mhurhangee/ep-ind-claims huggingface dataset:
An induction heated roll apparatus comprising: a roll main body that is rotatably supported; and an induction heating mechanism that is provided inside the roll main body and has an induction coil for allowing the roll main body to inductively generate heat, and allowing the roll main body to inductively generate heat by applying alternating current voltage having a commercial frequency to the induction coil, wherein on an inner circumferential surface of the roll main body, a secondary conductor is formed by build-up welding, characterized in that the secondary conductor is made of aluminum bronze, and a surface of the secondary conductor is not subjected to a rust-proofing process. a roll main body that is rotatably supported; and an induction heating mechanism that is provided inside the roll main body and has an induction coil for allowing the roll main body to inductively generate heat, and allowing the roll main body to inductively generate heat by applying alternating current voltage having a commercial frequency to the induction coil, wherein on an inner circumferential surface of the roll main body, a secondary conductor is formed by build-up welding, characterized in that the secondary conductor is made of aluminum bronze, and a surface of the secondary conductor is not subjected to a rust-proofing process.
A set of essentially identical floor panels provided with a mechanical locking system comprising a flexible tongue, which is arranged in a displacement groove at a first edge of a first panel, and a tongue groove at a second edge of an adjacent second panel, the flexible tongue being configured to cooperate with the tongue groove for locking of the first and the second edges in a vertical direction, wherein: the flexible tongue comprises a sliding surface and a locking surface, and the flexible tongue is a straight rod shaped component, wherein the locking system comprises two or more cavities (22a, 22b) and protrusions formed along portions of side edges of the first and second panels in their length direction, the cavities (22a, 22b) are formed at the inner part of the displacement groove and comprise upper, inner and lower cavity walls (26, 27, 28) and a horizontal opening, and the protrusions comprise a sliding edge which is configured to cooperate with the sliding surface of the flexible tongue during locking and the cavities (22a, 22b) and protrusions are configured to be located adjacent to each other such that a protrusion displaces and bends a flexible tongue section (Ts1, Ts2) into a cavity (22a, 22b), the flexible tongue section (Ts1, Ts2) being configured to move back outwardly in a final stage of the locking such that the locking surface is inserted into the tongue groove. the flexible tongue comprises a sliding surface and a locking surface, and the flexible tongue is a straight rod shaped component, wherein the locking system comprises two or more cavities (22a, 22b) and protrusions formed along portions of side edges of the first and second panels in their length direction, the cavities (22a, 22b) are formed at the inner part of the displacement groove and comprise upper, inner and lower cavity walls (26, 27, 28) and a horizontal opening, and the protrusions comprise a sliding edge which is configured to cooperate with the sliding surface of the flexible tongue during locking and the cavities (22a, 22b) are formed at the inner part of the displacement groove and comprise upper, inner and lower cavity walls (26, 27, 28) and a horizontal opening, and the protrusions comprise a sliding edge which is configured to cooperate with the sliding surface of the flexible tongue during locking and the cavities (22a, 22b) and protrusions are configured to be located adjacent to each other such that a protrusion displaces and bends a flexible tongue section (Ts1, Ts2) into a cavity (22a, 22b), the flexible tongue section (Ts1, Ts2) being configured to move back outwardly in a final stage of the locking such that the locking surface is inserted into the tongue groove.
A vacuum cleaner comprising: a dust collector housing forming a compartment for collecting dust transported by an air flow generated by a motor assembly located externally of the compartment; an opening in a wall of the housing for allowing air to flow out of the compartment towards a fan of the motor assembly; a structure (28, 48, 58) provided upstream of the opening and comprising a substantially solid wall portion (28a, 48a, 58a) providing a sound reflective surface for reflecting sound waves from the motor assembly, the structure (28, 48, 58) being arranged such that a clearance is formed between at least a region of the wall around the opening and the structure (28, 48, 58) to allow air from upstream of the structure to enter the opening via the clearance, characterized in that the substantially solid wall portion (28a, 48a, 58a) has a parabolic shape with a focal point positioned by the opening. a dust collector housing forming a compartment for collecting dust transported by an air flow generated by a motor assembly located externally of the compartment; an opening in a wall of the housing for allowing air to flow out of the compartment towards a fan of the motor assembly; a structure (28, 48, 58) provided upstream of the opening and comprising a substantially solid wall portion (28a, 48a, 58a) providing a sound reflective surface for reflecting sound waves from the motor assembly, the structure (28, 48, 58) being arranged such that a clearance is formed between at least a region of the wall around the opening and the structure (28, 48, 58) to allow air from upstream of the structure to enter the opening via the clearance, characterized in that the substantially solid wall portion (28a, 48a, 58a) has a parabolic shape with a focal point positioned by the opening.
A complex having Formula: wherein the complex comprises compound having Formula (I-n) and L-pyroglutamic acid at a mole ratio of 1:1, wherein the complex is in a crystalline form, wherein the crystalline form has an X-ray powder diffraction pattern comprising peaks at scattering angles (2θ) of 3.61° ± 0.2°, 13.35° ± 0.2°, 17.84° ± 0.2°, 18.22° ± 0.2°, 19.92° ± 0.2° and 21.43° ± 0.2°. wherein the complex comprises compound having Formula (I-n) and L-pyroglutamic acid at a mole ratio of 1:1, wherein the complex is in a crystalline form, wherein the crystalline form has an X-ray powder diffraction pattern comprising peaks at scattering angles (2θ) of 3.61° ± 0.2°, 13.35° ± 0.2°, 17.84° ± 0.2°, 18.22° ± 0.2°, 19.92° ± 0.2° and 21.43° ± 0.2°.
An agrochemical mixture for increasing plant growth or plant biomass or plant tolerance to abiotic stress, comprising a herbicidal compound being dicamba and a fungicidal compound being N-(3',4',5'trifluorobiphenyl-2-yl)-3-difluoromethyl-1-methyl-1 H-pyrazole-4-carboxamide (common name: fluxapyroxad) as active ingredients, or a herbicidal compound being quinmerac and a fungicidal compound being boscalid as active ingredients, or a herbicidal compound being quinmerac and a fungicidal compound being fluopyram in synergistically effective amounts, wherein the weight ratio of compound to compound is from 100:1 to 1:100. a herbicidal compound being dicamba and a fungicidal compound being N-(3',4',5'trifluorobiphenyl-2-yl)-3-difluoromethyl-1-methyl-1 H-pyrazole-4-carboxamide (common name: fluxapyroxad) as active ingredients, or a herbicidal compound being quinmerac and a fungicidal compound being boscalid as active ingredients, or a herbicidal compound being quinmerac and a fungicidal compound being fluopyram
A phase locked loop, PLL, comprising: a voltage-controlled oscillator, VCO; a frequency divider configured to frequency divide an output signal of the VCO to produce a feedback signal; a phase detection circuit configured to detect a phase difference between a reference signal and the feedback signal, and to generate an output signal based on the detected phase difference; a proportional circuit configured to generate a control voltage (V CTRL) based on the output signal of the phase detection circuit, wherein the control voltage tunes a first capacitance of the VCO to provide phase correction; and an integration circuit configured to convert the control voltage into a digital signal, to integrate the digital signal, and to tune a second capacitance of the VCO different from the first capacitance based on the integrated digital signal to provide frequency tracking. a voltage-controlled oscillator, VCO; a frequency divider configured to frequency divide an output signal of the VCO to produce a feedback signal; a phase detection circuit configured to detect a phase difference between a reference signal and the feedback signal, and to generate an output signal based on the detected phase difference; a proportional circuit configured to generate a control voltage (V CTRL) based on the output signal of the phase detection circuit, wherein the control voltage tunes a first capacitance of the VCO to provide phase correction; and an integration circuit configured to convert the control voltage into a digital signal, to integrate the digital signal, and to tune a second capacitance of the VCO different from the first capacitance based on the integrated digital signal to provide frequency tracking.
Method for arranging small parts, wherein a liquid volume is created having at least one, at least partially curved liquid surface, and a plurality of small parts to be isolated is applied to at least one curved region of the liquid surface, wherein the small parts are supported after application due to the surface tension and/or buoyancy of the liquid surface, characterised in that as a result of the curvature of the liquid surface, the small parts move into an intermediate position (4a, 4b), wherein the small parts in the intermediate position (4a, 4b) are applied with an oscillation or vibration, by means of which they proceed to an arrangement position.
Optical sensor structure for sensing the presence of liquid, such as oil and/or water, in a sealed conservator tank, the tank including a bladder isolating oil from air, the bladder having a first surface exposed to the air and an opposing second surface exposed to the oil, the sensor structure comprising: a sensor head including a body having first and second opposing ends, a plurality of perforations through the body and spaced between the first and second ends, and a mirror disposed at the second end, the perforations being constructed and arranged to receive and hold liquid therein, the sensor head being constructed and arranged to rest on the first surface of the bladder, a light source, a first fiber optic cable between the light source and the first end of the body, a light detector, and a second fiber optic cable (34") between the light detector and the first end of the body, wherein when the light source provides light through the first fiber optic cable and to the perforated body, the light reflects off the mirror and is received by the second fiber optic cable (34") and by the light detector, and wherein the amount of light received by the light detector is reduced when liquid, instead of air, is in at least some of the perforations in the body. a sensor head including a body having first and second opposing ends, a plurality of perforations through the body and spaced between the first and second ends, and a mirror disposed at the second end, the perforations being constructed and arranged to receive and hold liquid therein, the sensor head being constructed and arranged to rest on the first surface of the bladder, a light source, a first fiber optic cable between the light source and the first end of the body, a light detector, and a second fiber optic cable (34") between the light detector and the first end of the body, wherein when the light source provides light through the first fiber optic cable and to the perforated body, the light reflects off the mirror and is received by the second fiber optic cable (34") and by the light detector, and wherein the amount of light received by the light detector is reduced when liquid, instead of air, is in at least some of the perforations in the body.
A biopsy system, comprising: (a) a needle; (b) a cutter movable relative to the needle to sever a tissue sample; and (c) a tissue sample holder in communication with the cutter, wherein the tissue sample holder comprises a plurality of chambers and wherein a portion of the tissue sample holder is configured to rotate to successively index the chambers relative to the cutter; characterised in that the system further comprises: (d) a processing module; and (e) a graphical user interface in communication with the processing module, wherein the graphical user interface is operable to display an indicator comprising a visual representation of each of the chambers, wherein: the processing module is operable to drive the indicator to indicate which chambers are occupied by severed tissue samples through the visual representations of the chambers by rotating the indicator in response to receipt of a tissue sample in the corresponding chamber, thereby positioning the visual representation of an adjacent empty chamber at a predetermined location; and the processing module is operable to drive the rotation of the indicator to collectively rotate all representations clockwise or counter-clockwise each time a chamber of the tissue sample holder receives a tissue sample in synchronization with actual movement of chambers in the tissue sample holder. (a) a needle; (b) a cutter movable relative to the needle to sever a tissue sample; and (c) a tissue sample holder in communication with the cutter, wherein the tissue sample holder comprises a plurality of chambers and wherein a portion of the tissue sample holder is configured to rotate to successively index the chambers relative to the cutter; (d) a processing module; and (e) a graphical user interface in communication with the processing module, wherein the graphical user interface is operable to display an indicator comprising a visual representation of each of the chambers, the processing module is operable to drive the indicator to indicate which chambers are occupied by severed tissue samples through the visual representations of the chambers by rotating the indicator in response to receipt of a tissue sample in the corresponding chamber, thereby positioning the visual representation of an adjacent empty chamber at a predetermined location; and the processing module is operable to drive the rotation of the indicator to collectively rotate all representations clockwise or counter-clockwise each time a chamber of the tissue sample holder receives a tissue sample in synchronization with actual movement of chambers in the tissue sample holder.
A sensor unit to be utilized in an autonomous driving vehicle ADV, the sensor unit comprising: a sensor interface to be coupled to a plurality of sensors mounted on a plurality of locations of the ADV; a host interface to be coupled to a host system, wherein the host system is configured to perceive a driving environment surrounding the ADV based on sensor data obtained from the sensors and to plan a path to autonomously drive the ADV; and a plurality of sensor control modules, each corresponding to one of the plurality of sensors, wherein each of the sensor control modules comprises: a delay time control logic to receive a pulse time adjustment PTA value from the host system via the host interface, a delay adjustment logic to receive a trigger time adjustment TTA value from the host system via the host interface and to modify timing of at least a portion of a plurality of pulses of a pulse signal received from a pulse generator based on the PTA value and the TTA value, and a trigger signal generator to generate a trigger signal based on the modified pulse signal and to transmit the trigger signal to a corresponding sensor. a sensor interface to be coupled to a plurality of sensors mounted on a plurality of locations of the ADV; a host interface to be coupled to a host system, wherein the host system is configured to perceive a driving environment surrounding the ADV based on sensor data obtained from the sensors and to plan a path to autonomously drive the ADV; and a plurality of sensor control modules, each corresponding to one of the plurality of sensors, wherein each of the sensor control modules comprises: a delay time control logic to receive a pulse time adjustment PTA value from the host system via the host interface, a delay adjustment logic to receive a trigger time adjustment TTA value from the host system via the host interface and to modify timing of at least a portion of a plurality of pulses of a pulse signal received from a pulse generator based on the PTA value and the TTA value, and a trigger signal generator to generate a trigger signal based on the modified pulse signal and to transmit the trigger signal to a corresponding sensor. a delay time control logic to receive a pulse time adjustment PTA value from the host system via the host interface, a delay adjustment logic to receive a trigger time adjustment TTA value from the host system via the host interface and to modify timing of at least a portion of a plurality of pulses of a pulse signal received from a pulse generator based on the PTA value and the TTA value, and a trigger signal generator to generate a trigger signal based on the modified pulse signal and to transmit the trigger signal to a corresponding sensor.
Heat exchanger comprising a multitude of stacked plates arranged in pairs and facing one another and arranged to define a multitude of chambers for the circulation of a first fluid exchanging heat with a second fluid flowing on the outside of the plates, each plate comprises at least one fluid inlet (38, 46) and a fluid outlet (40, 48) for the first fluid, these respectively communicating with homologous inlets and outlets of the other plates and being arranged in such a way that the first fluid is forced to circulate in each chamber from the inlet towards the outlet in a countercurrent direction with respect to the direction in which the second fluid circulates, each plate comprises a first inlet/outlet pair formed of an inlet and of an outlet and arranged near a first end of the plate and a second inlet/outlet pair formed of an inlet and of an outlet and arranged near a second end of the plate, characterized in that it comprises a header tank arranged to be connected to a plate referred to as the end plate, situated at an end of a stack, and in that the header tank comprises a main inlet arranged to direct the first fluid towards the inlets (38, 46) of the end plate and a main outlet arranged to collect the first fluid coming from the outlets (40, 48) of the end plate.
A method of manufacturing bulked continuous carpet filament from polytrimethylene terephthalate, the method comprising: providing an extruder; using the extruder to at least partially melt the PTT into a polymer stream and at least partially purify the polymer stream; providing a static mixing assembly downstream of the extruder; adding polyethylene terephthalate to the polymer stream downstream of the extruder and before the static mixing assembly or along a length of the static mixing assembly between an upstream end and a downstream end of the static mixing assembly; using the static mixing assembly to mix the polymer stream with the PET to create a mixed polymer stream; and forming the mixed polymer stream into bulked continuous carpet filament. providing an extruder; using the extruder to at least partially melt the PTT into a polymer stream and at least partially purify the polymer stream; providing a static mixing assembly downstream of the extruder; adding polyethylene terephthalate to the polymer stream downstream of the extruder and before the static mixing assembly or along a length of the static mixing assembly between an upstream end and a downstream end of the static mixing assembly; using the static mixing assembly to mix the polymer stream with the PET to create a mixed polymer stream; and forming the mixed polymer stream into bulked continuous carpet filament.
A compound of Formula, or salt thereof: wherein: n is an integer of 0 or 1; R is selected from the group consisting of halogen, hydroxy, alkyl, alkoxy, and -C -O-alkyl; R 1 is -X-O-Y where X is a -CH 2 - or -CH 2 CH 2 - and Y is a C 1-3 alkyl; R 2 is selected from the group consisting of hydrogen, or methyl; R 3 is a C 1-4 alkyl, R 4 is a C 1-4 alkyl, or R 3 and R 4 are combined to form a ring of 3-7 carbon atoms optionally having one oxygen atom in the ring; and R 5 is -H, -CH 3, -F, or -OH. n is an integer of 0 or 1; R is selected from the group consisting of halogen, hydroxy, alkyl, alkoxy, and -C -O-alkyl; R 1 is -X-O-Y where X is a -CH 2 - or -CH 2 CH 2 - and Y is a C 1-3 alkyl; R 2 is selected from the group consisting of hydrogen, or methyl; R 3 is a C 1-4 alkyl, R 4 is a C 1-4 alkyl, or R 3 and R 4 are combined to form a ring of 3-7 carbon atoms optionally having one oxygen atom in the ring; and R 5 is -H, -CH 3, -F, or -OH.
A level-measuring device, for determining a level of a medium, by means of an evaluation unit, which is configured for - generating a measuring signal for determining the level based on a digitally converted signal of a reflected signal emitted from the level-measuring device toward the medium, wherein the level is determined based on a characteristic feature of the measuring signal; and - monitoring, by means of a monitoring function, the determination of the level based on the characteristic feature; and wherein the monitoring function selectively has at least one of a higher quality level or a lower quality level for determination of the level; and - determining the level of the medium in an operating mode or a start-up mode selectively, wherein a quality level of the monitoring function in the operating mode differs from a quality level of the monitoring function in the start-up mode. - generating a measuring signal for determining the level based on a digitally converted signal of a reflected signal emitted from the level-measuring device toward the medium, wherein the level is determined based on a characteristic feature of the measuring signal; and - monitoring, by means of a monitoring function, the determination of the level based on the characteristic feature; and wherein the monitoring function selectively has at least one of a higher quality level or a lower quality level for determination of the level; and - determining the level of the medium in an operating mode or a start-up mode selectively, wherein a quality level of the monitoring function in the operating mode differs from a quality level of the monitoring function in the start-up mode.