mhurhangee/ep-ind-claims huggingface dataset:
A gimbaled optical sensor system comprising: a multi-axis gimbal; a jitter sensing beam source configured to generate a jitter sensing beam that travels along a line of sight of the gimbaled optical sensor system; a jitter sensing beam detector; a flat mirror mounted on an inner-most gimbal axis of the multi-axis gimbal and configured to reflect the jitter sensing beam; and a faceted retro-mirror rigidly mounted on a second gimbal axis of the multi-axis gimbal and positioned out of plane with the flat mirror, and aligned to receive the jitter sensing beam reflected by the flat mirror, the faceted retro-mirror including a plurality of facets each tilted with respect to adjacent facets by an angular tilt, the faceted retro-mirror configured to reflect the jitter sensing beam from at least one facet of the faceted retro-mirror via the flat mirror to a field of view of the jitter sensing beam detector over a range of angular movement of the flat mirror about the inner-most gimbal axis. a multi-axis gimbal; a jitter sensing beam source configured to generate a jitter sensing beam that travels along a line of sight of the gimbaled optical sensor system; a jitter sensing beam detector; a flat mirror mounted on an inner-most gimbal axis of the multi-axis gimbal and configured to reflect the jitter sensing beam; and a faceted retro-mirror rigidly mounted on a second gimbal axis of the multi-axis gimbal and positioned out of plane with the flat mirror, and aligned to receive the jitter sensing beam reflected by the flat mirror, the faceted retro-mirror including a plurality of facets each tilted with respect to adjacent facets by an angular tilt, the faceted retro-mirror configured to reflect the jitter sensing beam from at least one facet of the faceted retro-mirror via the flat mirror to a field of view of the jitter sensing beam detector over a range of angular movement of the flat mirror about the inner-most gimbal axis.
System for checking the structure of an extruder screw comprising a shaft and screw elements slid onto or to be slid onto the said shaft one after another in a defined sequence, as or after the screw elements are slid onto the shaft, comprising an extruder screw composed of a shaft and the screw elements slid on or to be slid on, each screw element having an element-specific external geometry, and also comprising an acquisition device for determining information relating to the sequence of the screw elements slid on or to be slid on and for comparing the information determined with target information which directly or indirectly describes the target sequence.
A board work machine comprising: a cutting device including a cutting tool including a first part (146, 210, 220) and a second part (148, 212, 222) configured to cut a lead of a leaded component inserted into an insertion hole (130, 136) formed in the first part of the cutting tool (146, 210, 220) and the second part of the cutting tool (148, 212, 222), and a main body section (144, 147) to which the first part of the cutting tool (146, 210, 220) and the second part of the cutting tool (148, 212, 222) are removably attached; an imaging device; and a control device, wherein characterized in that: recognition marks for recognizing a type of the first part of the cutting tool (146, 210, 220) and the second part of the cutting tool (148, 212, 222) are provided on the first part of the cutting tool (146, 210, 220) and the second part of the cutting tool (148, 212, 222), and the control device includes an imaging section configured to capture an image of the recognition marks using the imaging device, and a recognizing section configured to recognize the type of the first part of the cutting tool (146, 210, 220) and the second part of the cutting tool (148, 212, 222) based on image data obtained from the imaging section. a cutting device including a cutting tool including a first part (146, 210, 220) and a second part (148, 212, 222) configured to cut a lead of a leaded component inserted into an insertion hole (130, 136) formed in the first part of the cutting tool (146, 210, 220) and the second part of the cutting tool (148, 212, 222), and a main body section (144, 147) to which the first part of the cutting tool (146, 210, 220) and the second part of the cutting tool (148, 212, 222) are removably attached; an imaging device; and a control device, wherein characterized in that: recognition marks for recognizing a type of the first part of the cutting tool (146, 210, 220) and the second part of the cutting tool (148, 212, 222) are provided on the first part of the cutting tool (146, 210, 220) and the second part of the cutting tool (148, 212, 222), and the control device includes an imaging section configured to capture an image of the recognition marks using the imaging device, and a recognizing section configured to recognize the type of the first part of the cutting tool (146, 210, 220) and the second part of the cutting tool (148, 212, 222) based on image data obtained from the imaging section. recognition marks for recognizing a type of the first part of the cutting tool (146, 210, 220) and the second part of the cutting tool (148, 212, 222) are provided on the first part of the cutting tool (146, 210, 220) and the second part of the cutting tool (148, 212, 222), and the control device includes an imaging section configured to capture an image of the recognition marks using the imaging device, and a recognizing section configured to recognize the type of the first part of the cutting tool (146, 210, 220) and the second part of the cutting tool (148, 212, 222) based on image data obtained from the imaging section.
A method of manufacturing a sensor body used in an oil temperature sensor (1, 1A, 1B, 1C) that detects a temperature of oil, comprising: preparing a material for preparing a lead frame material in which a first-terminal-portion forming portion of a first lead frame portion and a second-terminal-portion forming portion of a second lead frame portion are connected by a connecting portion (23, 24); mounting a thermistor for mounting one end of a thermistor on a first resin mold portion of the first lead frame portion, while mounting the other end of the thermistor on a second resin mold portion of the second lead frame portion; when the thermistor is mounted on the first resin mold portion and the second resin mold portion, molding the first resin mold portion, the second resin mold portion, and the thermistor to form a resin mold portion; characterized in that the method further comprises cutting the connecting portion (23, 24) after the resin mold portion is formed, and separating the first-terminal-portion forming portion and the second-terminal-portion forming portion. preparing a material for preparing a lead frame material in which a first-terminal-portion forming portion of a first lead frame portion and a second-terminal-portion forming portion of a second lead frame portion are connected by a connecting portion (23, 24); mounting a thermistor for mounting one end of a thermistor on a first resin mold portion of the first lead frame portion, while mounting the other end of the thermistor on a second resin mold portion of the second lead frame portion; when the thermistor is mounted on the first resin mold portion and the second resin mold portion, molding the first resin mold portion, the second resin mold portion, and the thermistor to form a resin mold portion; characterized in that the method further comprises cutting the connecting portion (23, 24) after the resin mold portion is formed, and separating the first-terminal-portion forming portion and the second-terminal-portion forming portion.
A liquid-capturing shaft, the shaft being hollow, arranged for rotation about its longitudinal axis, and having a wall defining an inner surface and an outer surface of the shaft and through which are formed a plurality of circumferentially spaced apart inlet openings, each inlet opening having a respective capture surface arranged for capturing liquid directed in a direction opposing the direction of rotation of the shaft that extends from the outer surface of the shaft to the inner surface of the shaft, the liquid-capturing shaft being characterised in that the capture surface extends through and is inwardly and axially facing with respect to the wall and is arranged at a first acute angle to the longitudinal direction of the shaft.
A method of using a water heater arranged for heating an aqueous liquid wherein the water heater comprises a heating element to heat aqueous liquid in the water heater, the method comprising: a. heating aqueous liquid in the water heater with the heating element, wherein the heating element is in contact with the aqueous liquid; and b. applying a first AC voltage between the heating element and a counter electrode, and applying a DC voltage between the heating element and the counter electrode, wherein the DC voltage is at least 0.5 V, and wherein the heating element is chosen as positive electrode. a. heating aqueous liquid in the water heater with the heating element, wherein the heating element is in contact with the aqueous liquid; and b. applying a first AC voltage between the heating element and a counter electrode, and applying a DC voltage between the heating element and the counter electrode, wherein the DC voltage is at least 0.5 V, and wherein the heating element is chosen as positive electrode.
An annular cutter for a pour spout fitment, comprising an annular body, a cutting tooth protruding from an axial end of said body, characterised in that said tooth, at its tip, being of a knife-edge shape circumferentially of said annular body and, as viewed radially of said body, said knife-edge shape being curved.
A surgical instrument comprising: a handle assembly; and an end effector communicatively coupled to the handle assembly and comprising a first and second jaw (116a, 116b), the handle assembly configured to manipulate the first and second jaws (116a, 116b) to define an open position and a closed position; and the end effector configured to: deliver therapeutic energy at a higher energy level for sealing or cutting tissue at a surgical site; and deliver nontherapeutic energy at a lower energy level for providing electrical stimulation to nerve tissue at the surgical site, wherein the end effector further comprises an electrical stimulation probe (302, 602) configured to deliver the nontherapeutic energy to stimulate the nerve tissue at the surgical site, wherein the electrical stimulation probe (302, 602) is positioned near one or both of the first and second jaws (116a, 116b). a handle assembly; and an end effector communicatively coupled to the handle assembly and comprising a first and second jaw (116a, 116b), the handle assembly configured to manipulate the first and second jaws (116a, 116b) to define an open position and a closed position; and the end effector configured to: deliver therapeutic energy at a higher energy level for sealing or cutting tissue at a surgical site; and deliver nontherapeutic energy at a lower energy level for providing electrical stimulation to nerve tissue at the surgical site, wherein the end effector further comprises an electrical stimulation probe (302, 602) configured to deliver the nontherapeutic energy to stimulate the nerve tissue at the surgical site, wherein the electrical stimulation probe (302, 602) is positioned near one or both of the first and second jaws (116a, 116b). deliver therapeutic energy at a higher energy level for sealing or cutting tissue at a surgical site; and deliver nontherapeutic energy at a lower energy level for providing electrical stimulation to nerve tissue at the surgical site, wherein the end effector further comprises an electrical stimulation probe (302, 602) configured to deliver the nontherapeutic energy to stimulate the nerve tissue at the surgical site, wherein the electrical stimulation probe (302, 602) is positioned near one or both of the first and second jaws (116a, 116b).
A microfluidic device comprising: a first substrate; a second substrate bonded to the first substrate at an interface between the first substrate and the second substrate; a microfluidic circuit formed at the interface by surface structure in one or both of the first and second substrates; a third substrate extending around and accommodating the first and second substrates to form at least part of an external housing by which the device can be handled, having one or more vias which are in fluid communication with the microfluidic circuit through respective conduits in the second substrate; and one or more seam welds, each extending continuously in a closed path around respective ones of the vias, each seam weld serving to weld together the second and third substrates and form a fluid-tight seal for fluid flow between that via and the microfluidic circuit. a first substrate; a second substrate bonded to the first substrate at an interface between the first substrate and the second substrate; a microfluidic circuit formed at the interface by surface structure in one or both of the first and second substrates; a third substrate extending around and accommodating the first and second substrates to form at least part of an external housing by which the device can be handled, having one or more vias which are in fluid communication with the microfluidic circuit through respective conduits in the second substrate; and
An axle, in particular of a universal carrier frame, which axle comprises an arm of the axle, a power drive unit, swivel drive units (6a, 6b), swivel distribution systems (7a, 7b), travel distribution systems, 8b), wherein at one end of the arm of the axle a front portal suspension of a front wheel is rotatably arranged, and at the other end of the arm of the axle, a rear portal suspension of the rear wheel is rotatably arranged, characterized in that the front portal suspension of the front wheel and the rear portal suspension of the rear wheel comprise an angular chain transmission comprising a drive shaft having a longitudinal axis, a driven shaft having a longitudinal axis, a link chain for connecting the drive shaft and the driven shaft, and a pulley angular system of the link chain to define the angle (α) between the longitudinal axis of the drive shaft and the longitudinal axis of the driven shaft. an arm of the axle, a power drive unit, swivel drive units (6a, 6b), swivel distribution systems (7a, 7b), travel distribution systems, 8b), wherein at one end of the arm of the axle a front portal suspension of a front wheel is rotatably arranged, and at the other end of the arm of the axle, a rear portal suspension of the rear wheel is rotatably arranged, characterized in that the front portal suspension of the front wheel and the rear portal suspension of the rear wheel comprise an angular chain transmission comprising a drive shaft having a longitudinal axis, a driven shaft having a longitudinal axis, a link chain for connecting the drive shaft and the driven shaft, and a pulley angular system of the link chain to define the angle (α) between the longitudinal axis of the drive shaft and the longitudinal axis of the driven shaft.
Apparatus for brewing a hot beverage to be delivered in a single serving to a cup, said apparatus comprising a housing means for forming a housing; a dispensing spout means connected to said housing means for delivering the hot beverage to the cup; a filter basket means mountable in said housing means for infusing an extractable substance to produce the hot beverage, said filter basket means including outlet port means for delivering the hot beverage; a beverage tank means mounted to said housing below said filter basket means for accumulating the hot beverage from said outlet port means; and a dispensing pump means for pumping the hot beverage from said beverage tank means to said dispensing spout means including impeller means immersed in the accumulated hot beverage in said beverage tank assembly for displacing the hot beverage through said dispensing spout means, characterized in that said beverage tank means includes a well with a bottom portion lying below the impeller means and said dispensing pump means comprises: (i) a pump drive means mounted to said housing means exteriorly of the bottom portion for producing rotary motion, and (ii) a coupling means for coupling the rotary motion of said pump drive means through said bottom portion to said impeller means thereby to rotate said impeller means. (i) a pump drive means mounted to said housing means exteriorly of the bottom portion for producing rotary motion, and (ii) a coupling means for coupling the rotary motion of said pump drive means through said bottom portion to said impeller means thereby to rotate said impeller means.
Composition comprising I. at least one reaction product between a nitrogen-free monohydric alcohol and an aldehyde or ketone, wherein the aldehyde or ketone contains 1 to 4 carbon atoms, and the monohydric alcohol comprises 1 to 15 carbon atoms, and II. at least one reaction product between a sugar alcohol and an aldehyde or ketone, wherein the aldehyde or ketone contains 1 to 4 carbon atoms, and wherein the sugar alcohol contains 4 to 12 carbon atoms and 4 to 10 hydroxy groups, and wherein not more than one hydroxy group is attached to each carbon atom, and wherein the molar ratio between the reaction product between a monohydric alcohol and an aldehyde or ketone (group I) and the reaction product between a sugar alcohol and an aldehyde or ketone (group II) is between 20:1 and 1:20, and wherein the reaction products I. and II. are hemiacetals and/or acetals. I. at least one reaction product between a nitrogen-free monohydric alcohol and an aldehyde or ketone, wherein the aldehyde or ketone contains 1 to 4 carbon atoms, and the monohydric alcohol comprises 1 to 15 carbon atoms, and II. at least one reaction product between a sugar alcohol and an aldehyde or ketone, wherein the aldehyde or ketone contains 1 to 4 carbon atoms, and wherein the sugar alcohol contains 4 to 12 carbon atoms and 4 to 10 hydroxy groups, and wherein not more than one hydroxy group is attached to each carbon atom, and wherein the molar ratio between the reaction product between a monohydric alcohol and an aldehyde or ketone (group I) and the reaction product between a sugar alcohol and an aldehyde or ketone (group II) is between 20:1 and 1:20, and wherein the reaction products I. and II. are hemiacetals and/or acetals. wherein the molar ratio between the reaction product between a monohydric alcohol and an aldehyde or ketone (group I) and the reaction product between a sugar alcohol and an aldehyde or ketone (group II) is between 20:1 and 1:20, and wherein the reaction products I. and II. are hemiacetals and/or acetals.
A control method, a first optical processing device being connected with a second optical processing device through an optical port link, and a transmission module configured to transmit a signal to the second optical processing device through the optical port link being arranged on the first optical processing device, characterized in that the method comprises: judging whether there is data to be transmitted to the second optical processing device or not in the first optical processing device, and acquiring a judgment result; and controlling the transmission module to be in an off state when the judgment result is NO; before controlling the transmission module to be in the off state, the method further comprising: controlling the transmission module to transmit a first code stream configured to maintain a signal transmission channel on the optical port link to the second optical processing device, and setting a timer; correspondingly, the method further comprising: at end of timing of the timer, controlling the transmission module to be switched on, controlling the switched-on transmission module to transmit a second code stream configured to maintain the signal transmission channel to the second optical processing device, and continuing judging whether there is the data to be transmitted to the second optical processing device or not in the first optical processing device. judging whether there is data to be transmitted to the second optical processing device or not in the first optical processing device, and acquiring a judgment result; and controlling the transmission module to be in an off state when the judgment result is NO; before controlling the transmission module to be in the off state, the method further comprising: controlling the transmission module to transmit a first code stream configured to maintain a signal transmission channel on the optical port link to the second optical processing device, and setting a timer; correspondingly, the method further comprising: at end of timing of the timer, controlling the transmission module to be switched on, controlling the switched-on transmission module to transmit a second code stream configured to maintain the signal transmission channel to the second optical processing device, and continuing judging whether there is the data to be transmitted to the second optical processing device or not in the first optical processing device. controlling the transmission module to transmit a first code stream configured to maintain a signal transmission channel on the optical port link to the second optical processing device, and setting a timer; correspondingly, the method further comprising: at end of timing of the timer, controlling the transmission module to be switched on, controlling the switched-on transmission module to transmit a second code stream configured to maintain the signal transmission channel to the second optical processing device, and continuing judging whether there is the data to be transmitted to the second optical processing device or not in the first optical processing device.
An audio processing apparatus (11, 81) comprising: a display control unit configured, on a basis of object positional information of an audio object, to cause a display unit to display an audio object information image indicative of a position of the audio object; a selection unit configured to select a predetermined audio object from among one or a plurality of the audio objects; a parameter setting unit configured to set a parameter related with audio of the audio object selected by the selection unit; and a signal adjustment unit configured, on a basis of the parameter, to execute processing of adjusting audio characteristics of audio of the audio object on a background sound signal of a background sound; characterized by the processing is executed on an audio object signal such as relatively increasing the volume of the audio of the audio object by lowering the volume of a background sound. a display control unit configured, on a basis of object positional information of an audio object, to cause a display unit to display an audio object information image indicative of a position of the audio object; a selection unit configured to select a predetermined audio object from among one or a plurality of the audio objects; a parameter setting unit configured to set a parameter related with audio of the audio object selected by the selection unit; and a signal adjustment unit configured, on a basis of the parameter, to execute processing of adjusting audio characteristics of audio of the audio object on a background sound signal of a background sound; characterized by the processing is executed on an audio object signal such as relatively increasing the volume of the audio of the audio object by lowering the volume of a background sound.