mhurhangee/ep-ind-claims huggingface dataset:
Hinge for a flap, a lid, a door, a wing or the like of a motor vehicle body, comprising a flap-side hinge part and a body-side hinge part, which are pin-connected to one another, and further comprising a stop device with cooperating stop elements (52, 56), which come into active contact with one another in an end position of the hinge in order to limit a mutual displacement of the hinge parts (10, 12), wherein the stop elements (52, 56) comprise a movable stop element and a stationary stop element, wherein each of the two stop elements (52, 56) of the stop device has at least one braking surface, whereby the movable stop element can be located frictionally in the end position of the hinge by means of the stationary stop element, wherein the corresponding braking surfaces of the two stop elements (52, 56) are inclined with respect to the movement direction of the movable stop element, wherein at least one of the two stop elements (52, 56) of the stop device comprises a reversibly yielding material, in particular a plastic material, characterised in that a torsion spring drive with at least one torsion spring is provided for opening the flap or the like, by means of which torsion spring drive the flap-side hinge part can be pivoted relative to the body-side hinge part, wherein the movable stop element is mounted on a swivel arm of the torsion spring drive.
A drilling assembly for drilling a wellbore, comprising: a drive for rotating a drill bit; a deflection device (120; 700); and a sensor (1310, 1320, 1350, 1410, 1450) that provides measurements relating a direction of the drilling assembly for drilling the wellbore along a desired direction, wherein the deflection device (120; 700) enables a lower section (290; 790) of the drilling assembly to tilt within a selected plane when the drilling assembly is substantially rotationally stationary to allow drilling of a curved section of the wellbore when the drill bit is rotated by the drive and wherein the tilt is reduced when the drilling assembly is rotated to allow drilling of a straighter section of the wellbore, characterised in that the lower section (290; 790) of the drilling assembly tilts about a pin (210; 710) of a pivotal connection. a drive for rotating a drill bit; a deflection device (120; 700); and a sensor (1310, 1320, 1350, 1410, 1450) that provides measurements relating a direction of the drilling assembly for drilling the wellbore along a desired direction, wherein the deflection device (120; 700) enables a lower section (290; 790) of the drilling assembly to tilt within a selected plane when the drilling assembly is substantially rotationally stationary to allow drilling of a curved section of the wellbore when the drill bit is rotated by the drive and wherein the tilt is reduced when the drilling assembly is rotated to allow drilling of a straighter section of the wellbore, characterised in that the lower section (290; 790) of the drilling assembly tilts about a pin (210; 710) of a pivotal connection.
A lid comprising: a body having a top wall having a central channel with an opening for pouring the contents from a container wherein the central channel is located in the top wall, at least one port for venting, and a side wall configured to secure the lid to the container, a pair of pins and a pair of slots forming a hinge; a flip closure configured to rotate on the hinge from an opened position to a closed position, the flip closure comprising a stopper configured to selectively seal the opening; characterized in that: the stopper is configured to be inserted into the opening, and fits within the opening, and is larger than the opening, wherein a sealing-interference fit is formed between the stopper and the opening; the pair of pins extends from the central channel; the flip closure further comprises the pair of slots, wherein a pair of gaskets is formed in the pair of slots and the gaskets receive the pair of pins of the body; and the flip closure further comprises a cam configured to engage the body to maintain the flip closure in the opened position. a body having a top wall having a central channel with an opening for pouring the contents from a container wherein the central channel is located in the top wall, at least one port for venting, and a side wall configured to secure the lid to the container, a pair of pins and a pair of slots forming a hinge; a flip closure configured to rotate on the hinge from an opened position to a closed position, the flip closure comprising a stopper configured to selectively seal the opening; characterized in that: the stopper is configured to be inserted into the opening, and fits within the opening, and is larger than the opening, wherein a sealing-interference fit is formed between the stopper and the opening; the pair of pins extends from the central channel; the flip closure further comprises the pair of slots, wherein a pair of gaskets is formed in the pair of slots and the gaskets receive the pair of pins of the body; and the flip closure further comprises a cam configured to engage the body to maintain the flip closure in the opened position. the stopper is configured to be inserted into the opening, and fits within the opening, and is larger than the opening, wherein a sealing-interference fit is formed between the stopper and the opening; the pair of pins extends from the central channel; the flip closure further comprises the pair of slots, wherein a pair of gaskets is formed in the pair of slots and the gaskets receive the pair of pins of the body; and the flip closure further comprises a cam configured to engage the body to maintain the flip closure in the opened position.
A pump for supplying an application system of a liquid covering product, comprising a motor actuating at least two pistons (5, 6), the pump comprising a drum rotated by the motor, the drum comprising an outer cylindrical surface having a cam profile, each of the pistons being secured to a rod (51, 61) on which a roller (53, 63) is fastened rolling over the cam profile such that the roller connected to each of the pistons via one of the rods is translated along the translation axis (X-X') of the corresponding piston (5, 6) under the action of the rotation of the drum, each of the rollers being in contact with the cam profile in an angularly offset position relative to the position of the other rollers such that one of the pistons is moving when the other piston reaches an inversion point of the movement direction, characterized in that it comprises compensating means (97; 10; 100) suitable for accelerating one of the pistons (5, 6) when another piston (5, 6) reaches an inversion point of its movement direction, said compensating means comprising means for accelerating the rotation speed of the drum during a predetermined length of time before and after the passage of one of the pistons (5, 6) by its inversion point.
A compound selected from: and wherein: R 1 is -C OC(R 4)(R 5)-OC (G 12) m R 6; wherein each R 4 and R 5 is independently selected from hydrogen, C 1 -C 3 alkyl, aryl or substituted aryl; preferably, hydrogen or methyl; G 12 is selected from absent, NH, CH 2, -S- or -O-; m is 0 or 1; and, R 6 is selected from C 13 -C 26 -alkyl, substituted C 13 -C 26 -alkyl, C 13 -C 26 -alkenyl, substituted C 13 -C 26 -alkenyl, C 13 -C 26 -alkynyl, substituted C 13 -C 26 -alkynyl, C 13 -C 26 -cycloalkyl, and substituted C 13 -C 26 -cycloalkyl, aryl-C 13 -C 26 -alkyl, substituted aryl-C 13 -C 26 -alkyl, heteroaryl-C 13 -C 26 -alkyl, substituted heteroaryl-C 13 -C 26 -alkyl; optionally substituted C 13 -C 26 -alkylaryl, optionally substituted C 13 -C 26 -alkenylaryl and optionally substituted C 13 -C 26 -alkynylaryl; or a pharmaceutically acceptable salt thereof. R 1 is -C OC(R 4)(R 5)-OC (G 12) m R 6; wherein each R 4 and R 5 is independently selected from hydrogen, C 1 -C 3 alkyl, aryl or substituted aryl; preferably, hydrogen or methyl; G 12 is selected from absent, NH, CH 2, -S- or -O-; m is 0 or 1; and, R 6 is selected from C 13 -C 26 -alkyl, substituted C 13 -C 26 -alkyl, C 13 -C 26 -alkenyl, substituted C 13 -C 26 -alkenyl, C 13 -C 26 -alkynyl, substituted C 13 -C 26 -alkynyl, C 13 -C 26 -cycloalkyl, and substituted C 13 -C 26 -cycloalkyl, aryl-C 13 -C 26 -alkyl, substituted aryl-C 13 -C 26 -alkyl, heteroaryl-C 13 -C 26 -alkyl, substituted heteroaryl-C 13 -C 26 -alkyl; optionally substituted C 13 -C 26 -alkylaryl, optionally substituted C 13 -C 26 -alkenylaryl and optionally substituted C 13 -C 26 -alkynylaryl;
A remote access and control system for test and measurement setups, the remote access and control system comprising: at least one virtual network, wherein the at least one virtual network is persistently defined as a set of test and measurement instruments and accompanying hardware (12, 13, 14, 15, 16), characterized in that the remote access and control system is configured to set up a connection with at least one particular measurement device of the set of test and measurement instruments and accompanying hardware (12, 13, 14, 15, 16) via the virtual network in order to control the at least one particular measurement device, wherein the connection comprises or is based on a virtual instrument software architecture, VISA, connection. at least one virtual network, wherein the at least one virtual network is persistently defined as a set of test and measurement instruments and accompanying hardware (12, 13, 14, 15, 16), characterized in that the remote access and control system is configured to set up a connection with at least one particular measurement device of the set of test and measurement instruments and accompanying hardware (12, 13, 14, 15, 16) via the virtual network in order to control the at least one particular measurement device, wherein the connection comprises or is based on a virtual instrument software architecture, VISA, connection.
A monitoring system for an agricultural implement having a plurality of row units,comprising: a seed meter, a seed conveyor having a forward side and a rearward side, said seed conveyor being disposed to receive seeds from said seed meter, said seed conveyor comprising a belt, said belt having a plurality of flights configured to convey said seeds, wherein said seed conveyor is configured to guide said seeds down said forward side of said seed conveyor to a lower end of said seed conveyor, wherein said seed conveyor is configured to release said seeds from said lower end, and wherein said flights ascend said rearward side without said seeds; a first seed sensor mounted to said forward side of said conveyor, said first seed sensor disposed to detect the presence of seeds and flights descending said forward side of said seed conveyor; a motor configured to drive said seed conveyor; a speed sensor configured to measure a travel speed of the row unit associated with said seed conveyor; a second seed sensor mounted to said rearward side of said seed conveyor, said second seed sensor disposed to detect the presence of flights ascending said rearward side of said seed conveyor; and a monitor including a processor, said monitor being in data communication with said motor, said speed sensor, said first seed sensor, and said second seed sensor, wherein said monitor determines a desired motor speed to match a seed release speed to said travel speed, and wherein said monitor commands said motor to modify an actual speed of said motor to said desired motor speed. a seed meter, a seed conveyor having a forward side and a rearward side, said seed conveyor being disposed to receive seeds from said seed meter, said seed conveyor comprising a belt, said belt having a plurality of flights configured to convey said seeds, wherein said seed conveyor is configured to guide said seeds down said forward side of said seed conveyor to a lower end of said seed conveyor, wherein said seed conveyor is configured to release said seeds from said lower end, and wherein said flights ascend said rearward side without said seeds; a first seed sensor mounted to said forward side of said conveyor, said first seed sensor disposed to detect the presence of seeds and flights descending said forward side of said seed conveyor; a motor configured to drive said seed conveyor; a speed sensor configured to measure a travel speed of the row unit associated with said seed conveyor; a second seed sensor mounted to said rearward side of said seed conveyor, said second seed sensor disposed to detect the presence of flights ascending said rearward side of said seed conveyor; and a monitor including a processor, said monitor being in data communication with said motor, said speed sensor, said first seed sensor, and said second seed sensor, wherein said monitor determines a desired motor speed to match a seed release speed to said travel speed, and wherein said monitor commands said motor to modify an actual speed of said motor to said desired motor speed.
A printer, comprising: a printer housing; a photoconductor supported in the printer housing to apply toner to a print substrate; a developer supported in the printer housing to apply toner to the photoconductor; a light source to expose parts of the photoconductor to light; and a toner container to supply toner to the developer, the toner container having a container housing enclosing a toner supply reservoir operatively connected to the developer, the container housing integrated into the printer housing as a load bearing structure and the supply reservoir having a capacity sufficient to store enough toner to print a minimum number of pages that corresponds to a predetermined expected useful life of the printer, wherein: an exterior of the container housing defines an opening through which the light may pass from the light source to the photoconductor; and an interior of the container housing defines the supply reservoir, the supply reservoir surrounding the opening and including a lower chamber extending laterally under the opening and an upper chamber extending laterally over the opening, the upper chamber connected to the lower chamber at least at both sides of the opening along a full length of the opening. a printer housing; a photoconductor supported in the printer housing to apply toner to a print substrate; a developer supported in the printer housing to apply toner to the photoconductor; a light source to expose parts of the photoconductor to light; and a toner container to supply toner to the developer, the toner container having a container housing enclosing a toner supply reservoir operatively connected to the developer, the container housing integrated into the printer housing as a load bearing structure and the supply reservoir having a capacity sufficient to store enough toner to print a minimum number of pages that corresponds to a predetermined expected useful life of the printer, wherein: an exterior of the container housing defines an opening through which the light may pass from the light source to the photoconductor; and an interior of the container housing defines the supply reservoir, the supply reservoir surrounding the opening and including a lower chamber extending laterally under the opening and an upper chamber extending laterally over the opening, the upper chamber connected to the lower chamber at least at both sides of the opening along a full length of the opening. an exterior of the container housing defines an opening through which the light may pass from the light source to the photoconductor; and an interior of the container housing defines the supply reservoir, the supply reservoir surrounding the opening and including a lower chamber extending laterally under the opening and an upper chamber extending laterally over the opening, the upper chamber connected to the lower chamber at least at both sides of the opening along a full length of the opening.
An X-ray radiation generating device (300,500) comprising: a tube including an anode, a cathode and at least one gate; a first power supply circuit (120, 520) in which one side of an output terminal is connected to the anode; a second power supply circuit in which one side of an output terminal is connected to the gate; and a current-sensing circuit connected to the tube and sensing a current flowing through the cathode, characterised in that the current-sensing circuit includes a first adder and at least one resistance for sensing an anode current or a gate current, wherein the at least one resistance includes: a fourth resistance having one side connected to the cathode and the other side connected to a ground terminal; and a fifth resistance having one side connected to the fourth resistance and the ground terminal, and the other side is connected to one side of an input terminal of the first adder, wherein the other side of the fifth resistance is connected to the other side of an output terminal of the second power supply circuit. a tube including an anode, a cathode and at least one gate; a first power supply circuit (120, 520) in which one side of an output terminal is connected to the anode; a second power supply circuit in which one side of an output terminal is connected to the gate; and a current-sensing circuit connected to the tube and sensing a current flowing through the cathode, characterised in that the current-sensing circuit includes a first adder and at least one resistance for sensing an anode current or a gate current, wherein the at least one resistance includes: a fourth resistance having one side connected to the cathode and the other side connected to a ground terminal; and a fifth resistance having one side connected to the fourth resistance and the ground terminal, and the other side is connected to one side of an input terminal of the first adder, wherein the other side of the fifth resistance is connected to the other side of an output terminal of the second power supply circuit. a fourth resistance having one side connected to the cathode and the other side connected to a ground terminal; and a fifth resistance having one side connected to the fourth resistance and the ground terminal, and the other side is connected to one side of an input terminal of the first adder, wherein the other side of the fifth resistance is connected to the other side of an output terminal of the second power supply circuit.
A dental restoration comprising: a lithium silicate glass ceramic heated and pressed onto a metal alloy substrate, the metal alloy substrate being shaped to conform to a base impression or scan of the relevant portion of the mouth, characterised in that the lithium silicate glass ceramic has a flexural strength of between 300 to 380 MPa and is shaped to replicate the dental structure being restored, and the coefficient of thermal expansion of the metal alloy is in the range of 12 to 13.5 x 10 -6 /K, and the coefficient of thermal expansion of the lithium silicate glass ceramic is in the range of 11.5 to 12.5 x 10 -6 /K, wherein the coefficient of thermal expansion of the metal alloy is selected to be slightly greater than the coefficient of thermal expansion of the lithium silicate glass ceramic. a lithium silicate glass ceramic heated and pressed onto a metal alloy substrate, the metal alloy substrate being shaped to conform to a base impression or scan of the relevant portion of the mouth, characterised in that the lithium silicate glass ceramic has a flexural strength of between 300 to 380 MPa and is shaped to replicate the dental structure being restored, and the coefficient of thermal expansion of the metal alloy is in the range of 12 to 13.5 x 10 -6 /K, and the coefficient of thermal expansion of the lithium silicate glass ceramic is in the range of 11.5 to 12.5 x 10 -6 /K, wherein the coefficient of thermal expansion of the metal alloy is selected to be slightly greater than the coefficient of thermal expansion of the lithium silicate glass ceramic.
An oil-in-water personal care composition comprising: a) hydrophobically modified particles selected from the group consisting of silica, metal oxide and mixtures thereof; b) amino functionalized silicone; and c) hydrophobic starch. a) hydrophobically modified particles selected from the group consisting of silica, metal oxide and mixtures thereof; b) amino functionalized silicone; and c) hydrophobic starch.
A baseband data compression device for compressing an LTE uplink baseband signal, comprising: a signal obtaining module, configured to obtain a physical uplink shared channel PUSCH signal according to an uplink time-domain baseband signal of a user; a frequency-time transform module, configured to perform inverse discrete Fourier transform IDFT on the PUSCH signal to obtain a time-domain PUSCH signal; an amplitude/phase conversion module, configured to perform amplitude/phase conversion on the time-domain PUSCH signal to obtain an amplitude signal and a phase signal of the time-domain PUSCH signal; and a quantization module, configured to perform amplitude quantization and phase quantization on the amplitude signal and the phase signal of the time-domain PUSCH signal respectively to obtain a quantized amplitude signal and a quantized phase signal of the time-domain PUSCH signal. a signal obtaining module, configured to obtain a physical uplink shared channel PUSCH signal according to an uplink time-domain baseband signal of a user; a frequency-time transform module, configured to perform inverse discrete Fourier transform IDFT on the PUSCH signal to obtain a time-domain PUSCH signal; an amplitude/phase conversion module, configured to perform amplitude/phase conversion on the time-domain PUSCH signal to obtain an amplitude signal and a phase signal of the time-domain PUSCH signal; and a quantization module, configured to perform amplitude quantization and phase quantization on the amplitude signal and the phase signal of the time-domain PUSCH signal respectively to obtain a quantized amplitude signal and a quantized phase signal of the time-domain PUSCH signal.
A distributed antenna system comprising: means for simulcasting downlink transmissions with a first remote antenna unit; and means for simulcasting the downlink transmissions with a second remote antenna unit, wherein the second remote antenna unit is positioned so that a coverage area associated with the second remote antenna unit is not adjacent to a coverage area associated with the first remote antenna unit, and wherein the first remote antenna unit and the second remote antenna unit form part of a simulcasting group of remote antenna units comprising respective coverage areas that are not adjacent to a respective coverage area of the other remote antenna units of the simulcasting group. means for simulcasting downlink transmissions with a first remote antenna unit; and means for simulcasting the downlink transmissions with a second remote antenna unit, wherein the second remote antenna unit is positioned so that a coverage area associated with the second remote antenna unit is not adjacent to a coverage area associated with the first remote antenna unit, and wherein the first remote antenna unit and the second remote antenna unit form part of a simulcasting group of remote antenna units comprising respective coverage areas that are not adjacent to a respective coverage area of the other remote antenna units of the simulcasting group.