mhurhangee/patent-ind-claim-en huggingface dataset:
An agricultural combine comprising: a chassis to support the combine for travel over the ground in an agricultural field harvesting crops; a feederhouse supported on the front of the chassis to receive cut crop material from an agricultural harvesting head ; a rotor and concave arrangement supported on the chassis and disposed to receive the cut crop material, to thresh the cut crop material, and to separate the cut crop material into a flow of grain and a flow of straw; a cleaning shoe disposed to receive the flow of grain from the threshing and separating mechanism, to clean the flow of grain and to provide a flow of clean grain and a flow of chaff; and a residue management system disposed to receive the flow of straw and the flow of chaff, wherein the residue management system further comprises a straw chopper that is operable to rotate in a first direction in a windrowing mode to windrow the flow of straw; and to rotate in a second direction opposite the first direction in a chopping mode to chop the flow of straw, wherein the straw chopper comprises a generally planar and elongate chopper blade pivotally fixed to a chopper mount on the cylinder of a chopper rotor and having a cutting edge on a first end of the chopper blade and a pivotal mount on the opposite, second end of the chopper blade , characterized in that the chopper blade has a mechanical stop on the second end of the chopper blade . a chassis to support the combine for travel over the ground in an agricultural field harvesting crops; a feederhouse supported on the front of the chassis to receive cut crop material from an agricultural harvesting head ; a rotor and concave arrangement supported on the chassis and disposed to receive the cut crop material, to thresh the cut crop material, and to separate the cut crop material into a flow of grain and a flow of straw; a cleaning shoe disposed to receive the flow of grain from the threshing and separating mechanism, to clean the flow of grain and to provide a flow of clean grain and a flow of chaff; and a residue management system disposed to receive the flow of straw and the flow of chaff, wherein the residue management system further comprises a straw chopper that is operable to rotate in a first direction in a windrowing mode to windrow the flow of straw; and to rotate in a second direction opposite the first direction in a chopping mode to chop the flow of straw, wherein the straw chopper comprises a generally planar and elongate chopper blade pivotally fixed to a chopper mount on the cylinder of a chopper rotor and having a cutting edge on a first end of the chopper blade and a pivotal mount on the opposite, second end of the chopper blade , characterized in that the chopper blade has a mechanical stop on the second end of the chopper blade .
A sensor control device comprising: a first acquisition unit that acquires planimetric feature information including planimetric feature position information related to a position of a planimetric feature; a second acquisition unit that acquires sensor information related to a sensor , the sensor information including at least recognizable range information related to a recognizable range, the recognizable range being a region defined based on a distance at which the sensor can recognize the planimetric feature; and a control unit ; characterized in that the sensor control device further comprises a third acquisition unit that acquires current position information of the sensor or a moving object in which the sensor is arranged, wherein the control unit controls the sensor based on the planimetric feature position information acquired by the first acquisition unit , the sensor information acquired by the second acquisition unit , and the current position information acquired by the third acquisition unit , and the control unit is configured to, when the position indicated by the planimetric feature position information is outside the recognizable range, operate the sensor in a first state with a sensitivity lower than when the position indicated by the planimetric feature position information is within the recognizable range. a first acquisition unit that acquires planimetric feature information including planimetric feature position information related to a position of a planimetric feature; a second acquisition unit that acquires sensor information related to a sensor , the sensor information including at least recognizable range information related to a recognizable range, the recognizable range being a region defined based on a distance at which the sensor can recognize the planimetric feature; and a control unit ; characterized in that the sensor control device further comprises a third acquisition unit that acquires current position information of the sensor or a moving object in which the sensor is arranged, wherein the control unit controls the sensor based on the planimetric feature position information acquired by the first acquisition unit , the sensor information acquired by the second acquisition unit , and the current position information acquired by the third acquisition unit , and the control unit is configured to, when the position indicated by the planimetric feature position information is outside the recognizable range, operate the sensor in a first state with a sensitivity lower than when the position indicated by the planimetric feature position information is within the recognizable range.
A communications system comprising: - a source arrangement of periodic waves, the source arrangement being configured to generate an interferometric wave pattern, the interferometric wave pattern comprising a plurality of lobes each having a main axis diverging from an origin at the source arrangement and a null between any two adjacent lobes; - at least one sensor arrangement for the waves, the sensor arrangement comprising at least a first sensor and a second sensor which are spaced from one another; - a first signal source connected to the source arrangement via a phase shift arrangement to generate a first interferometric wave pattern which illuminates the first sensor more than the second sensor; and - a second signal source connected to the source arrangement via the phase shift arrangement to generate a second interferometric pattern which is off-set from the first interferometric pattern and which illuminates the second sensor more than the first sensor, wherein the periodic waves have a centre frequency of f c which is associated with a wavelength λ c , wherein the source arrangement comprises at least a first wave source and a second wave source which are spaced a distance d 1 from one another, wherein there is an angle θ between any main axis and an adjacent null, wherein the at least one sensor arrangement is spaced a distance s from the wave source arrangement, wherein the first sensor and the second sensor are spaced a distance d 2 from one another, so that d 1 = λ c s / 2 d 2 and so that a line between the spaced sensors subtend the angle θ at the origin, wherein the first signal source is connected via the phase shift arrangement to the first and second wave sources, with a first phase difference between them, collectively to generate the first interferometric pattern; and wherein the second signal source is connected via the phase shift arrangement to the first wave source and to the second wave source, with a second phase difference between them, wherein a difference between the first phase difference and the second phase difference is between 90 degrees and 270 degrees, collectively to generate the second interferometric pattern. - a source arrangement of periodic waves, the source arrangement being configured to generate an interferometric wave pattern, the interferometric wave pattern comprising a plurality of lobes each having a main axis diverging from an origin at the source arrangement and a null between any two adjacent lobes; - at least one sensor arrangement for the waves, the sensor arrangement comprising at least a first sensor and a second sensor which are spaced from one another; - a first signal source connected to the source arrangement via a phase shift arrangement to generate a first interferometric wave pattern which illuminates the first sensor more than the second sensor; and - a second signal source connected to the source arrangement via the phase shift arrangement to generate a second interferometric pattern which is off-set from the first interferometric pattern and which illuminates the second sensor more than the first sensor,
A device for detecting a three-dimensional structure by an ultrasonic signal, comprising: a frequency-encoded sound transducer for receiving and/or generating a spatially structured sound field, wherein the frequency-encoded sound transducer comprises a total aperture , wherein the total aperture comprises a plurality of subapertures (12, 14, 16, 18; 22, 24, 26, 28; 36a, 36b; 40a, 40b, 40n; 54, 56; 62, 64), each of the sub-apertures being setup to receive and/or generate sound fields with a specific frequency spectrum, wherein the specific frequency spectra of at least two of the subapertures differ, and whereby all sub-apertures of the overall aperture are connected to the same electronic control channel (38, 39; 48; 58; 80, 82, 84); a processing unit arranged to decode an ultrasonic signal detected by the frequency-encoded transducer, which comprises signals reflected and scattered at sound-reflecting elements of a sound field irradiated by the frequency-encoded transducer, on the basis of a known specific sound field of the frequency-encoded transducer, the specific sound field representing a superposition of the sound fields of the sub-apertures; and wherein the processing unit is further arranged to obtain a distribution of the sound-reflecting elements in three-dimensional space from the decoded ultrasonic signal. a frequency-encoded sound transducer for receiving and/or generating a spatially structured sound field, wherein the frequency-encoded sound transducer comprises a total aperture , wherein the total aperture comprises a plurality of subapertures (12, 14, 16, 18; 22, 24, 26, 28; 36a, 36b; 40a, 40b, 40n; 54, 56; 62, 64), each of the sub-apertures being setup to receive and/or generate sound fields with a specific frequency spectrum, wherein the specific frequency spectra of at least two of the subapertures differ, and whereby all sub-apertures of the overall aperture are connected to the same electronic control channel (38, 39; 48; 58; 80, 82, 84); a processing unit arranged to decode an ultrasonic signal detected by the frequency-encoded transducer, which comprises signals reflected and scattered at sound-reflecting elements of a sound field irradiated by the frequency-encoded transducer, on the basis of a known specific sound field of the frequency-encoded transducer, the specific sound field representing a superposition of the sound fields of the sub-apertures; and wherein the processing unit is further arranged to obtain a distribution of the sound-reflecting elements in three-dimensional space from the decoded ultrasonic signal.
A device for use in an ostomy appliance, where the device is a collecting bag , where the collecting bag is provided in one piece of foil material defining a continuous wall of the collecting bag with no sealed edges, with a front of the wall facing away from the user and a rear of the wall facing the user, where the transition between the front of the wall and the rear of the wall is such that the cross-section defines a smooth curve in a sectional view of the collecting bag.
A physical exercise apparatus comprising a frame equipped with a crankset and a saddle , the saddle itself comprising a chassis fastened to the frame, two saddle parts and members for articulating each saddle part with respect to the chassis, about a pitch axis (A26), about a roll axis (B26) and about a yaw axis (L26), characterized in that the apparatus comprises: - sensors for detecting a pitch movement (T), a roll movement (R) and a yaw movement (L) of each saddle part about the pitch, roll and yaw axes, respectively, these movements resulting from pedaling by a user; - at least one calculation unit configured to determine angular amplitudes (α G , α D , β, γ) of the pitch (T), roll (R) and yaw (L) movements, from output signals (S 30 , S 50 ) from the sensors; - at least one screen for displaying the position on each saddle part of a bearing point (P G , P D ) of the user's ischium while pedaling, depending on the angular amplitudes determined by the calculation unit . - sensors for detecting a pitch movement (T), a roll movement (R) and a yaw movement (L) of each saddle part about the pitch, roll and yaw axes, respectively, these movements resulting from pedaling by a user; - at least one calculation unit configured to determine angular amplitudes (α G , α D , β, γ) of the pitch (T), roll (R) and yaw (L) movements, from output signals (S 30 , S 50 ) from the sensors; - at least one screen for displaying the position on each saddle part of a bearing point (P G , P D ) of the user's ischium while pedaling, depending on the angular amplitudes determined by the calculation unit .
Sealing tape made from a soft polyurethane foam which is at least partially and preferably completely impregnated with an impregnation agent for delayed restoring, wherein the impregnation agent has an acrylate dispersion, wherein the impregnated dry foam has a density which is greater than 60 kg/m 3 and less than 140 kg/m 3 and the sealing tape is wound on a roll with a predetermined degree of compression, characterized in that this degree of compression is less than 15% of the initial height of the foam and greater than 5% of the initial height of the foam, wherein a density of the raw foam is smaller than 33 kg/m 3 .
A method for positioning a sealing profile (2, 2', 2") for vehicle doors in a tool, in a receiving device and/or a mould for the retentive receiving of sealing profiles and for the further processing of the same, for the injection moulding of further profiles and/or profile parts in an injection moulding machine and/or for the cutting to size of the sealing profiles, using a sealing profile (2, 2', 2") having an attached positioning pin (8, 8', 8"), wherein a tool that has a stop (A) and/or a recess (B) is used as the tool (3', 3"), and the positioning pin (8, 8', 8") is moved towards the stop (A) and/or inserted into the recess (B) such that the positioning pin (8, 8', 8") and thus the sealing profile (2, 2', 2") are given a defined position with respect to the tool (3', 3"), wherein, as the sealing profile (2, 2', 2"), a sealing profile having a positioning pin (8, 8', 8") is used, which pin is produced from a different material, in particular is produced from a different plastics material, than the profile part onto which it is injection-moulded, wherein preferably a positioning pin made of polypropylene is used, and wherein as the sealing profile (2, 2', 2"), a sealing profile having a positioning pin (8, 8', 8") is used, which pin is injection-moulded onto a profile part of the sealing profile by at least two injection moulding procedures having been subsequently carried out after insertion of a first profile into a further tool , before the tool was opened again or, instead, without having reset the sealing profile (2, 2', 2") in another tool, wherein during one of the at least two injection moulding procedures a further profile part was injection-moulded onto the first, and during another of the at least two injection moulding procedures the positioning pin (8, 8', 8") was injection-moulded laterally onto the first profile and/or the further profile part.
A method of path computation in a segment routing network, the network comprising a set of nodes, the method comprising: receiving a request for computation of a path between end nodes in the network, the request including a constraint; determining a segment identifier-optimised path defined by a stack of one or more segment identifiers, wherein the segment identifier-optimised path meets the constraint, wherein the determining of the segment identifier-optimised path comprises analyzing a modified topology of the network by: determining an initial optimum path between the end nodes which meets the constraint using a full topology of the network, the initial optimum path being defined by a sequence of hops between a sub-set of the nodes; and the determining of the segment identifier-optimised path uses the modified topology comprising only: the sub-set of the nodes; the links of the initial optimum path; virtual links between only the sub-set of the nodes; and outputting at least one segment identifier which defines the determined path. receiving a request for computation of a path between end nodes in the network, the request including a constraint; determining a segment identifier-optimised path defined by a stack of one or more segment identifiers, wherein the segment identifier-optimised path meets the constraint, wherein the determining of the segment identifier-optimised path comprises analyzing a modified topology of the network by: determining an initial optimum path between the end nodes which meets the constraint using a full topology of the network, the initial optimum path being defined by a sequence of hops between a sub-set of the nodes; and the determining of the segment identifier-optimised path uses the modified topology comprising only: the sub-set of the nodes; the links of the initial optimum path; virtual links between only the sub-set of the nodes; and outputting at least one segment identifier which defines the determined path. the sub-set of the nodes; the links of the initial optimum path; virtual links between only the sub-set of the nodes; and
Hearing instrument comprising a housing , a signal processing device , a receiver and an antenna for binaural data transmission, wherein the housing is configured such that it can be worn at least partially in an auditory canal, - wherein the housing has a distal section in which the signal processing device and the receiver are arranged, and a proximal section spatially separated therefrom and positioned closest to the eardrum , in which the antenna is arranged, - wherein the diameter and contour of the proximal section are configured such that the proximal section can be positioned in the region of the second bend or deeper in a human auditory canal, - wherein the shape of the proximal section and the arrangement of the antenna in the proximal section are adapted to the auditory canal such that the antenna of the hearing instrument inserted in the auditory canal is aligned with the respective other auditory canal of a wearer of the hearing instrument , and - wherein the antenna has a feedthrough with a distal and a proximal opening, which is embodied as a sound channel, while the distal opening is connected to an output of the receiver . - wherein the housing has a distal section in which the signal processing device and the receiver are arranged, and a proximal section spatially separated therefrom and positioned closest to the eardrum , in which the antenna is arranged, - wherein the diameter and contour of the proximal section are configured such that the proximal section can be positioned in the region of the second bend or deeper in a human auditory canal, - wherein the shape of the proximal section and the arrangement of the antenna in the proximal section are adapted to the auditory canal such that the antenna of the hearing instrument inserted in the auditory canal is aligned with the respective other auditory canal of a wearer of the hearing instrument , and - wherein the antenna has a feedthrough with a distal and a proximal opening, which is embodied as a sound channel, while the distal opening is connected to an output of the receiver .
The use of a propylene homopolymer for producing fibers; wherein the propylene homopolymer is characterized in that : - the melting point ranges from 150°C to 164°C; - the fraction soluble in xylene at 25°C is comprised between 6.0 wt% and 2.0 wt%; - the fraction soluble in acetone 25°C is comprised between 0.5 wt% and 2.0 wt% - the ratio fraction soluble in acetone at 25°C/ fraction insoluble in acetone 25°C is comprised between 0.30 and 0.60. - the polydispersity index ranges from 2.8 to 4.5 - the melt flow rate (ISO 1133, 230 °C/2.16 kg) is comprised between 2 to 40 g/10min; wherein the melting point is measured by using the DSC with heating and cooling rate of 20°C/min; the fraction soluble in xylene at 25°C is measured according to ISO 16 152 - 2005; with solution volume of 250 ml, precipitation at 25°C for 20 minutes, 10 of which with the solution in agitation (magnetic stirrer), and drying at 70°; the fraction soluble and insoluble in acetone at 25°C is measured on a second aliquot of the filtered solution obtained according to the method for the determination of xylene soluble fraction at 25°C; this second aliquot is added with acetone (100 ml) so that the precipitation of the amorphous part takes place; then the suspension is filtered on a Teflon membrane coupled with a steel frit on a flask, dried in an oven at 80°C overnight and weighed so that the soluble and insoluble fraction can be determined. - the melting point ranges from 150°C to 164°C; - the fraction soluble in xylene at 25°C is comprised between 6.0 wt% and 2.0 wt%; - the fraction soluble in acetone 25°C is comprised between 0.5 wt% and 2.0 wt% - the ratio fraction soluble in acetone at 25°C/ fraction insoluble in acetone 25°C is comprised between 0.30 and 0.60. - the polydispersity index ranges from 2.8 to 4.5 - the melt flow rate (ISO 1133, 230 °C/2.16 kg) is comprised between 2 to 40 g/10min; wherein the melting point is measured by using the DSC with heating and cooling rate of 20°C/min; the fraction soluble in xylene at 25°C is measured according to ISO 16 152 - 2005; with solution volume of 250 ml, precipitation at 25°C for 20 minutes, 10 of which with the solution in agitation (magnetic stirrer), and drying at 70°; the fraction soluble and insoluble in acetone at 25°C is measured on a second aliquot of the filtered solution obtained according to the method for the determination of xylene soluble fraction at 25°C; this second aliquot is added with acetone (100 ml) so that the precipitation of the amorphous part takes place; then the suspension is filtered on a Teflon membrane coupled with a steel frit on a flask, dried in an oven at 80°C overnight and weighed so that the soluble and insoluble fraction can be determined.