground, characterized in that the servo-control means are configured to raise the work tool to a height (h) above the ground substantially equal to this target height, from at least two transverse work positions of the work tool located at a distance (d) from the chassis between the minimum and maximum values.
A method for making fault diagnosis of a particulate matter filter, which comprises arranging a PM sensor downstream of the particulate matter filter incorporated in an exhaust pipe, said PM sensor having a detection portion on which particulate matter is deposited to output a deposition amount of said particulate matter, setting an assumption condition for making assumption that said particulate matter filter is in a reference state having a predetermined particulate matter capturing capability, momentarily cumulating a virtual output value in said PM sensor depending on a virtual deposition amount of the particulate matter under said assumption condition, and determining said particulate matter filter to have fault when, at a timing of reaching of said virtual output value to a saturation output value of said PM sensor as a predetermined determination threshold, an output of said PM sensor is not less than said determination threshold.
An implantable RF/MRI compatible medical lead comprising: a plurality of conductors, each conductor having a length with opposing distal and proximal end portions, each conductor having at least one segment with a multi-layer stacked coil configuration comprising a first forward coiled section that extends in a forward lengthwise direction for a first forward physical length, then turns to merge into a proximately positioned reverse coiled section that extends in a substantially opposing reverse lengthwise direction for a reverse physical length, then turns to merge into a proximately positioned second forward coiled section that extends in the forward lengthwise direction for a second forward physical length, wherein at least two of the conductors are cowound to form the multi-layer stacked coil configurations; a plurality of electrodes, each electrode coupled to a different one of the plurality of conductors; and an outer layer of biocompatible material, wherein the multi-layer stacked coil configuration is covered by the outer layer. a plurality of conductors, each conductor having a length with opposing distal and proximal end portions, each conductor having at least one segment with a multi-layer stacked coil configuration comprising a first forward coiled section that extends in a forward lengthwise direction for a first forward physical length, then turns to merge into a proximately positioned reverse coiled section that extends in a substantially opposing reverse lengthwise direction for a reverse physical length, then turns to merge into a proximately positioned second forward coiled section that extends in the forward lengthwise direction for a second forward physical length, wherein at least two of the conductors are cowound to form the multi-layer stacked coil configurations; a plurality of electrodes, each electrode coupled to a different one of the plurality of conductors; and an outer layer of biocompatible material, wherein the multi-layer stacked coil configuration is covered by the outer layer.
A cutoff apparatus for cutting a plastic sleeve between adjacent spaced stacks of sheet like products positioned within the plastic sleeve, the plastic sleeve and spaced stacks of sheet like products moving longitudinally along a flow path, the cutoff apparatus comprising: a drive motor; a rotating arm operably coupled to the drive motor for rotation of the rotating arm about a rotational axis; and a first heated cutting element (170, 171) attached to the rotating arm; characterized in that the first heated cutting element (170, 171) is operably pivotally attached to the rotating arm, the first heated cutting element (170, 171) being rotationally driven relative to the rotating arm about a cutoff head axis of rotation maintaining the first heated cutting element (170, 171) at a substantially constant orientation (δ) relative to the ground as the rotating arm rotates about the rotational axis. a drive motor; a rotating arm operably coupled to the drive motor for rotation of the rotating arm about a rotational axis; and a first heated cutting element (170, 171) attached to the rotating arm;
A small watercraft for leisure use, the small watercraft being configured to obtain thrust by driving a propeller with an engine serving as a power source, the small watercraft comprising: an air intake port configured to introduce air into an engine room in an inboard section from outside; and a radar arm configured to support a radar, characterized in that the air intake port is positioned on an inner side with respect to a bottom part of the radar arm, so as to overlap with the radar arm when viewed from the outside of the radar arm and configured to open toward a bow side. an air intake port configured to introduce air into an engine room in an inboard section from outside; and a radar arm configured to support a radar, characterized in that the air intake port is positioned on an inner side with respect to a bottom part of the radar arm, so as to overlap with the radar arm when viewed from the outside of the radar arm and configured to open toward a bow side.
A packaging material for a transparent device, comprising: a primary ingredient consisting of a rare earth metal oxide, zinc oxide, aluminum oxide and silicon dioxide; and an adhesive for adhering the primary ingredient, wherein the rare earth metal oxide has a primary adsorption wavelength within a wavelength range of infrared or ultraviolet light, wherein the rare earth metal oxide is a lanthanide metal oxide. a primary ingredient consisting of a rare earth metal oxide, zinc oxide, aluminum oxide and silicon dioxide; and an adhesive for adhering the primary ingredient, wherein the rare earth metal oxide has a primary adsorption wavelength within a wavelength range of infrared or ultraviolet light, wherein the rare earth metal oxide is a lanthanide metal oxide.
A front vehicle-body structure for a vehicle, comprising: a suspension subframe including a pair of left and right side frames extending in a vehicle front-rear direction, and a cross member connecting front end portions of the side frames in a vehicle width direction; a front beam member extending in the vehicle width direction on a vehicle front side relative to the suspension subframe; and a pair of left and right connecting members connecting the front end portions of the pair of left and right side frames to the front beam member in the vehicle front-rear direction, wherein at a connecting portion between the front end portion of each of the side frames and the cross member, a high-rigidity portion having a higher rigidity than other portions of the side frame is formed the front vehicle-body structure being characterised in that the front beam member has a side end portion extending on a vehicle-width-direction outer side relative to a connecting position with each of the connecting members, and a protrusion portion protruding from the side end portion toward a vehicle rear side, the protrusion portion being configured to come into contact with the high-rigidity portion from the vehicle-width-direction outer side when a collision load from the vehicle front side is input to the side end portion. a suspension subframe including a pair of left and right side frames extending in a vehicle front-rear direction, and a cross member connecting front end portions of the side frames in a vehicle width direction; a front beam member extending in the vehicle width direction on a vehicle front side relative to the suspension subframe; and a pair of left and right connecting members connecting the front end portions of the pair of left and right side frames to the front beam member in the vehicle front-rear direction, wherein at a connecting portion between the front end portion of each of the side frames and the cross member, a high-rigidity portion having a higher rigidity than other portions of the side frame is formed the front vehicle-body structure being characterised in that the front beam member has a side end portion extending on a vehicle-width-direction outer side relative to a connecting position with each of the connecting members, and a protrusion portion protruding from the side end portion toward a vehicle rear side, the protrusion portion being configured to come into contact with the high-rigidity portion from the vehicle-width-direction outer side when a collision load from the vehicle front side is input to the side end portion.
An agricultural baler for producing rectangular bales comprising: • A pre-compression chamber, • a crop material supply means configured to supply harvested crop material to said pre-compression chamber, • a baling chamber having an inlet port and an outlet port, said baling chamber being configured to receive pre-compressed material through said inlet port from the pre-compression chamber, the baling chamber being equipped with a reciprocating plunger for forming said pre-compressed material into a rectangular shaped mass of compressed crops, and moving said mass towards said outlet port, • a tying mechanism for tying together portions of said rectangular shaped mass so as to form separate bales, • a bale-length control system, comprising a means for measuring the progress of said mass of compressed crops in the baling chamber, and a means for activating said tying mechanism when a predefined progress has been reached, so as to obtain bales of predefined and substantially equal length, • a bale-eject system, configured to move the last bales that are in the baling chamber out of the baler, when no more crop is being compressed by the plunger, characterised in that the baler comprises: • means for detecting the activation of said bale-eject system, and • means to reset said bale-length control system, when said activation is detected. • A pre-compression chamber, • a crop material supply means configured to supply harvested crop material to said pre-compression chamber, • a baling chamber having an inlet port and an outlet port, said baling chamber being configured to receive pre-compressed material through said inlet port from the pre-compression chamber, the baling chamber being equipped with a reciprocating plunger for forming said pre-compressed material into a rectangular shaped mass of compressed crops, and moving said mass towards said outlet port, • a tying mechanism for tying together portions of said rectangular shaped mass so as to form separate bales, • a bale-length control system, comprising a means for measuring the progress of said mass of compressed crops in the baling chamber, and a means for activating said tying mechanism when a predefined progress has been reached, so as to obtain bales of predefined and substantially equal length, • a bale-eject system, configured to move the last bales that are in the baling chamber out of the baler, when no more crop is being compressed by the plunger, • means for detecting the activation of said bale-eject system, and • means to reset said bale-length control system, when said activation is detected.
A method for transmitting acknowledgement/non-acknowledgements, ACK/NACK, bits, the method comprising: receiving, by a user equipment, UE, physical downlink shared channels, PDSCHs, from a first serving cell and a second serving cell; if the ACK/NACK bits for the PDSCHs are to be transmitted in a subframe, determining, by the UE, a size of the ACK/NACK payload based on a first transmission mode of the first serving cell and a second transmission mode of the second serving cell; controlling, by the UE, a transmit power for a physical uplink control channel, PUCCH, based on the size of the ACK/NACK payload and transmitting, by the UE, the PUCCH including the ACK/NACK bits of said payload in the subframe based on the transmit power, characterized by, if each of the first transmission mode and the second transmission mode is configured for supporting two transport blocks, the size of the ACK/NACK payload is determined as 4 bits regardless of the number of transport blocks received from the first serving cell and the second serving cell. receiving, by a user equipment, UE, physical downlink shared channels, PDSCHs, from a first serving cell and a second serving cell; if the ACK/NACK bits for the PDSCHs are to be transmitted in a subframe, determining, by the UE, a size of the ACK/NACK payload based on a first transmission mode of the first serving cell and a second transmission mode of the second serving cell; controlling, by the UE, a transmit power for a physical uplink control channel, PUCCH, based on the size of the ACK/NACK payload and transmitting, by the UE, the PUCCH including the ACK/NACK bits of said payload in the subframe based on the transmit power, characterized by, if each of the first transmission mode and the second transmission mode is configured for supporting two transport blocks, the size of the ACK/NACK payload is determined as 4 bits regardless of the number of transport blocks received from the first serving cell and the second serving cell.