mhurhangee/ep-ind-claims huggingface dataset:
A foldable play structure comprising: a plurality of panels each connected to another by at least one hinge to provide an accordion fold structure; and a gable roof comprising at least two roof panels (109, 110) connected along a roof hinge, and at least one gable located between the two roof panels and connected to both of the two roof panels, wherein the at least one gable comprises a hinge along a center line of the gable, and wherein the gable roof is configured to attach to the plurality of panels at the top of the panels, wherein: the accordion fold play structure comprises two configurations, in a first configuration, the plurality of panels are folded to be stacked in substantially parallel planes, the gable roof is not attached to the plurality of panels, the two roof panels of the gable roof are folded toward one another, and the at least one gable is folded inwardly along the hinge and stored between the two roof panels, and in a second configuration, the plurality of panels are unfolded and the gable roof is unfolded and attached to the plurality of panels, forming a play structure. a plurality of panels each connected to another by at least one hinge to provide an accordion fold structure; and a gable roof comprising at least two roof panels (109, 110) connected along a roof hinge, and at least one gable located between the two roof panels and connected to both of the two roof panels, wherein the at least one gable comprises a hinge along a center line of the gable, and wherein the gable roof is configured to attach to the plurality of panels at the top of the panels, the accordion fold play structure comprises two configurations, in a first configuration, the plurality of panels are folded to be stacked in substantially parallel planes, the gable roof is not attached to the plurality of panels, the two roof panels of the gable roof are folded toward one another, and the at least one gable is folded inwardly along the hinge and stored between the two roof panels, and in a second configuration, the plurality of panels are unfolded and the gable roof is unfolded and attached to the plurality of panels, forming a play structure.
A printed circuit board mounted with a power module having both a plurality of lead terminals to be subjected to soldering and at least one screw terminal for screwing, comprising: a plurality of through holes arranged in an array, each of the through holes having a land for soldering, receiving each lead terminal of the power module, and being soldered to the lead terminal, an electrode section provided with a screw hole for fastening to the screw terminal of the power module via a screw, and a groove formed between the electrode section and the through holes so as to intersect with two common tangents, each of the two common tangents connecting corresponding one of outer peripheries of two of the lands respectively disposed at both ends of the array of the plurality of through holes with an outer periphery of a contact area of the electrode section being in contact with one of a head bearing surface of the screw and a washer disposed between the head bearing surface and the electrode section. a plurality of through holes arranged in an array, each of the through holes having a land for soldering, receiving each lead terminal of the power module, and being soldered to the lead terminal, an electrode section provided with a screw hole for fastening to the screw terminal of the power module via a screw, and a groove formed between the electrode section and the through holes so as to intersect with two common tangents, each of the two common tangents connecting corresponding one of outer peripheries of two of the lands respectively disposed at both ends of the array of the plurality of through holes with an outer periphery of a contact area of the electrode section being in contact with one of a head bearing surface of the screw and a washer disposed between the head bearing surface and the electrode section.
Display device for an agricultural on-board computer of a crop sprayer with an integrated operating and display unit, wherein the display unit has self-explanatory pictograms, the display device is characterized in that the pictograms are designed and linked to one another in such a way that the operator is guided to and through the various operating steps of the crop sprayer, and in that at least the main elements, the spray tank, fresh water tank and induction hopper, and activated functionalities concerning one or more main elements are represented as pictograms.
A multi-channel signal processing system, comprising: a filter unit (310, 510) arranged at a signal transmitting end and a feedback unit (321, 533) arranged at a signal receiving end, the filter unit (310,510) comprising a signal synthesis unit (312, 512) and a filter (311, 511), wherein the filter (311, 511) is adapted to filter crosstalk source signals corresponding to a branch of signals to be transmitted by use of filter weight coefficients w(n) and perform subsequent filtering in accordance with new filter weight coefficients w(n+1), wherein the new filter weight coefficients w(n+1) are calculated in accordance with received feedback information and the filter weight coefficients w(n), the feedback information comprising a signal error or a signal error sign; the signal synthesis unit (312, 512) is adapted to receive the branch of signals which are input and the crosstalk source signals filtered by the filter (311, 511), and synthesize the branch of signals and the crosstalk source signals; and the feedback unit (321, 533) is adapted to make a feedback to the filter (311, 511) in accordance with signals received from the signal transmitting end. a filter unit (310, 510) arranged at a signal transmitting end and a feedback unit (321, 533) arranged at a signal receiving end, the filter unit (310,510) comprising a signal synthesis unit (312, 512) and a filter (311, 511), wherein the filter (311, 511) is adapted to filter crosstalk source signals corresponding to a branch of signals to be transmitted by use of filter weight coefficients w(n) and perform subsequent filtering in accordance with new filter weight coefficients w(n+1), wherein the new filter weight coefficients w(n+1) are calculated in accordance with received feedback information and the filter weight coefficients w(n), the feedback information comprising a signal error or a signal error sign; the signal synthesis unit (312, 512) is adapted to receive the branch of signals which are input and the crosstalk source signals filtered by the filter (311, 511), and synthesize the branch of signals and the crosstalk source signals; and the feedback unit (321, 533) is adapted to make a feedback to the filter (311, 511) in accordance with signals received from the signal transmitting end.
A controller configured to control an object of control, the controller comprising: a processor; and a communication circuit configured to execute transmission of output data to the object of control, and reception of input data from the object of control, wherein the controller is configured to control the object of control by sequentially repeating, on a predetermined control cycle, the transmission of the output data, the reception of the input data, and execution of a control program for generating the output data using the input data, in the transmission of the output data, the processor is configured to execute in a current control cycle storing the output data to be included in a frame, in a transmission buffer, the output data having been generated by the execution of the control program in a previous control cycle, and control of the communication circuit such that the frame including the output data, is transmitted to the object of control, and the processor is further configured to execute, in the current control cycle, at least a part of storing, in the transmission buffer, output data to be included in a frame that is to be transmitted in a next control cycle. a processor; and a communication circuit configured to execute transmission of output data to the object of control, and reception of input data from the object of control, wherein the controller is configured to control the object of control by sequentially repeating, on a predetermined control cycle, the transmission of the output data, the reception of the input data, and execution of a control program for generating the output data using the input data, in the transmission of the output data, the processor is configured to execute in a current control cycle storing the output data to be included in a frame, in a transmission buffer, the output data having been generated by the execution of the control program in a previous control cycle, and control of the communication circuit such that the frame including the output data, is transmitted to the object of control, and storing the output data to be included in a frame, in a transmission buffer, the output data having been generated by the execution of the control program in a previous control cycle, and control of the communication circuit such that the frame including the output data, is transmitted to the object of control, and the processor is further configured to execute, in the current control cycle, at least a part of storing, in the transmission buffer, output data to be included in a frame that is to be transmitted in a next control cycle.
A transmission method comprising transmission steps executed by a first base station and a second base station, comprising: transmitting a first transmit signal from a first antenna in the first base station, the first antenna having a first polarization; and transmitting a second transmit signal from a second antenna in the first base station, the second antenna having a second polarization that is different from the first polarization; transmitting the first transmit signal from a third antenna in the second base station, the third antenna having the second polarization; and transmitting the second transmit signal from a fourth antenna in the second base station (12301 B), the fourth antenna having the first polarization; the transmission method further comprising: a regular phase change process has been performed on data symbols to generate the second transmit signal; a first phase changing process has been performed on all symbols in a frame of the first transmit signal to be transmitted from the third antenna; and a second phase changing process has been performed on all symbols in a frame of the second transmit signal to be transmitted from the fourth antenna. transmitting a first transmit signal from a first antenna in the first base station, the first antenna having a first polarization; and transmitting a second transmit signal from a second antenna in the first base station, the second antenna having a second polarization that is different from the first polarization; transmitting the first transmit signal from a third antenna in the second base station, the third antenna having the second polarization; and transmitting the second transmit signal from a fourth antenna in the second base station (12301 B), the fourth antenna having the first polarization; the transmission method further comprising: a regular phase change process has been performed on data symbols to generate the second transmit signal; a first phase changing process has been performed on all symbols in a frame of the first transmit signal to be transmitted from the third antenna; and a second phase changing process has been performed on all symbols in a frame of the second transmit signal to be transmitted from the fourth antenna. a regular phase change process has been performed on data symbols to generate the second transmit signal; a first phase changing process has been performed on all symbols in a frame of the first transmit signal to be transmitted from the third antenna; and a second phase changing process has been performed on all symbols in a frame of the second transmit signal to be transmitted from the fourth antenna.
A controlled-release pesticide composition comprising a polymer matrix of polyvinyl chloride, characterized in that it comprises a pyrethroid at a concentration of 1-10%, propoxur at a concentration of 5-20%, another insect repellant compound which is not pyrethroid, triphenyl phosphate at a concentration of 5-30% and cresyl diphenyl phosphate at a concentration of 5-30%.
A method for displaying, on a 2D display device, a content derived from 4D light field data, based on a viewing position of a user, said 4D light field data corresponding to data acquired by either a plurality of cameras or by a plenoptic device, wherein said method comprises: obtaining a volume in front of said 2D display device in which no disocclusions are visible, said volume being defined according to optical and geometry parameters of an acquisition device that has acquired said 4D light field data, a size of a screen of said 2D display device, and an anchor plane in said content, said anchor plane being perceived as static in case of movement of a user relative to said 2D display device; determining a modified volume from said volume, comprising modifying a size of said volume, for modifying possible movements of a user positioned within the modified volume compared to movements of said user within said volume; providing means by said 2D display device for guiding said user within said modified volume according to said viewing position of said user; and displaying said content on said 2D display device. obtaining a volume in front of said 2D display device in which no disocclusions are visible, said volume being defined according to optical and geometry parameters of an acquisition device that has acquired said 4D light field data, a size of a screen of said 2D display device, and an anchor plane in said content, said anchor plane being perceived as static in case of movement of a user relative to said 2D display device; determining a modified volume from said volume, comprising modifying a size of said volume, for modifying possible movements of a user positioned within the modified volume compared to movements of said user within said volume; providing means by said 2D display device for guiding said user within said modified volume according to said viewing position of said user; and displaying said content on said 2D display device.
A data converter circuit, comprising: a non-uniform sampling circuit (210, 300, 400) including a sampling voltage-controlled oscillator having an input to receive an analog data signal and having an output to generate a quantized data signal, wherein the quantized data signal comprises a plurality of non-uniform transition intervals indicative of data contained in the analog data signal; and a resampling circuit having an input to receive the quantized data signal and configured to reconstruct the data from the quantized data signal; the non-uniform sampling circuit being characterized in that it further comprises: a phase-locked loop coupled to the sampling VCO and wherein the PLL comprises; a feedback VCO having an input to receive an input feedback signal and having an output to generate an output feedback signal. a non-uniform sampling circuit (210, 300, 400) including a sampling voltage-controlled oscillator having an input to receive an analog data signal and having an output to generate a quantized data signal, wherein the quantized data signal comprises a plurality of non-uniform transition intervals indicative of data contained in the analog data signal; and a resampling circuit having an input to receive the quantized data signal and configured to reconstruct the data from the quantized data signal; the non-uniform sampling circuit being characterized in that it further comprises: a phase-locked loop coupled to the sampling VCO and wherein the PLL comprises; a feedback VCO having an input to receive an input feedback signal and having an output to generate an output feedback signal. a phase-locked loop coupled to the sampling VCO and wherein the PLL comprises; a feedback VCO having an input to receive an input feedback signal and having an output to generate an output feedback signal.
An arc extinguishing chamber base applied to a molded case circuit breaker provided therein with components and installed in a part of a circuit so as to shut off the circuit or allow a current to flow in the circuit, wherein the arc extinguishing chamber base is made of a material including a thermoplastic resin, and wherein the thermoplastic resin is an aromatic polyamide-based (polyphthalamide) resin having the following chemical formula, characterized in that the thermoplastic resin includes a PA66 (polyamide resin) material, wherein the aromatic polyamide-based resin consists of 30 mol% or more and less than 100 mol% of aromatic dicarboxylic acid, wherein the aromatic polyamide-based resin consists of aliphatic or cycloaliphatic C4-C15 diamine, wherein the material further includes an inorganic filler, a heat stabilizer, an antioxidant, a light stabilizer, a flame retardant, and a colorant, and wherein the material of the arc extinguishing chamber base is composed of 30 to 75% by weight of the aromatic polyamide resin, 20 to 65% by weight of an inorganic filler, and 1 to 50% by weight of remaining constituents. wherein the arc extinguishing chamber base is made of a material including a thermoplastic resin, and wherein the thermoplastic resin is an aromatic polyamide-based (polyphthalamide) resin having the following chemical formula, characterized in that the thermoplastic resin includes a PA66 (polyamide resin) material, wherein the aromatic polyamide-based resin consists of 30 mol% or more and less than 100 mol% of aromatic dicarboxylic acid, wherein the aromatic polyamide-based resin consists of aliphatic or cycloaliphatic C4-C15 diamine, wherein the material further includes an inorganic filler, a heat stabilizer, an antioxidant, a light stabilizer, a flame retardant, and a colorant, and wherein the material of the arc extinguishing chamber base is composed of 30 to 75% by weight of the aromatic polyamide resin, 20 to 65% by weight of an inorganic filler, and 1 to 50% by weight of remaining constituents.
Method for producing a torsional profile from a tubular hollow profile, the torsional profile being provided, over its entire length, with spaced-apart walls, having the following method steps: a) placing the tubular hollow profile into a first deformation die, b) positioning the ends of the tubular hollow profile in the first deformation die by means of in each case one tapering first mandrel (4, 5) which extends into a torsional region, c) positioning the tubular hollow profile over its longitudinal extent in the first deformation die, d) deforming the tubular hollow profile over its longitudinal extent in the torsional region by means of a first punch, with a reduction in the tube cross-sectional area in the torsional region, e) removing the first punch and the first mandrels (4, 5), f) fixing the ends of the reshaped hollow profile in the deformation die by means of in each case one tapering second mandrel (9, 10) which extends as far as the torsional region, g) fixing the reshaped hollow profile over its longitudinal extent in the second deformation die, h) deforming the reshaped hollow profile over its longitudinal extent in the torsional region by means of a second punch, with a reduction in the cross-sectional area of the reshaped hollow profile in the torsional region, i) removing the second punch and the second mandrels (9, 10) and j) removing the further-reshaped hollow profile. a) placing the tubular hollow profile into a first deformation die, b) positioning the ends of the tubular hollow profile in the first deformation die by means of in each case one tapering first mandrel (4, 5) which extends into a torsional region, c) positioning the tubular hollow profile over its longitudinal extent in the first deformation die, d) deforming the tubular hollow profile over its longitudinal extent in the torsional region by means of a first punch, with a reduction in the tube cross-sectional area in the torsional region, e) removing the first punch and the first mandrels (4, 5), f) fixing the ends of the reshaped hollow profile in the deformation die by means of in each case one tapering second mandrel (9, 10) which extends as far as the torsional region, g) fixing the reshaped hollow profile over its longitudinal extent in the second deformation die, h) deforming the reshaped hollow profile over its longitudinal extent in the torsional region by means of a second punch, with a reduction in the cross-sectional area of the reshaped hollow profile in the torsional region, i) removing the second punch and the second mandrels (9, 10) and j) removing the further-reshaped hollow profile.
A polypeptide that binds human B-cell receptor complex, wherein said polypeptide comprises: the amino acid sequence of an immunoglobulin light chain variable region (V L) that is a humanized variant of the light chain variable region of a native BCR complex antibody (BCC V L), wherein said amino acid sequence of said immunoglobulin light chain variable region (V L) is selected from the group consisting of SEQ ID NO: 12, SEQ ID NO: 18 and SEQ ID NO: 20; and the amino acid sequence of an immunoglobulin heavy chain variable region (V H) that is a humanized variant of the heavy chain variable region of a native BCR complex antibody (BCC V H), wherein said amino acid sequence of said immunoglobulin heavy chain variable region (V H) is selected from the group consisting of SEQ ID NO: 24, SEQ ID NO: 32 and SEQ ID NO: 34. the amino acid sequence of an immunoglobulin light chain variable region (V L) that is a humanized variant of the light chain variable region of a native BCR complex antibody (BCC V L), wherein said amino acid sequence of said immunoglobulin light chain variable region (V L) is selected from the group consisting of SEQ ID NO: 12, SEQ ID NO: 18 and SEQ ID NO: 20; and the amino acid sequence of an immunoglobulin heavy chain variable region (V H) that is a humanized variant of the heavy chain variable region of a native BCR complex antibody (BCC V H), wherein said amino acid sequence of said immunoglobulin heavy chain variable region (V H) is selected from the group consisting of SEQ ID NO: 24, SEQ ID NO: 32 and SEQ ID NO: 34.