mhurhangee/patent-ind-claim-en huggingface dataset:
Monitoring system for monitoring a watercraft or a number of watercrafts , having an identification apparatus and a first hydrophone , which is arranged in a fixed position and is designed such that sound signals emitted from one of the watercrafts are determined as measured underwater-sound information, wherein the identification apparatus has a first memory for the measured underwater-sound information and a second memory for a watercraft information which has been measured and/or stored, wherein the watercraft information which has been measured and/or stored is free of an underwater-sound-based watercraft information, wherein the first memory and the second memory are linked to one another in order, on the basis of the first memory being linked to the second memory, to achieve clear assignment of the measured underwater-sound information to the watercraft information which has been measured and/or stored, wherein the monitoring system has a classification apparatus which is designed to ascertain the watercraft information of the watercraft, wherein the monitoring system is designed so that a reference underwater-sound information assigned to the watercraft information is compared with the measured underwater-sound information, in order for a high-risk situation to be identified.
An ionizing radiation beam monitor comprising a Silicon Carbide plate having a plurality of electrodes, characterized in that : said Silicon Carbide plate comprises at least one hole in the center and wherein the Silicon Carbide plate comprises a number of incisions, preferably extending radially from the center towards the outer regions of the Silicon Carbide plate, and wherein the incisions are chosen to generate free standing sections of the Silicon Carbide plate for areas of the Silicon Carbide plate being irradiated with the radiation beam.
A modified positive electrode active material, comprising: a positive electrode active material substrate ; a first oxide layer , coated on the surface of the positive electrode active material substrate and selected from one or more of oxides of element M, wherein the element M is selected from the group of one or more of Al and Ti; and a second oxide layer having a continuous layered structure, coated on the surface of the first oxide layer and selected from one or more of oxides of element M', wherein the element M' is selected from one or more of B and P; wherein the B containing second oxide layer is combined with the Al containing first oxide layer and/or the P containing second oxide layer is combined with the Ti containing first oxide layer; and said first oxide layer is different from said second oxide layer in terms of composition. a positive electrode active material substrate ; a first oxide layer , coated on the surface of the positive electrode active material substrate and selected from one or more of oxides of element M, wherein the element M is selected from the group of one or more of Al and Ti; and a second oxide layer having a continuous layered structure, coated on the surface of the first oxide layer and selected from one or more of oxides of element M', wherein the element M' is selected from one or more of B and P; wherein the B containing second oxide layer is combined with the Al containing first oxide layer and/or the P containing second oxide layer is combined with the Ti containing first oxide layer; and said first oxide layer is different from said second oxide layer in terms of composition.
A conductive contact element, wherein the conductive contact element has a front contact portion and a rear contact portion spaced apart from each other at front and rear and respectively configured to be in conductive contact with a suitable conductive contact element, the front contact portion and the rear contact portion have an insertion space (A) in a direction perpendicular to the direction of insertion for the suitable conductive contact element to be inserted therein, wherein the conductive contact element comprises a base body extending in a front-rear direction, a front end of the base body is connected to a first connecting segment inclined upwardly through a first bending segment , a front end of the first connecting segment is connected to a contact segment through a second bending segment , the front contact portion is located on the contact segment , and the rear contact portion is located on the base body or a lower side surface of the first connecting segment , and a front side of a front contact point of the front contact portion is further provided with an insertion guiding surface preventing the conductive contact element and the suitable conductive contact element from butting against each other and becoming stuck during insertion; characterized in that , the front contact portion is an inclined extending segment disposed at a front end of the contact segment and in parallel with the first connecting segment , the front contact point is a lower side surface of the inclined extending segment, and a rear contact point of the rear contact portion is formed by a portion of the lower side surface of the first connecting segment . wherein the conductive contact element comprises a base body extending in a front-rear direction, a front end of the base body is connected to a first connecting segment inclined upwardly through a first bending segment , a front end of the first connecting segment is connected to a contact segment through a second bending segment , the front contact portion is located on the contact segment , and the rear contact portion is located on the base body or a lower side surface of the first connecting segment , and a front side of a front contact point of the front contact portion is further provided with an insertion guiding surface preventing the conductive contact element and the suitable conductive contact element from butting against each other and becoming stuck during insertion; characterized in that , the front contact portion is an inclined extending segment disposed at a front end of the contact segment and in parallel with the first connecting segment , the front contact point is a lower side surface of the inclined extending segment, and a rear contact point of the rear contact portion is formed by a portion of the lower side surface of the first connecting segment .
A power amplifier comprising: a main amplifier (M) connected in parallel with a first peaking amplifier (P1) in a first circuit branch; and a second peaking amplifier (P2) connected in parallel with a third peaking amplifier (P3) in a second circuit branch that is in parallel with the first circuit branch, wherein the main amplifier is configured to operate in a first amplifier class and the peaking amplifiers are configured to operate in an amplifier class that is different from the first amplifier class; a combining node at which an output of the first circuit branch connects to an output of the second circuit branch; an output port of the power amplifier connected to the combining node and configured to connect to a load having an impedance value R; a first impedance inverter in the first circuit branch configured to connect outputs of the main amplifier and first peaking amplifier to the output of the first circuit branch; and; a second impedance inverter in the second circuit branch configured to connect outputs of the second peaking amplifier and third peaking amplifier to the output of the second circuit branch, wherein current ratios for the peaking amplifiers with respect to the main amplifier set a load impedance seen by the main amplifier to approximately a same value when the peaking amplifiers are operating at maximum output currents amplifying received signals and when the peaking amplifiers are not amplifying received signals. a main amplifier (M) connected in parallel with a first peaking amplifier (P1) in a first circuit branch; and a second peaking amplifier (P2) connected in parallel with a third peaking amplifier (P3) in a second circuit branch that is in parallel with the first circuit branch, wherein the main amplifier is configured to operate in a first amplifier class and the peaking amplifiers are configured to operate in an amplifier class that is different from the first amplifier class; a combining node at which an output of the first circuit branch connects to an output of the second circuit branch; an output port of the power amplifier connected to the combining node and configured to connect to a load having an impedance value R; a first impedance inverter in the first circuit branch configured to connect outputs of the main amplifier and first peaking amplifier to the output of the first circuit branch; and; a second impedance inverter in the second circuit branch configured to connect outputs of the second peaking amplifier and third peaking amplifier to the output of the second circuit branch, wherein current ratios for the peaking amplifiers with respect to the main amplifier set a load impedance seen by the main amplifier to approximately a same value when the peaking amplifiers are operating at maximum output currents amplifying received signals and when the peaking amplifiers are not amplifying received signals.
A method for preparing a low chromatic aberration polyester different-shrinkage composite yarn, the method comprising: spinning a polyester by a POY method and a FDY method, and then plying and wiring, composite winding a final formation of the low chromatic aberration polyester different shrinkage composite yarn; wherein the polyester is made after an esterification of terephthalic acid and ethylene glycol and a polycondensation under the catalysis of a mixture of magnesium ethylene glycol and antimony ethylene glycol, and finally granulation to obtain polyester chips; wherein the molecular formula of magnesium ethylene glycol is Mg(OCH2CH2OH); wherein the mixture of magnesium ethylene glycol and antimony ethylene glycol, magnesium ethylene glycol and antimony ethylene glycol in a mass ratio of 2:1 to 3: 1; wherein the amount of the catalyst is 0.01% to 0.05% of the quality of the terephthalic acid; and wherein the granulated slices are brewed and washed with water and a rinsing agent at 120-130°C and 0.2-0.3 MPa for 3-5 hours. spinning a polyester by a POY method and a FDY method, and then plying and wiring, composite winding a final formation of the low chromatic aberration polyester different shrinkage composite yarn; wherein the polyester is made after an esterification of terephthalic acid and ethylene glycol and a polycondensation under the catalysis of a mixture of magnesium ethylene glycol and antimony ethylene glycol, and finally granulation to obtain polyester chips; wherein the molecular formula of magnesium ethylene glycol is Mg(OCH2CH2OH); wherein the mixture of magnesium ethylene glycol and antimony ethylene glycol, magnesium ethylene glycol and antimony ethylene glycol in a mass ratio of 2:1 to 3: 1; wherein the amount of the catalyst is 0.01% to 0.05% of the quality of the terephthalic acid; and wherein the granulated slices are brewed and washed with water and a rinsing agent at 120-130°C and 0.2-0.3 MPa for 3-5 hours.
A data storage method, wherein the method comprises: obtaining at least one data record, wherein each data record comprises one carrier identifier and at least one label value; the at least one data record is stored in a data table; and the data table is used to record a correspondence between a carrier identifier and a label value; and creating a bitmap index corresponding to the at least one data record, wherein the bitmap index comprises at least one bitmap; each bitmap corresponds to one label value; each bitmap comprises at least one bitmap position; and each bitmap position is used to record whether a carrier corresponding to one carrier identifier has a label value corresponding to a current bitmap, wherein same bitmap positions in different bitmaps in the bitmap index correspond to a same carrier identifier. obtaining at least one data record, wherein each data record comprises one carrier identifier and at least one label value; the at least one data record is stored in a data table; and the data table is used to record a correspondence between a carrier identifier and a label value; and creating a bitmap index corresponding to the at least one data record, wherein the bitmap index comprises at least one bitmap; each bitmap corresponds to one label value; each bitmap comprises at least one bitmap position; and each bitmap position is used to record whether a carrier corresponding to one carrier identifier has a label value corresponding to a current bitmap, wherein same bitmap positions in different bitmaps in the bitmap index correspond to a same carrier identifier.
Crystals of a salt, or hydrate thereof, of a compound represented by formula (I): wherein the crystals are α crystals, β crystals or γ crystals, wherein the α crystals are crystals of a disodium salt trihydrate of the compound represented by formula (I) for which 2θ(°) shows peaks in powder X-ray diffractometry using Cu as a radiation source at 5.72±0.2, 10.10±0.2, 10.96±0.2, 11.98±0.2, 13.34±0.2, 15.02±0.2, 17.26±0.2, 20.26±0.2, 21.66±0.2, and 22.36±0.2, wherein the β and γ crystals are crystals of a disodium salt, or hydrate thereof, of the compound represented by formula (I), wherein in the case of β crystals, 2θ(°) shows peaks in powder X-ray diffractometry using Cu as a radiation source at 5.82±0.2, 9.78±0.2, 11.18±0.2, 12.26±0.2, 12.86±0.2, 15.38±0.2, 16.34±0.2, 18.34±0.2, 19.68±0.2, and 22.54±0.2, and in the case of γ crystals, 2θ(°) shows peaks in powder X-ray diffractometry using Cu as a radiation source at 5.80±0.2, 9.86±0.2, 12.12±0.2, 12.86±0.2, 15.04±0.2, 16.30±0.2, 18.28±0.2, 19.90±0.2, 20.52±0.2, and 22.58±0.2. wherein the crystals are α crystals, β crystals or γ crystals, wherein the α crystals are crystals of a disodium salt trihydrate of the compound represented by formula (I) for which 2θ(°) shows peaks in powder X-ray diffractometry using Cu as a radiation source at 5.72±0.2, 10.10±0.2, 10.96±0.2, 11.98±0.2, 13.34±0.2, 15.02±0.2, 17.26±0.2, 20.26±0.2, 21.66±0.2, and 22.36±0.2, wherein the β and γ crystals are crystals of a disodium salt, or hydrate thereof, of the compound represented by formula (I), wherein in the case of β crystals, 2θ(°) shows peaks in powder X-ray diffractometry using Cu as a radiation source at 5.82±0.2, 9.78±0.2, 11.18±0.2, 12.26±0.2, 12.86±0.2, 15.38±0.2, 16.34±0.2, 18.34±0.2, 19.68±0.2, and 22.54±0.2, and in the case of γ crystals, 2θ(°) shows peaks in powder X-ray diffractometry using Cu as a radiation source at 5.80±0.2, 9.86±0.2, 12.12±0.2, 12.86±0.2, 15.04±0.2, 16.30±0.2, 18.28±0.2, 19.90±0.2, 20.52±0.2, and 22.58±0.2.
Visual prosthesis apparatus comprising: - a video camera configured to capture a sequence of images; - a processor coupled to the video camera, the processor configured to receive the captured images from the video camera and produce a stimulation signal at least partially in accordance with the captured images; - a stimulation device coupled to the processor, the stimulation device configured to receive the stimulation signal and stimulate visual neurons of a user in accordance with the stimulation signal to provide the user with a visual percept; - an eye monitoring device coupled to the processor such as to monitor one or more ocular parameters of at least one eye region of the user; wherein one or more control functions are associated with the monitored ocular parameters; wherein the processor is configured to control the visual prosthesis apparatus in accordance with the monitored ocular parameters and the associated control functions; and characterized in that the control of the visual prosthesis apparatus by the processor comprises automatically adjusting the video camera in accordance with one or more of the monitored ocular parameters and the associated control functions to adjust the stimulation signal indirectly, the automatic adjusting comprising at least one of: moving at least part of the video camera relative to the user; adjusting an integral zoom of the video camera; adjusting a size of an aperture or iris of the video camera; and turning on or off the video camera. - a video camera configured to capture a sequence of images; - a processor coupled to the video camera, the processor configured to receive the captured images from the video camera and produce a stimulation signal at least partially in accordance with the captured images; - a stimulation device coupled to the processor, the stimulation device configured to receive the stimulation signal and stimulate visual neurons of a user in accordance with the stimulation signal to provide the user with a visual percept; - an eye monitoring device coupled to the processor such as to monitor one or more ocular parameters of at least one eye region of the user;
A method for detecting the presence of a spreading sequence in a sample sequence, the method comprising determining phase differences between samples in the sample sequence ; the method characterized by : detecting presence of a spreading sequence in the sample sequence by evaluating correlation of a plurality of reference sub-sequences, of a reference spreading sequence, to the phase differences , wherein at least one of the reference sub-sequences has fewer chips than the spreading sequence.
Loading and unloading device for a machine for the separating processing of plate-shaped workpieces, having two support struts which are formed in particular on a support frame and are arrangeable on a base frame so as to be vertically movable up and down, having at least one support beam which is mounted on the support struts so as to be horizontally movable, and with at least one loading and unloading module received on the support beam in a movable manner, characterized in that the loading and unloading module has a vertically upwardly aligned lifting device for lifting a freely separated workpiece part and a vertically downwardly aligned gripping device for holding an unprocessed, plate-shaped workpiece .
A method for controlling a robot cleaner, comprising: (a) acquiring an image of an area in front of a main body; (b) selecting a seed pixel from the image acquired in (a) ; (c) obtaining a brightness difference between an upper region and a lower region obtained by horizontally dividing a predetermined detection area to which each of detection target pixels belongs, the detection target pixels including pixels belonging to the same row as the seed pixel in a column adjoining the seed pixel, wherein the upper region and the lower region are identified by a row to which the detection target pixel belongs; (d) selecting a pixel belonging to a detection area having a largest brightness difference from the detection target pixels as a pixel constituting the boundary between objects indicated in the image; (e) detecting a boundary on the basis of pixels selected in (d); and (f) controlling movement of the robot cleaner on the basis of the detected boundary, wherein the seed pixel is selected from pixels within a predetermined specific area in the image, wherein the robot cleaner includes a light projection unit for downward projecting patterned light including a horizontal segment to an area in front of the main body, and wherein the specific area is defined as a predetermined area above the position of a horizontal segment indicated in the image according to light projected by the light projection unit to a horizontal floor on which the main body is located. (a) acquiring an image of an area in front of a main body; (b) selecting a seed pixel from the image acquired in (a) ; (c) obtaining a brightness difference between an upper region and a lower region obtained by horizontally dividing a predetermined detection area to which each of detection target pixels belongs, the detection target pixels including pixels belonging to the same row as the seed pixel in a column adjoining the seed pixel, wherein the upper region and the lower region are identified by a row to which the detection target pixel belongs; (d) selecting a pixel belonging to a detection area having a largest brightness difference from the detection target pixels as a pixel constituting the boundary between objects indicated in the image; (e) detecting a boundary on the basis of pixels selected in (d); and (f) controlling movement of the robot cleaner on the basis of the detected boundary,
An air turbine starter for an engine , comprising: a housing defining an inlet , an outlet , and a flow path extending between the inlet and the outlet for communicating a flow of gas there through; a turbine member journaled within the housing and disposed within the flow path for rotatably extracting mechanical power from the flow of gas and having a turbine output shaft ; a planetary gear system drivingly coupled with the turbine output shaft and including a sun gear , a ring gear mounted to the housing , and a set of planetary gears operably coupling the sun gear and the ring gear where the sun gear is coupled to the turbine output shaft ; and a drive shaft configured to be operably coupled to and rotate with the engine ; wherein the planetary gear system transfers torque from the turbine output shaft to the drive shaft and where the ring gear comprises a flexible ring gear configured to distribute loading among interfaces between the ring gear and the set of planetary gears ; and wherein the flexible ring gear further comprises a set of slots located between a radially inner portion and a radially outer portion of the flexible ring gear . a housing defining an inlet , an outlet , and a flow path extending between the inlet and the outlet for communicating a flow of gas there through; a turbine member journaled within the housing and disposed within the flow path for rotatably extracting mechanical power from the flow of gas and having a turbine output shaft ; a planetary gear system drivingly coupled with the turbine output shaft and including a sun gear , a ring gear mounted to the housing , and a set of planetary gears operably coupling the sun gear and the ring gear where the sun gear is coupled to the turbine output shaft ; and a drive shaft configured to be operably coupled to and rotate with the engine ; wherein the planetary gear system transfers torque from the turbine output shaft to the drive shaft and where the ring gear comprises a flexible ring gear configured to distribute loading among interfaces between the ring gear and the set of planetary gears ; and wherein the flexible ring gear further comprises a set of slots located between a radially inner portion and a radially outer portion of the flexible ring gear .
Circular store for bulk material , wherein the circular store has at least one first storage region for bulk material and one second storage region for bulk material , wherein the first storage region and the second storage region are separated by at least one first partition wall , wherein the circular store has at least one first retrieval device, wherein the first retrieval device is disposed so as to be rotatable about the central axis of the circular store , wherein the central axis is vertically disposed, wherein the first retrieval device has a first conveying member , characterized in that the first retrieval device has a second axis , wherein the second axis by way of a first axial spacing is disposed so as to be parallel to the central axis , wherein the first retrieval device has a first arm , wherein the first arm is rotatable about the central axis , wherein the central axis and the second axis run through the first arm , wherein the first conveying member is connected to the first arm so as to be rotatable about the second axis .