mhurhangee/patent-ind-claim-en huggingface dataset:
A straddle electric vehicle which drives by a driving power generated by an electric motor , comprising: a charging connector to which an outside connector connected to an outside electric power supply may be detachably attached; a battery which charges therein electric power supplied from the outside electric power supply , when the outside connector is attached to the charging connector , and discharges the electric power stored therein to supply the electric power to the electric motor ; a seat on which a passenger is seated; and a battery case disposed between the seat and a front wheel to accommodate the battery , wherein the charging connector is attached to an upper portion of the battery case , and a charging port of the charging connector is positioned forward relative to and above the seat ., wherein an upper surface of the battery case has a protruding section , and wherein the charging connector is accommodated in the protruding section , and the charging port is provided in a rear side of the protruding section . a charging connector to which an outside connector connected to an outside electric power supply may be detachably attached; a battery which charges therein electric power supplied from the outside electric power supply , when the outside connector is attached to the charging connector , and discharges the electric power stored therein to supply the electric power to the electric motor ; a seat on which a passenger is seated; and a battery case disposed between the seat and a front wheel to accommodate the battery , wherein the charging connector is attached to an upper portion of the battery case , and a charging port of the charging connector is positioned forward relative to and above the seat ., wherein an upper surface of the battery case has a protruding section , and wherein the charging connector is accommodated in the protruding section , and the charging port is provided in a rear side of the protruding section .
An accumulator for carrying bales (B1, B2) received from a baling chamber of an agricultural baler , the accumulator and the agricultural baler configured to move in a direction of travel across a field to form bales (B1, B2), the accumulator comprising: a base frame mountable behind the baler ; a carriage mounted to the base frame to be movable relative to the base frame in a lateral direction, wherein the lateral direction is transverse to the direction of travel, the carriage having a platform and first and second upstanding side walls defining a crop package receiving area therebetween; and at least one actuator mounted to the base frame and configured to move the carriage relative to the base frame or to move the carriage in response to a bale (B1, B2) engaging one of the upstanding side walls , such that the platform and the first and second upstanding side walls are moved laterally relative to the base frame characterized in that , the crop package receiving area having a fixed lateral width during all movement of the carriage relative to the base frame . a base frame mountable behind the baler ; a carriage mounted to the base frame to be movable relative to the base frame in a lateral direction, wherein the lateral direction is transverse to the direction of travel, the carriage having a platform and first and second upstanding side walls defining a crop package receiving area therebetween; and at least one actuator mounted to the base frame and configured to move the carriage relative to the base frame or to move the carriage in response to a bale (B1, B2) engaging one of the upstanding side walls , such that the platform and the first and second upstanding side walls are moved laterally relative to the base frame characterized in that , the crop package receiving area having a fixed lateral width during all movement of the carriage relative to the base frame .
Device for detecting a state of a window or door, comprising at least one first sensor unit for detecting a state of an open, tilted or closed window/door, and at least one second sensor unit for detecting a further state of the window or door, wherein this state comprises vibrations or oscillations which are brought about by the action of force, and comprising a control device with an adaptation unit for the at least one second sensor unit , two evaluation units for in each case one of the sensor units and a transmitter unit , characterized in that the first sensor unit for detecting the state of the window or door has a potentiometer as the first sensor and an actuator connected thereto, wherein an additional evaluation unit is provided which is assigned to the first sensor unit and examines its output signals for oscillations.
Optical waveguiding part (100;200;300;400;500;600), which waveguiding part is arranged to convey light through an output facet of the waveguiding part, which waveguiding part comprises a ridge waveguide comprising a semiconductor substrate (120;220;320;420;520;620) and a semiconductor light-conveying ridge, wherein the output facet is set at an angle (α) in relation to a main direction (z) of light along the said waveguide, so that light travelling in the waveguide along said main direction has an angle of incidence towards the facet of between 2° and 14° and is reflected towards a first side (101;201;301;401;501) of the said ridge, characterised in that the waveguide comprises an MMI (Multi Mode Interferometer) (110;210;310;410;510;610), arranged to create an output image substantially at the output facet, wherein an output end of the MMI (110;210;310;410;510;610) substantially coincides with the output facet .
A method for producing a filled waffle using a waffle iron-type apparatus for cooking a food preparation, said apparatus comprising a set of plates which comprises a lower plate and an upper plate as well as a device for heating the two plates, of which at least the lower plate comprises at least one base extending along a surface and at least one first area provided with teeth spaced apart and projecting from the surface , said lower plate comprising at least one second area without teeth and separate from the at least one first area , the at least one second area defining at the surface a space for receiving a food filling to be filled during the cooking of a food preparation, the method comprising the steps consisting of: - pouring the liquid batter onto the lower plate , - placing the food filling on the still-liquid batter covering the at least one second area of the lower plate , which has no teeth, - bringing the upper plate to face the lower plate , - continuing to cook the batter until it is fully cooked. - pouring the liquid batter onto the lower plate , - placing the food filling on the still-liquid batter covering the at least one second area of the lower plate , which has no teeth, - bringing the upper plate to face the lower plate , - continuing to cook the batter until it is fully cooked.
An autoinjector device comprising: a housing ; a syringe assembly slidably mounted on the housing, the syringe assembly including a needle and a fluid container ; an autoinjector actuator for urging the syringe assembly with respect to the housing from a storage position to a launch position; a needle cap remover; and a cap releasably engaged to the housing, the cap having a protruding pocket for receiving the needle cap remover; the needle cap remover comprising a connector having: a base ; and a plurality of first legs (702a-702d) spaced symmetrically away from one another and extending proximally from the base, characterized by comprising a plurality of second legs (706a-706d) extending proximally from the base and having a tip (707a-707d) that flares outwardly towards the protruding pocket, wherein at least one of the second legs is positioned between two of the first legs. a syringe assembly slidably mounted on the housing, the syringe assembly including a needle and a fluid container ; an autoinjector actuator for urging the syringe assembly with respect to the housing from a storage position to a launch position; a needle cap remover; and a cap releasably engaged to the housing, the cap having a protruding pocket for receiving the needle cap remover; the needle cap remover comprising a connector having: a base ; and a plurality of first legs (702a-702d) spaced symmetrically away from one another and extending proximally from the base, characterized by comprising a plurality of second legs (706a-706d) extending proximally from the base and having a tip (707a-707d) that flares outwardly towards the protruding pocket, wherein at least one of the second legs is positioned between two of the first legs. a base ; and a plurality of first legs (702a-702d) spaced symmetrically away from one another and extending proximally from the base, characterized by comprising a plurality of second legs (706a-706d) extending proximally from the base and having a tip (707a-707d) that flares outwardly towards the protruding pocket, wherein at least one of the second legs is positioned between two of the first legs.
A particulate material consisting of a plurality of composite particles, wherein the composite particles comprise: (a) a porous carbon framework comprising micropores and mesopores, wherein the micropores and mesopores have a total pore volume as measured by gas adsorption according to the method in the description of P 1 cm 3 /g, wherein P 1 represents a number having a value of from 0.5 to 1.5, wherein the PD 90 pore diameter measured according to the method in the description is at least 3 nm and less 12 nm; and wherein the micropore volume fraction based on P 1 is from 0.43 to 0.85; and (b) a plurality of nanoscale elemental silicon domains located within the pores of the porous carbon framework, wherein the particulate material comprises from 25 to 65 wt% silicon, wherein at least 20 wt% of the silicon is surface silicon as determined by thermogravimetric analysis (TGA) according to the method in the description, and wherein the composite particles have a total oxygen content of less than 15 wt%. (a) a porous carbon framework comprising micropores and mesopores, wherein the micropores and mesopores have a total pore volume as measured by gas adsorption according to the method in the description of P 1 cm 3 /g, wherein P 1 represents a number having a value of from 0.5 to 1.5, wherein the PD 90 pore diameter measured according to the method in the description is at least 3 nm and less 12 nm; and wherein the micropore volume fraction based on P 1 is from 0.43 to 0.85; and wherein the micropores and mesopores have a total pore volume as measured by gas adsorption according to the method in the description of P 1 cm 3 /g, wherein P 1 represents a number having a value of from 0.5 to 1.5, wherein the PD 90 pore diameter measured according to the method in the description is at least 3 nm and less 12 nm; and wherein the micropore volume fraction based on P 1 is from 0.43 to 0.85; and (b) a plurality of nanoscale elemental silicon domains located within the pores of the porous carbon framework,
An industrial fabric with a binding structure for binding both ends of a fabric with ends to form it into an endless type comprises loops formed by bending a portion or all ends of warp constituting the fabric at both ends and folding it back, the loop at the one end constitutes a binding loop (2; 11, 15) which forms a common hole (3; 12, 22) into which a core wire (7; 17, 27) is introduced, characterized in that the loop at the other end portion which is opposed to the binding loop (2; 11, 15) to form a pair with said binding loop comprises a structure into which said binding loop (2; 11, 15) is fitted and against which said binding loop is locked, and forms a loop hole into which the core wire is not introduced.
A pulse generator, comprising: electrode nodes , wherein each of the electrode nodes is configured to be coupled to one of a plurality of electrodes in contact with a patient's tissue; stimulation circuity comprising first memory locations configured to store data for consecutive first phases of a first stimulation pulse in consecutive ones of the first memory locations; digital-to-analog converter (DAC) circuitry configured to form the consecutive first pulse phases at selected ones of the electrode nodes, wherein the DAC circuity is powered by a compliance voltage; and compliance circuitry configured to process voltages at the electrode nodes to determine whether to adjust the compliance voltage; wherein at least some of the first memory locations are each formatted to include compliance voltage monitoring data along with the data for one of the first pulse phases, wherein the compliance voltage monitoring data is configured to be set or not set with an instruction, wherein the instruction is configured to instruct the compliance circuitry to process the voltages at the selected electrode nodes during the first pulse phase whose data is stored in one of the first memory locations with the instruction. electrode nodes , wherein each of the electrode nodes is configured to be coupled to one of a plurality of electrodes in contact with a patient's tissue; stimulation circuity comprising first memory locations configured to store data for consecutive first phases of a first stimulation pulse in consecutive ones of the first memory locations; digital-to-analog converter (DAC) circuitry configured to form the consecutive first pulse phases at selected ones of the electrode nodes, wherein the DAC circuity is powered by a compliance voltage; and compliance circuitry configured to process voltages at the electrode nodes to determine whether to adjust the compliance voltage; wherein at least some of the first memory locations are each formatted to include compliance voltage monitoring data along with the data for one of the first pulse phases, wherein the compliance voltage monitoring data is configured to be set or not set with an instruction, wherein the instruction is configured to instruct the compliance circuitry to process the voltages at the selected electrode nodes during the first pulse phase whose data is stored in one of the first memory locations with the instruction.
A reciprocating pump , comprising: a power end having a motor, a crankshaft rotationally engaged with the motor, and a crank arm rotationally engaged with the crankshaft; and a fluid end operatively connected to the power end and including a plunger , a cylinder configured to operatively engage the plunger , and an end block , the plunger , the cylinder , and the end block each being fabricated from a high toughness martensitic stainless steel composition comprising between 0.00 % and 0.06% by weight carbon, between 0.00 % and 1.50 % by weight manganese, between 0.00 % and 0.040 % by weight phosphorous, between 0.00 % and 0.030 % by weight sulfur, between 0.00 % and 0.70 % by weight silicon, between 11.50 % and 17.00 % by weight chromium, between 3.50 % and 6.00 % by weight nickel, between 0.30 % and 1.50 % by weight molybdenum, between 0.01 % and 0.20% by weight vanadium, between 0.000 % and 0.060% by weight of aluminum, between 0.00 % and 0.20 % by weight niobium, a ratio of niobium to carbon being 6 or less, and a balance of iron. a power end having a motor, a crankshaft rotationally engaged with the motor, and a crank arm rotationally engaged with the crankshaft; and a fluid end operatively connected to the power end and including a plunger , a cylinder configured to operatively engage the plunger , and an end block , the plunger , the cylinder , and the end block each being fabricated from a high toughness martensitic stainless steel composition comprising between 0.00 % and 0.06% by weight carbon, between 0.00 % and 1.50 % by weight manganese, between 0.00 % and 0.040 % by weight phosphorous, between 0.00 % and 0.030 % by weight sulfur, between 0.00 % and 0.70 % by weight silicon, between 11.50 % and 17.00 % by weight chromium, between 3.50 % and 6.00 % by weight nickel, between 0.30 % and 1.50 % by weight molybdenum, between 0.01 % and 0.20% by weight vanadium, between 0.000 % and 0.060% by weight of aluminum, between 0.00 % and 0.20 % by weight niobium, a ratio of niobium to carbon being 6 or less, and a balance of iron.
A frame for a window or door comprising a panel secured to said frame , a tag having a smart chip secured thereto said smart tag being hidden from view from the exterior of said frame , characterized in said frame having a tag receiving recess defined within the interior of said frame and the smart chip being disposed within said recess , and said frame having location indicia visible from the exterior thereof and being disposed generally adjacent to said hidden smart chip , the frame being operatively associated with a glazing bead and provided with a channel and the smart chip being positioned into the tag receiving recess through an opening in the channel and underlying the glazing bead , the glazing bead having a projection being mechanically secured within the channel and having a seal being against the insulated window .
Method for identifying a faulty current sensor in an electrical appliance, in which the electrical supply to the electrical appliance is at least partly provided by a switched-mode power supply circuit connected to at least one current sensor which draws an electric current from a phase conductor of an electrical installation , the supply circuit supplying a regulated electric voltage (VMITOP), characterised in that the method comprises the steps of: - determining (S100) a switching duty cycle of a power switch of the switch mode power supply; - analyse (S102) the determined switching duty cycle; - identify (S104) a failure condition if the switching duty cycle behaviour is indicative of a failure of at least one of the current sensors. - determining (S100) a switching duty cycle of a power switch of the switch mode power supply; - analyse (S102) the determined switching duty cycle; - identify (S104) a failure condition if the switching duty cycle behaviour is indicative of a failure of at least one of the current sensors.
A system for providing therapy for a motor deficit of a stroke patient, comprising; an implantable stimulation system comprising an implantable pulse generator , an electrode and a lead coupling the implantable pulse generator to the electrodes, wherein the implantable stimulation system is configured to stimulate a patient's vagus nerve; a clinical controller comprising a processor, stimulation control software, manual interfaces and a display; an external communication device configured to communicate between the clinical controller and the implantable stimulation system ; and a manual input device configured to communicate with the clinical controller, wherein the manual input device is configured to be engaged during performance of a therapeutic task, wherein the system is configured to perform the following when the manual input device is engaged: - the clinical controller sends a signal to the external communication device , - the external communication device sends a signal to the implantable stimulation system , - the implantable stimulation system receives the signal at the implantable pulse generator and generates stimulation of the vagus nerve at the electrodes during the performance of the therapeutic task. - the clinical controller sends a signal to the external communication device , - the external communication device sends a signal to the implantable stimulation system , - the implantable stimulation system receives the signal at the implantable pulse generator and generates stimulation of the vagus nerve at the electrodes during the performance of the therapeutic task.
A method of quantifying chimeric cfDNA in a sample from a patient, the method comprising: (a) providing a cell-free DNA (cfDNA) sample from a blood, serum or plasma sample obtained from a patient; (b) performing a multiplex digital PCR comprising at least a first amplification and a second amplification, wherein the first amplification targets a first single copy genomic locus and results in production of a first amplicon and a second amplification targets a second single copy genomic locus and results in production of a second amplicon, wherein the first and second amplicon differ in length by at least 50 base pairs; (c) determining the proportion of the first or second amplicon in the total amplified product from the digital PCR of step (b) to provide a correction factor for the amplifiable fraction of the cfDNA sample, and (d) correcting a diagnostic digital PCR performed on the cfDNA sample to evaluate the level of chimeric DNA present in the sample using the correction factor determined in step (c). (a) providing a cell-free DNA (cfDNA) sample from a blood, serum or plasma sample obtained from a patient; (b) performing a multiplex digital PCR comprising at least a first amplification and a second amplification, wherein the first amplification targets a first single copy genomic locus and results in production of a first amplicon and a second amplification targets a second single copy genomic locus and results in production of a second amplicon, wherein the first and second amplicon differ in length by at least 50 base pairs; (c) determining the proportion of the first or second amplicon in the total amplified product from the digital PCR of step (b) to provide a correction factor for the amplifiable fraction of the cfDNA sample, and (d) correcting a diagnostic digital PCR performed on the cfDNA sample to evaluate the level of chimeric DNA present in the sample using the correction factor determined in step (c).
An aircraft wing, comprising: a rear spar having a rear side and a front side opposite the rear side; and a forward trunnion support assembly including: a first vertical support fitting and a second vertical support fitting coupled to the rear side of the rear spar ; a trunnion housing having a bearing , the trunnion housing coupled between the first and second vertical support fittings and having first and second shoulders formed on a top side of the trunnion housing, each of the first and second shoulders having a respective channel formed on a respective top portion thereof; and a fuse pin received within the channels (615, 617; 1228, 1230) and having a first end extending through the first vertical support fitting and a second end extending through the second vertical support fitting . a rear spar having a rear side and a front side opposite the rear side; and a forward trunnion support assembly including: a first vertical support fitting and a second vertical support fitting coupled to the rear side of the rear spar ; a trunnion housing having a bearing , the trunnion housing coupled between the first and second vertical support fittings and having first and second shoulders formed on a top side of the trunnion housing, each of the first and second shoulders having a respective channel formed on a respective top portion thereof; and a fuse pin received within the channels (615, 617; 1228, 1230) and having a first end extending through the first vertical support fitting and a second end extending through the second vertical support fitting . a first vertical support fitting and a second vertical support fitting coupled to the rear side of the rear spar ; a trunnion housing having a bearing , the trunnion housing coupled between the first and second vertical support fittings and having first and second shoulders formed on a top side of the trunnion housing, each of the first and second shoulders having a respective channel formed on a respective top portion thereof; and a fuse pin received within the channels (615, 617; 1228, 1230) and having a first end extending through the first vertical support fitting and a second end extending through the second vertical support fitting .