mhurhangee/ep-ind-claims huggingface dataset:
A cutting apparatus for cutting food objects while the food objects are conveyed from an inlet conveyor to an outlet conveyor, the cutting apparatus comprising • a cutting device for cutting the food objects, characterized by that the cutting includes cutting trim portions (211, 218) from the remaining part of the food objects, the cutting apparatus further comprises: • a moving mechanism operable connected to the outlet conveyor for providing movement of the inlet end of the outlet conveyor from an adjacent position, where the inlet end of the outlet conveyor is adjacent to the outlet end of the inlet conveyor, to an open position where the inlet end of the outlet conveyor is moved away from the outlet end of the inlet conveyor, and vice versa, from an open position back to the adjacent position, • a control unit for controlling the moving mechanism, the controlling including instructing the moving mechanism to move the inlet end of the outlet conveyor to an open position when separating the cut trim portions (211, 218) from the remaining part of the food objects such that the cut trim portions fall down between the inlet end of the outlet conveyor and the outlet end of the inlet conveyor, and subsequently instructing the moving mechanism to move the inlet end of the outlet conveyor back to the adjacent position at a speed such that the inlet end of the outlet conveyor reaches the adjacent position before the next cutting such that it provides a support for the remaining part of the food object, and wherein the cutting device is positioned such that the cutting plane of the cutting device intersects an intermediate space formed between the outlet end of the inlet conveyor and the inlet end of the outlet conveyor when being in the adjacent position. • a cutting device for cutting the food objects, • a moving mechanism operable connected to the outlet conveyor for providing movement of the inlet end of the outlet conveyor from an adjacent position, where the inlet end of the outlet conveyor is adjacent to the outlet end of the inlet conveyor, to an open position where the inlet end of the outlet conveyor is moved away from the outlet end of the inlet conveyor, and vice versa, from an open position back to the adjacent position, • a control unit for controlling the moving mechanism, the controlling including instructing the moving mechanism to move the inlet end of the outlet conveyor to an open position when separating the cut trim portions (211, 218) from the remaining part of the food objects such that the cut trim portions fall down between the inlet end of the outlet conveyor and the outlet end of the inlet conveyor, and subsequently instructing the moving mechanism to move the inlet end of the outlet conveyor back to the adjacent position at a speed such that the inlet end of the outlet conveyor reaches the adjacent position before the next cutting such that it provides a support for the remaining part of the food object,
A robot cleaner comprising: a main body comprising a drive unit for providing a suction force; a main cover for shielding a side of the main body; a foreign material storage unit separably disposed on the main cover, the foreign material storage unit having an air inlet for introducing air containing foreign materials; a foreign material cover disposed on the main cover, the foreign material cover selectively shielding a side of the foreign material storage unit; and characterised by a shield member disposed on the foreign material storage unit, the shield member selectively shielding the air inlet; and a detection unit for detecting whether the shield member is operated is disposed on the main cover or main body. a main body comprising a drive unit for providing a suction force; a main cover for shielding a side of the main body; a foreign material storage unit separably disposed on the main cover, the foreign material storage unit having an air inlet for introducing air containing foreign materials; a foreign material cover disposed on the main cover, the foreign material cover selectively shielding a side of the foreign material storage unit; and characterised by a shield member disposed on the foreign material storage unit, the shield member selectively shielding the air inlet; and a detection unit for detecting whether the shield member is operated is disposed on the main cover or main body.
A container for holding product therein during shipment, the container comprising: a base and two opposed sides; at least one track (60, 72) supported by each side of the container, at least one of the tracks (60, 72) on each side being non-linear; a plurality of movable dunnage supports (70a - 70k, 71a - 71k) extending between opposed tracks (60, 72), each of the dunnage supports (70a - 70k, 71a - 71k) comprising a pair of end members movable along corresponding tracks (60, 72) and a middle member extending between the end members; a shelf assembly comprising at least one movable component; and dunnage pouches supported by the dunnage supports (70a - 70k, 71a - 71k), characterized in that each side of the container has two tracks (60, 72), a generally U-shaped track and a generally L-shaped track, wherein the generally U-shaped track is above the generally L-shaped track. a base and two opposed sides; at least one track (60, 72) supported by each side of the container, at least one of the tracks (60, 72) on each side being non-linear; a plurality of movable dunnage supports (70a - 70k, 71a - 71k) extending between opposed tracks (60, 72), each of the dunnage supports (70a - 70k, 71a - 71k) comprising a pair of end members movable along corresponding tracks (60, 72) and a middle member extending between the end members; a shelf assembly comprising at least one movable component; and dunnage pouches supported by the dunnage supports (70a - 70k, 71a - 71k), characterized in that each side of the container has two tracks (60, 72), a generally U-shaped track and a generally L-shaped track, wherein the generally U-shaped track is above the generally L-shaped track.
Surround-view system for a vehicle, having: a first camera for recording a first image of the vehicle environment having a marking area with an asymmetric region for which there is no axis along which the region is mirror-symmetrical and/or for which there is no point with respect to which the region is point-symmetrical; a second camera for recording a second image of the vehicle environment having the marking area; a control device for stitching the first and second image and for calibrating the surround-view system; wherein the control device is configured to search for the marking area in each case in the first image and the second image for calibration purposes; wherein the control device is configured to use only those marking areas found in the first and second image for calibrating the surround-view system whose asymmetric regions are not reflected as compared to the marking area of the vehicle environment and wherein the control device is configured to search in the first image and the second image in each case for a marking area with four marking symbols (301, 302, 303, 304) arranged in a square and the asymmetric region arranged at the centre of the four marking symbols and to use it for calibration purposes. a first camera for recording a first image of the vehicle environment having a marking area with an asymmetric region for which there is no axis along which the region is mirror-symmetrical and/or for which there is no point with respect to which the region is point-symmetrical; a second camera for recording a second image of the vehicle environment having the marking area; a control device for stitching the first and second image and for calibrating the surround-view system; wherein the control device is configured to search for the marking area in each case in the first image and the second image for calibration purposes; wherein the control device is configured to use only those marking areas found in the first and second image for calibrating the surround-view system whose asymmetric regions are not reflected as compared to the marking area of the vehicle environment and wherein the control device is configured to search in the first image and the second image in each case for a marking area with four marking symbols (301, 302, 303, 304) arranged in a square and the asymmetric region arranged at the centre of the four marking symbols and to use it for calibration purposes.
A tab structured to be affixed to a can end, the tab comprising: a body including a first end and second end disposed opposite and distal from the first end; a nose portion disposed at or about the first end of the body of the tab; a lift portion disposed at or about the second end of the body of the tab; and a rivet receiving portion disposed proximate the nose portion, the rivet receiving portion comprising a rivet hole having a perimeter, the tab being characterised in that said rivet receiving portion further comprises a generally planar portion having a first surface and an oppositely disposed second surface, and an upturned portion extending upwardly from the generally planar portion about the perimeter of the rivet hole, wherein the upturned portion has an arcuate cross section profile extending from said first surface to said second surface and which is smooth, rounded, and devoid of any corners or edges. a body including a first end and second end disposed opposite and distal from the first end; a nose portion disposed at or about the first end of the body of the tab; a lift portion disposed at or about the second end of the body of the tab; and a rivet receiving portion disposed proximate the nose portion, the rivet receiving portion comprising a rivet hole having a perimeter, the tab being characterised in that said rivet receiving portion further comprises a generally planar portion having a first surface and an oppositely disposed second surface, and an upturned portion extending upwardly from the generally planar portion about the perimeter of the rivet hole, wherein the upturned portion has an arcuate cross section profile extending from said first surface to said second surface and which is smooth, rounded, and devoid of any corners or edges.
An integrated circuit system, comprising: an active layer fabricated on a front side of a semiconductor die; an electrical component layer disposed on a back side of the semiconductor die, the electrical component layer including one or more passive components (3550.1, 3550.2); wherein the semiconductor die comprises a thru silicon via, TSV, formed therein, the TSV configured to electrically connect the active layer and the electrical component layer; and a measurement layer disposed on the backside of the semiconductor die and having channels formed therein, the measurement layer configured to analyze a fluid being passed through the channels; wherein the measurement layer includes a conducting via formed therein, the conducting via configured to electrically connect the measuring layer with the other layers of the system. an active layer fabricated on a front side of a semiconductor die; an electrical component layer disposed on a back side of the semiconductor die, the electrical component layer including one or more passive components (3550.1, 3550.2); wherein the semiconductor die comprises a thru silicon via, TSV, formed therein, the TSV configured to electrically connect the active layer and the electrical component layer; and a measurement layer disposed on the backside of the semiconductor die and having channels formed therein, the measurement layer configured to analyze a fluid being passed through the channels; wherein the measurement layer includes a conducting via formed therein, the conducting via configured to electrically connect the measuring layer with the other layers of the system.
Method for allocating negative pressure, which is provided by a vacuum system of a textile machine, to workstations of the textile machine that demand negative pressure, wherein negative pressure demands whose allocation would presumably cause a maximum capacity of the vacuum system to be exceeded are put into a queue, and wherein negative pressure demands waiting in the queue are not allocated until it is no longer to be expected that the allocation of said negative pressure demands would cause the maximum capacity of the vacuum system to be exceeded, characterised in that - the negative pressure demands contain information about the planned course of the negative pressure requirement of the negative pressure demands, and - the evaluation of whether the allocation of a negative pressure demand would presumably cause the maximum capacity of the vacuum system to be exceeded takes into account the planned course of the negative pressure requirement of said negative pressure demand and the negative pressure demands already allocated at the time of the evaluation. - the negative pressure demands contain information about the planned course of the negative pressure requirement of the negative pressure demands, and - the evaluation of whether the allocation of a negative pressure demand would presumably cause the maximum capacity of the vacuum system to be exceeded takes into account the planned course of the negative pressure requirement of said negative pressure demand and the negative pressure demands already allocated at the time of the evaluation.
An isolation and treatment enclosure system for a patient, wherein the system comprises: a bed module configured to support the patient; a spool disposed at a first end of the bed module; and a flexible, continuous tubular enclosure disposed on the spool, wherein the enclosure is configured to be extended from the spool along a length of the bed module and surrounding the bed module so as to create a tube in which the patient and the bed module are enclosed, characterized in that the system further comprises a hoop (116, 216) disposed at a second end of the bed module that is opposite the first end, the hoop (116, 216) being configured to support the tube, wherein the hoop is configured such that the tube can be extended around a periphery of the hoop so as to form a hoop end seal or wherein the hoop is configured such that the tube can be extended through the hoop so as to form a hoop end seal, the hoop end seal being adjacent the hoop (116, 216) and comprising an air- and fluid-tight seal. a bed module configured to support the patient; a spool disposed at a first end of the bed module; and a flexible, continuous tubular enclosure disposed on the spool, wherein the enclosure is configured to be extended from the spool along a length of the bed module and surrounding the bed module so as to create a tube in which the patient and the bed module are enclosed, characterized in that the system further comprises a hoop (116, 216) disposed at a second end of the bed module that is opposite the first end, the hoop (116, 216) being configured to support the tube, wherein the hoop is configured such that the tube can be extended around a periphery of the hoop so as to form a hoop end seal or wherein the hoop is configured such that the tube can be extended through the hoop so as to form a hoop end seal, the hoop end seal being adjacent the hoop (116, 216) and comprising an air- and fluid-tight seal.
A method in a first communication node in a wireless communications network comprising a plurality of second communication nodes for enabling a central processing of local information from second communication nodes in the wireless communications network, the method comprising the steps of: - establishing an internode connection in a radio access network of the wireless communications network to a second communication node, wherein the first communication node sends information of a virtual cell of the first communication node, - requesting local information from the second communication node, - receiving local information from the second communication node, and - processing the local information into processed data to be used to centrally process local information of the second communication node. - establishing an internode connection in a radio access network of the wireless communications network to a second communication node, wherein the first communication node sends information of a virtual cell of the first communication node, - requesting local information from the second communication node, - receiving local information from the second communication node, and - processing the local information into processed data to be used to centrally process local information of the second communication node.
Agricultural haymaking machine, specifically a tedder, comprising a chassis resting on the ground by means of at least one wheel, the machine being coupled to a tractor able to move it in a direction of advance, the machine comprising a carrier bearing a plurality of rotors, the carrier being swivel mounted with regard to the chassis around a central pin oriented transversally to the direction of advance, each rotor being driven around a respective drive axis, the machine comprising a lift actuator articulated to the chassis on one hand and to the carrier on another hand and being able to make the carrier pivot in relation to the chassis around the central pin, the machine being able to adopt a headland configuration in which the carrier is raised, as well as a work configuration in which the carrier rests on the ground by means of a support, machine wherein the central pin is rigidly attached to the carrier, and the machine comprises a positioning actuator machine characterized in that the positioning actuator makes it possible to move the central pin relative to the chassis to change the position of the drive axes.
Method for evaluating results of an eye tracking, these results being present or obtained as information which defines, for each of a large number of successive moments, respectively a gaze direction of a test subject detected at this moment by means of an eye tracker and a visual point thus determined by the eye tracker in a scene image recorded at this moment by a camera worn by a head of the test subject, the scene images being time-dependent so that the scene images recorded at the different moments are different and the method comprising the following steps: - evaluating a temporal change in the gaze direction and/or in the visual point and/or in an eye movement for identifying different visual events, at least two different types of visual events being recognised and the identified visual events being classified according to their type, - dividing a period of time comprising the moments into intervals such that an interval, which corresponds to a duration of the respective visual event, is assigned to each of the identified visual events, - selecting respectively precisely one of the moments or a proper subset of the moments from each of the intervals (I 1 - I 6), which are assigned to a visual event of at least one selected type of visual event, - and, for each of these selected moments, imaging the visual point identified in the scene image recorded at the respective moment onto a position corresponding to this visual point in a reference image recorded by a further camera. - evaluating a temporal change in the gaze direction and/or in the visual point and/or in an eye movement for identifying different visual events, at least two different types of visual events being recognised and the identified visual events being classified according to their type, - dividing a period of time comprising the moments into intervals such that an interval, which corresponds to a duration of the respective visual event, is assigned to each of the identified visual events, - selecting respectively precisely one of the moments or a proper subset of the moments from each of the intervals (I 1 - I 6), which are assigned to a visual event of at least one selected type of visual event, - and, for each of these selected moments, imaging the visual point identified in the scene image recorded at the respective moment onto a position corresponding to this visual point in a reference image recorded by a further camera.
A method for controlling a compressor plant comprising a plurality of compressors, wherein a predefined excess pressure is to be maintained by the compressor plant in a pressurized fluid system despite a possibly fluctuating withdrawal of pressurized fluid from the pressurized fluid system, wherein decisions are met at fixed or variable time intervals as to switching operations for adapting the system to current conditions, wherein - in a pre-selecting step, switching alternatives are excluded from a multiplicity of combinatorially available switching alternatives, while taking into account the current conditions, - in a main selection step, remaining switching alternatives are weighed against one another under consideration of one or more optimization criteria, and the optimal switching alternative under the predetermined criteria is selected, and - in a control step, the selected switching alternative is output for implementation in the compressor plant. - in a pre-selecting step, switching alternatives are excluded from a multiplicity of combinatorially available switching alternatives, while taking into account the current conditions, - in a main selection step, remaining switching alternatives are weighed against one another under consideration of one or more optimization criteria, and the optimal switching alternative under the predetermined criteria is selected, and - in a control step, the selected switching alternative is output for implementation in the compressor plant.
A method of forming a protective coating on a chromium alloy interconnect for an electrochemical device stack, comprising: using a wet coating process to deposit a powder on the chromium alloy interconnect, the powder comprising perovskite metal oxide powder; and laser sintering the powder to form the protective coating on the chromium alloy interconnect. using a wet coating process to deposit a powder on the chromium alloy interconnect, the powder comprising perovskite metal oxide powder; and laser sintering the powder to form the protective coating on the chromium alloy interconnect.
A wireless local area network, LAN, connection method, the method comprising the steps of: transmitting connection information composed of identifier information, encryption type information, and encryption information for connection to a wireless LAN access point disposed in a given area from a position information transmission apparatus capable of transmitting position information corresponding to a given position using a wireless communication protocol other than a wireless LAN protocol; receiving the connection information for connection to the wireless LAN access point by a connection apparatus; and connecting the connection apparatus to the wireless LAN access point using the received connection information. transmitting connection information composed of identifier information, encryption type information, and encryption information for connection to a wireless LAN access point disposed in a given area from a position information transmission apparatus capable of transmitting position information corresponding to a given position using a wireless communication protocol other than a wireless LAN protocol; receiving the connection information for connection to the wireless LAN access point by a connection apparatus; and connecting the connection apparatus to the wireless LAN access point using the received connection information.