mhurhangee/ep-ind-claims huggingface dataset:
A method of detecting events in a sequence of video frames received from a static surveillance camera, the method comprising: - deriving for each frame a plurality of parameters, said parameters including (a) at least one parameter that is a function of the difference between picture elements of that frame and correspondingly positioned picture elements of a reference frame; and (b) at least one parameter that is a function of the difference between picture elements of that frame and correspondingly positioned picture elements of a preceding frame; and (c) at least one parameter that is a function of the difference between estimated velocities of picture elements of that frame and the estimated velocities of the correspondingly positioned elements of the preceding frame; based on said parameters, assigning to each frame one or more of a plurality of predetermined classifications, each classification relating to a type of scene activity represented in the frame; and identifying frames at which changes occur in said classification assignment so as to determine a significant event. - deriving for each frame a plurality of parameters, said parameters including (a) at least one parameter that is a function of the difference between picture elements of that frame and correspondingly positioned picture elements of a reference frame; and (b) at least one parameter that is a function of the difference between picture elements of that frame and correspondingly positioned picture elements of a preceding frame; and (c) at least one parameter that is a function of the difference between estimated velocities of picture elements of that frame and the estimated velocities of the correspondingly positioned elements of the preceding frame; based on said parameters, assigning to each frame one or more of a plurality of predetermined classifications, each classification relating to a type of scene activity represented in the frame; and identifying frames at which changes occur in said classification assignment so as to determine a significant event. (a) at least one parameter that is a function of the difference between picture elements of that frame and correspondingly positioned picture elements of a reference frame; and (b) at least one parameter that is a function of the difference between picture elements of that frame and correspondingly positioned picture elements of a preceding frame; and (c) at least one parameter that is a function of the difference between estimated velocities of picture elements of that frame and the estimated velocities of the correspondingly positioned elements of the preceding frame;
Device for automatically stacking packed items on a support in a predetermined physical arrangement to form a stack, having: - at least one feeding conveyor which provides the singularised packed items in a predetermined sequence; - a lifting and lowering unit for lifting and lowering a support (P, 8), which is disposed in a stacking location, in the Y-direction; - displacement means which adjoin an output end of the feeding conveyor and receive packed items from the feeding conveyor and transport them to the predetermined position in the stack; wherein the displacement means comprise: - a positioning conveyor which adjoins the output end of the feeding conveyor and is disposed horizontally and along a side of the stacking location in order to position the packed items in the X-direction, - at least one pushing plate and a pusher in order to transport the packed items from the positioning conveyor in the Z-direction to the predetermined position in the stack, wherein the at least one pushing plate is formed as a flat, strip-like plate which is movable horizontally and along the side of the stacking location and transversely thereto in order to receive the packed items from the positioning conveyor at the X-direction position when the packed items are being pushed off by the pusher and to place them on the support (P, 8, 45) or in the stack in the Z-direction, wherein an intermediate plate is disposed at the level of the positioning conveyor above the carrier, which is to be loaded, in the stacking location, which intermediate plate is moveable approximately horizontally in the X-direction between a stacking position and a release position, characterised in that a further separate and optionally height-adjustable intermediate plate is provided and the further intermediate plate is movable in the Z-direction between a stacking position and a release position. - at least one feeding conveyor which provides the singularised packed items in a predetermined sequence; - a lifting and lowering unit for lifting and lowering a support (P, 8), which is disposed in a stacking location, in the Y-direction; - displacement means which adjoin an output end of the feeding conveyor and receive packed items from the feeding conveyor and transport them to the predetermined position in the stack; - a positioning conveyor which adjoins the output end of the feeding conveyor and is disposed horizontally and along a side of the stacking location in order to position the packed items in the X-direction, - at least one pushing plate and a pusher in order to transport the packed items from the positioning conveyor in the Z-direction to the predetermined position in the stack,
A confectionery composition, the composition comprising from 40wt% to 75wt% of a carbohydrate system and from 0.2wt% to 45wt% of a fortifying component, the carbohydrate system comprising a non-digestible soluble oligosaccharide, a non-digestible soluble polysaccharide or a combination thereof, characterised in that that the ratio of reducing to non-reducing sugars is between 1:1.1 and 1:20 and the carbohydrate system comprises from 5wt% to 100wt% of non-digestible soluble oligosaccharide, non-digestible soluble polysaccharide, or combination thereof and from 0wt% to 50wt% of a monosaccharide, a disaccharide, or a combination thereof.
A blow molding device comprising: an injection molding unit manufacturing a bottomed preform made of resin; a blow molding unit; a support part supporting the preform; and a conveying unit conveying the support part to the blow molding unit, wherein the blow molding unit includes: a first mold for performing a first step of subjecting the preform to heat-set blowing at a first temperature; the blow molding unit being characterized in that it further includes a second mold for performing a second step of blow-molding an intermediate molded article, which has been blow-molded by the heat-set blowing, at a second temperature lower than the first temperature, thereby manufacturing a container; and a movement unit capable of moving the first mold and the second mold relative to the support part so as to perform the first step and the second step continuously.
Press to generate a pressing force for machining a work piece with: - a press bed, - a press frame, - a ram, and - at least one drive designed as a linear electric motor to drive the ram, where the at least one linear electric motor has several magnetic poles (70, 72, 74, 76, 78, 80) in an offset arrangement to one another as well as a drive axle with magnets that can be displaced in linear direction by means of these poles (70, 72, 74, 76, 78, 80), where the magnetic poles (70, 72, 74, 76, 78, 80) of at least one linear electric motor are formed by coils (84, 86, 88) extending around an axis and having an offset arrangement to one another in relation to this axis, and that the drive axle, which can be displaced in linear direction, extends in the direction of this axis and can be displaced in linear direction towards this axis by means of the coils (84, 86, 88), where the press has a press head above the press bed, where a working area for machining work pieces is formed between the press bed and the press head, and where several linear electric motors are provided to drive the ram, characterized in that all of these linear electric motors are coupled with the ram, that the ram is provided with linear guides, and that the linear electric motors are integrated into the press bed and the press head. - a press bed, - a press frame, - a ram, and - at least one drive designed as a linear electric motor to drive the ram,
A method of generating unicast segments (750, 752, 754) from a multicast stream, said method comprising: receiving the multicast stream comprising a sequence of transport stream packets (700, 702, 704); generating a first sequence identifier; identifying the first transport stream packet having a random access indicator; generating a first unicast segment comprising the first transport stream packet, and allocating the first sequence identifier to the first unicast segment; adding to the first unicast segment further transport stream packets (706, 708, 710, 712, 714), wherein the further transport stream packets are transport stream packets subsequent to the first transport stream packet in the sequence up to a second transport stream packet and until a second sequence identifier is generated, wherein the second transport stream packet is the transport stream packet that has a random access indicator, and the second sequence identifier is different from the first sequence identifier; and generating a second unicast segment comprising the second transport stream packet and allocating the second sequence identifier to the second unicast segment. receiving the multicast stream comprising a sequence of transport stream packets (700, 702, 704); generating a first sequence identifier; identifying the first transport stream packet having a random access indicator; generating a first unicast segment comprising the first transport stream packet, and allocating the first sequence identifier to the first unicast segment; adding to the first unicast segment further transport stream packets (706, 708, 710, 712, 714), wherein the further transport stream packets are transport stream packets subsequent to the first transport stream packet in the sequence up to a second transport stream packet and until a second sequence identifier is generated, wherein the second transport stream packet is the transport stream packet that has a random access indicator, and the second sequence identifier is different from the first sequence identifier; and generating a second unicast segment comprising the second transport stream packet and allocating the second sequence identifier to the second unicast segment.
Device for the variation of the position of a unit of sensor elements belonging to a belt sanding apparatus, characterized in that the sensor elements placed in front of the sanding pad (11, 12, 13) are adjustable in accordance with the inclination, when the segmented pad (11, 12, 13) is brought into an oblique position.
A traversal, TRV, unit (155, 240, 700) for ray tracing using a tree acceleration structure, AS, the TRV unit comprising: a plurality of sub-pipeline units (732, 734, 736) to operate in parallel and to perform different operations required for ray TRV using the tree AS, a first cross bar to distribute data associated with an input ray to a sub-pipeline unit corresponding to a state of the input ray among the plurality of sub-pipeline units (732, 734, 736); and a second cross bar to re-transmit data associated with a ray output from one sub-pipeline unit among the plurality of sub-pipeline units (732, 734, 736) to the first cross bar, or to a shading unit (165, 290) or to an intersection test, IST, unit (160, 260), based on a state of the ray, wherein the plurality of sub-pipeline units (732, 734, 736) is connected to a feedback line through the first cross bar and the second cross bar, and wherein the different operations comprise fetching data associated with a node of the tree AS, testing an intersection between the ray and a space of the node, and executing a stack operation for the data. a plurality of sub-pipeline units (732, 734, 736) to operate in parallel and to perform different operations required for ray TRV using the tree AS, a first cross bar to distribute data associated with an input ray to a sub-pipeline unit corresponding to a state of the input ray among the plurality of sub-pipeline units (732, 734, 736); and a second cross bar to re-transmit data associated with a ray output from one sub-pipeline unit among the plurality of sub-pipeline units (732, 734, 736) to the first cross bar, or to a shading unit (165, 290) or to an intersection test, IST, unit (160, 260), based on a state of the ray, wherein the plurality of sub-pipeline units (732, 734, 736) is connected to a feedback line through the first cross bar and the second cross bar, and wherein the different operations comprise fetching data associated with a node of the tree AS, testing an intersection between the ray and a space of the node, and executing a stack operation for the data.
A method of performing screen printing on a substrate used for the manufacture of a solar cell, comprising: moving a print head over a screen by a first drive actuator to perform a printing stroke in a first direction; and moving a material processing head in the first direction by a second drive actuator to perform a material processing stroke behind the print head, the print head being moved away from the material processing head by the first drive actuator during a distance increasing phase of the printing stroke to increase a separation distance between the print head and the material processing head. moving a print head over a screen by a first drive actuator to perform a printing stroke in a first direction; and moving a material processing head in the first direction by a second drive actuator to perform a material processing stroke behind the print head, the print head being moved away from the material processing head by the first drive actuator during a distance increasing phase of the printing stroke to increase a separation distance between the print head and the material processing head.
A row unit for a seeding machine, the row unit comprising: a frame; a gauge wheel arm pivotally coupled to the frame; a gauge wheel coupled to the gauge wheel arm; a position sensor assembly having a position sensor configured to detect a rotational position of the gauge wheel arm; and a controller coupled to the position sensor, wherein the controller is configured to receive a signal from the position sensor and to provide an alert based on the signal, characterised in that the alert is provided when the gauge wheel arm remains in a fixed position for a predetermined amount of time, or when the gauge wheel arm oscillates about an axis at a frequency greater than a predetermined frequency. a frame; a gauge wheel arm pivotally coupled to the frame; a gauge wheel coupled to the gauge wheel arm; a position sensor assembly having a position sensor configured to detect a rotational position of the gauge wheel arm; and a controller coupled to the position sensor, wherein the controller is configured to receive a signal from the position sensor and to provide an alert based on the signal, characterised in that the alert is provided when the gauge wheel arm remains in a fixed position for a predetermined amount of time, or when the gauge wheel arm oscillates about an axis at a frequency greater than a predetermined frequency.
A construction joint of multilayered wooden plates which are butt joined or angularly joined in the corners wherein in the contact plane of joined wall elements, and, made from glued or nailed in a multilayered manner wooden plates characterized in that there are at least two joining elements, and, located in different planes, ( B') and, ( C') and distanced from each other, whereby the butt joined wall elements, are equipped with joining elements, inclined towards the contact plane at the angle ( α) amounting from 10° to 45°, whereby at the same time their plane, ( B') is inclined in relation to the contact plane by the angle ( β) amounting from 10° to 45°, whereas the angularly joined wall elements, are equipped with joining elements, inclined towards the contact plane at the angle amounting from 10° to 45°, whereby at the same time their surface, ( C') is inclined angularly in retaken to the contact plane by the angle amounting from 10° to 45°, and at least one of the the joining elements,,, is made of solid or glued wood of the thermal conductivity equal or similar to the thermal conductiytty of the joined wall elements, and, or at least one of the joining elements,,, is made of non-wood materials of the thermal conductivity equal or similar to the thermal conductivity of the joined wall elements, and,, whereby the joining element,,, is of thickness ( s) amounting from 0.1 to 0.6 of thickness of the wall elements,,,.
Cutting head on a shaft end of a motor strimmer, - wherein the cutting head comprises a divided main body consisting of an upper main body component and a lower main body component, - wherein during the operation of the cutting head, the main body is driven in rotation around a rotation axis, - and the upper main body component is attached rotationally fixed to the shaft end, - and in the lower main body component a screw element is held rotationally fixed, so that the lower main body component is screwed onto the shaft end, - and between the main body components (11, 12) at least one cutting tool is arranged, - for which purpose, in the main body there is arranged a bearing element, which is positioned a radial distance (m) away from the rotation axis, - and the cutting tool (13, 73) is held on the main body of the cutting head by the bearing element, characterised in that - the bearing element is fixed in a main body component, - at least in the circumferential direction of the main body, relative to the other main body component, the bearing element is of constructively free design such that for assembly or dismantling purposes the lower main body component mounted on the shaft end can be rotated relative to the upper main body component, - and between the upper main body component and the lower main body component a contact surface is formed, over which, when the housing head is fitted onto the shaft end, the main body components (11, 12) rest against one another, - wherein the contact surface is radially closer to the rotation axis than is the bearing element. - wherein the cutting head comprises a divided main body consisting of an upper main body component and a lower main body component, - wherein during the operation of the cutting head, the main body is driven in rotation around a rotation axis, - and the upper main body component is attached rotationally fixed to the shaft end, - and in the lower main body component a screw element is held rotationally fixed, so that the lower main body component is screwed onto the shaft end, - and between the main body components (11, 12) at least one cutting tool is arranged, - for which purpose, in the main body there is arranged a bearing element, which is positioned a radial distance (m) away from the rotation axis, - and the cutting tool (13, 73) is held on the main body of the cutting head by the bearing element, - the bearing element is fixed in a main body component, - at least in the circumferential direction of the main body, relative to the other main body component, the bearing element is of constructively free design such that for assembly or dismantling purposes the lower main body component mounted on the shaft end can be rotated relative to the upper main body component, - and between the upper main body component and the lower main body component a contact surface is formed, over which, when the housing head is fitted onto the shaft end, the main body components (11, 12) rest against one another, - wherein the contact surface is radially closer to the rotation axis than is the bearing element.
A method for mitigating known interference at a receiving device, the method comprising: receiving a signal from a transmission source that is affected by an interference source; determining at least a second pilot signal associated with the interference source, wherein a first pilot signal includes information broadcast from the transmission source and the second pilot signal includes information broadcast from the interference source; mitigating interference caused by the interference source from the received signal using at least the second pilot signal, characterised in that the mitigating interference from the received signal comprises mitigating interference in accordance with: s ^ 1 1 ⋯ s ^ 1 T = arg max s 1 i ∈ Ω 1 T ∑ i = 1 T y i − h 1 s 1 i s 2 * i 2 where y(i) is the received signal, h 1 (i) is the channel associated with the transmission source, S 1 (i) is a transmitted signal from the transmission source, S 2 (i) is the second pilot signal from the interference source, T is a time/frequency, and i is a time/frequency index. receiving a signal from a transmission source that is affected by an interference source; determining at least a second pilot signal associated with the interference source, wherein a first pilot signal includes information broadcast from the transmission source and the second pilot signal includes information broadcast from the interference source; mitigating interference caused by the interference source from the received signal using at least the second pilot signal, characterised in that the mitigating interference from the received signal comprises mitigating interference in accordance with: s ^ 1 1 ⋯ s ^ 1 T = arg max s 1 i ∈ Ω 1 T ∑ i = 1 T y i − h 1 s 1 i s 2 * i 2 where y(i) is the received signal, h 1 (i) is the channel associated with the transmission source, S 1 (i) is a transmitted signal from the transmission source, S 2 (i) is the second pilot signal from the interference source, T is a time/frequency, and i is a time/frequency index.