mhurhangee/patent-ind-claim-en huggingface dataset:
A lighting device , comprising: one or more LED-based light sources ; a communication interface ; and a controller operably coupled with the one or more LED-based light sources and the communication interface, characterized in that the controller is configured to: ascertain, based at least in part on a database of one or more lighting device records associated with one or more lighting devices of a lighting system with which the lighting device is associated, a composition of the lighting system; determine whether the ascertained composition satisfies a predetermined criterion; and activate a deactivated lighting device function of the lighting device if the ascertained composition satisfies the predetermined criterion, wherein the deactivated lighting device function is a routine or state machine that is built into the lighting device, but that is not enabled until activated by the controller . one or more LED-based light sources ; a communication interface ; and a controller operably coupled with the one or more LED-based light sources and the communication interface, ascertain, based at least in part on a database of one or more lighting device records associated with one or more lighting devices of a lighting system with which the lighting device is associated, a composition of the lighting system; determine whether the ascertained composition satisfies a predetermined criterion; and activate a deactivated lighting device function of the lighting device if the ascertained composition satisfies the predetermined criterion, wherein the deactivated lighting device function is a routine or state machine that is built into the lighting device, but that is not enabled until activated by the controller .
A method comprising: receiving at a user equipment an indication from a network node , the indication being a timing advance command associated with a timing advance group, wherein the user equipment is configured for a plurality of bandwidth parts having a plurality of different subcarrier spacings associated with the timing advance group and a timing adjustment granularity is determined based on the indication and a largest subcarrier spacing of the plurality of different subcarrier spacings associated with the timing advance group; and applying at the user equipment the timing adjustment granularity to the plurality of bandwidth parts . receiving at a user equipment an indication from a network node , the indication being a timing advance command associated with a timing advance group, wherein the user equipment is configured for a plurality of bandwidth parts having a plurality of different subcarrier spacings associated with the timing advance group and a timing adjustment granularity is determined based on the indication and a largest subcarrier spacing of the plurality of different subcarrier spacings associated with the timing advance group; and applying at the user equipment the timing adjustment granularity to the plurality of bandwidth parts .
A pharmaceutical dosage form comprising Tapentadol for oral administration twice daily; wherein Tapentadol is present as a salt with phosphoric acid, which is a crystalline form and/or amorphous form of the dihydrogenphosphate salt of Tapentadol, a solvate, an ansolvate, and/or a polymorph thereof; wherein the weight equivalent dose of Tapentadol that is contained in the pharmaceutical dosage form is within the range of from 10 to 300 mg based on the free base of Tapentadol. wherein the dosage form is a tablet; wherein the dosage form provides prolonged release of Tapentadol; and wherein Tapentadol is embedded in a prolonged release matrix comprising a prolonged release matrix material selected from hydroxypropylmethylcellulose (HPMC). wherein Tapentadol is present as a salt with phosphoric acid, which is a crystalline form and/or amorphous form of the dihydrogenphosphate salt of Tapentadol, a solvate, an ansolvate, and/or a polymorph thereof; wherein the weight equivalent dose of Tapentadol that is contained in the pharmaceutical dosage form is within the range of from 10 to 300 mg based on the free base of Tapentadol. wherein the dosage form is a tablet; wherein the dosage form provides prolonged release of Tapentadol; and wherein Tapentadol is embedded in a prolonged release matrix comprising a prolonged release matrix material selected from hydroxypropylmethylcellulose (HPMC).
Horological limiting device for a watch, comprising an oscillator , and comprising means for limiting the variation of rate of this oscillator in the different positions of said watch in space, said device comprising at least one tourbillon or a karussel, which comprises a carriage which is mounted such that it pivots about a carriage axis (D) relative to a plate carrying a fixed wheel when said limiting device comprises a tourbillon, which carriage carries said oscillator and comprises a carriage wheel arranged so as to be driven by an energy source of the watch or of a movement by way of a gear train, and which carriage carries an escapement mechanism arranged so as to cooperate with said oscillator , and comprising an escape pinion meshing with said fixed wheel when said limiting device comprises a tourbillon or meshing with a third wheel or a fourth wheel, comprised in said gear train, when said limiting device comprises a karussel, characterised in that said device is capable of blocking said oscillator and comprises, for this purpose, a first intermediate drive wheel and a second intermediate drive wheel , integral with arbors (61; 62) both pivoted in said plate and rotating in opposite directions to one another, and one of the two thereof is driven in rotation by an engaging rod arranged so as to engage with a control member external to said tourbillon or karussel, for synchronous rotation of said first intermediate drive wheel and of said second intermediate drive wheel under the effect of a movement exerted by said control member, and in that said first intermediate drive wheel and said second intermediate drive wheel each carry at least one resilient element (71; 72), comprising at least one resilient strip and/or one resilient wire, which is arranged so as to bear against at least one mobile component of said oscillator in order to stop said oscillator upon passage of said control member from a rest position to an active position wherein each said resilient element (71; 72) bears against a mobile component of said oscillator , or against said upper bridge of said carriage , and so as to remain remote from said upper bridge and from any mobile component of said oscillator when said control member is in said rest position thereof.
A bone regenerative implantable composition comprising: (i) from 2% to 20% by weight of collagen, and (ii) from 10% to 98% by weight of bioactive glass particles that have been pre-reacted with a buffer. (i) from 2% to 20% by weight of collagen, and (ii) from 10% to 98% by weight of bioactive glass particles that have been pre-reacted with a buffer.
An apparatus for preparing a chemical solution comprising: a housing comprising a lower chamber and an upper chamber; a dissolving bowl arranged at an interface of the lower chamber and upper chamber, the dissolving bowl comprising an open-ended top rim portion in communication with the upper chamber for receiving a chemical material therefrom and a closed bottom portion; a grid disposed within the dissolving bowl and arranged between the top rim portion and the closed bottom portion of the dissolving bowl, the grid for supporting solid, undissolved chemical material on a top surface thereof and maintaining physical separation of solid, undissolved chemical material from at least the bottom portion of the dissolving bowl, wherein the grid comprises a framework of a first set of beams and a second set of beams arranged relative to one another, each beam in the first and second sets includes a substantially elliptical cross-sectional shape; and a nozzle disposed within the dissolving bowl and positioned proximate the bottom portion, the nozzle is arranged to direct flow of aqueous fluid into the dissolving bowl and towards the grid to thereby cause aqueous fluid to contact and dissolve at least some chemical material and create a chemical solution of aqueous fluid and dissolved chemical material based, at least in part, on fluid flow from the nozzle. a housing comprising a lower chamber and an upper chamber; a dissolving bowl arranged at an interface of the lower chamber and upper chamber, the dissolving bowl comprising an open-ended top rim portion in communication with the upper chamber for receiving a chemical material therefrom and a closed bottom portion; a grid disposed within the dissolving bowl and arranged between the top rim portion and the closed bottom portion of the dissolving bowl, the grid for supporting solid, undissolved chemical material on a top surface thereof and maintaining physical separation of solid, undissolved chemical material from at least the bottom portion of the dissolving bowl, wherein the grid comprises a framework of a first set of beams and a second set of beams arranged relative to one another, each beam in the first and second sets includes a substantially elliptical cross-sectional shape; and a nozzle disposed within the dissolving bowl and positioned proximate the bottom portion, the nozzle is arranged to direct flow of aqueous fluid into the dissolving bowl and towards the grid to thereby cause aqueous fluid to contact and dissolve at least some chemical material and create a chemical solution of aqueous fluid and dissolved chemical material based, at least in part, on fluid flow from the nozzle.
A method of trans-illumination imaging, the method comprising: receiving a user input specifying a respective value for each of one or more sample parameters of a sample; selecting an imaging protocol from a predetermined set of imaging protocols based on the input, wherein the imaging protocol includes an energization procedure and a detection procedure; irradiating a sample located in a well based on the selected imaging protocol, the sample including biological cells and a liquid or semi-solid medium that forms a meniscus , the step of irradiating being performed with an array of light sources (94, 96, 98; 172) generating light of respective light beams that are incident on the meniscus at different orientations from one another; and detecting one or more images formed with the light of the respective light beams and representing a field of view including at least part of the perimeter of a floor of the well ; wherein a proportional contribution of light from two or more subsets of the light sources (94, 96, 98; 172) to the one or more images is controlled by differential energization of the two or more subsets relative to one another to compensate for refraction by the meniscus and improve contrast, wherein a single image is detected for a given field of view, and wherein energization of at least one subset of the two or more subsets of the light sources (94, 96, 98; 172) is changed at an intermediate time point relative to a beginning and an end of the step of detecting producing an image having uniform contrast of the sample. receiving a user input specifying a respective value for each of one or more sample parameters of a sample; selecting an imaging protocol from a predetermined set of imaging protocols based on the input, wherein the imaging protocol includes an energization procedure and a detection procedure; irradiating a sample located in a well based on the selected imaging protocol, the sample including biological cells and a liquid or semi-solid medium that forms a meniscus , the step of irradiating being performed with an array of light sources (94, 96, 98; 172) generating light of respective light beams that are incident on the meniscus at different orientations from one another; and detecting one or more images formed with the light of the respective light beams and representing a field of view including at least part of the perimeter of a floor of the well ; wherein a proportional contribution of light from two or more subsets of the light sources (94, 96, 98; 172) to the one or more images is controlled by differential energization of the two or more subsets relative to one another to compensate for refraction by the meniscus and improve contrast, wherein a single image is detected for a given field of view, and wherein energization of at least one subset of the two or more subsets of the light sources (94, 96, 98; 172) is changed at an intermediate time point relative to a beginning and an end of the step of detecting producing an image having uniform contrast of the sample.
Temperature control system for controlling the temperature of a room, comprising - a heating element having a surface facing the room and a surface facing away from the room, - an insulating- and/or reflecting element , which is arranged so as to be spaced apart from the heating element and on the surface of the heating element facing away from the room, so that an internal air gap is formed between the insulating- and/or reflecting element and the heating element , wherein the insulating- and/or reflecting element is designed to be heat-insulating and to be reflective to IR beams and wherein the insulating- and/or reflecting element is planar, and - a first spacer element , which is arranged on the surface of the insulating- and/or reflecting element facing away from the room in order to form an external air gap between the insulating- and/or reflecting element and a wall of the room, wherein a second spacer element is arranged between the insulating-and/or reflecting element and the heating element , characterized in that the insulating- and/or reflecting element is designed to be reflective to IR beams on both sides, and the second spacer element has an open lattice or honeycomb structure so that the internal air gap is formed within the open lattice or honeycomb structure. - a heating element having a surface facing the room and a surface facing away from the room, - an insulating- and/or reflecting element , which is arranged so as to be spaced apart from the heating element and on the surface of the heating element facing away from the room, so that an internal air gap is formed between the insulating- and/or reflecting element and the heating element , wherein the insulating- and/or reflecting element is designed to be heat-insulating and to be reflective to IR beams and wherein the insulating- and/or reflecting element is planar, and - a first spacer element , which is arranged on the surface of the insulating- and/or reflecting element facing away from the room in order to form an external air gap between the insulating- and/or reflecting element and a wall of the room, wherein a second spacer element is arranged between the insulating-and/or reflecting element and the heating element , characterized in that the insulating- and/or reflecting element is designed to be reflective to IR beams on both sides, and the second spacer element has an open lattice or honeycomb structure so that the internal air gap is formed within the open lattice or honeycomb structure.
Load-handling vehicle comprising a chassis equipped with members for driving the movement along the ground, a motor having a rotary drive shaft , a mechanical or hydraulic transmission for transmitting the rotational movement of the drive shaft of the motor to the members for driving the movement along the ground, a system for controlling the speed of movement of the vehicle along the ground, a control unit configured at least to acquire a signal from said control system and to determine a speed setpoint (Vc) for movement along the ground, a load-handling system comprising at least one load-handling device , at least one hydraulic actuator for controlling in operation the handling device , at least one hydraulic pump equipped with a fluid outlet and a hydraulic circuit for connecting the hydraulic pump to the at least one actuator , a device for determining the actual speed (Vr) of movement of the vehicle along the ground, wherein the hydraulic pump of the load-handling system is, for its operation, coupled to the drive shaft of the motor forming a versatile motor for controlling the driving of the movement of the members for driving the movement along the ground and the load-handling system , wherein the vehicle is equipped with at least one system for regulating the pressure and/or the flow rate in said hydraulic circuit for connecting the hydraulic pump to the at least one hydraulic actuator for controlling in operation the handling device , characterized in that the control unit is configured to control the system for regulating the pressure and/or the flow rate in the hydraulic circuit for connecting the hydraulic pump to the at least one actuator as a function at least of the result of the comparison between the speed setpoint (Vc) for movement along the ground and the actual speed (Vr) of movement of the vehicle along the ground determined by the device for determining the actual speed of movement of the vehicle along the ground.
A vehicle air conditioner , comprising: a housing assembly having a mounting surface configured to contact an exterior of a roof of a vehicle; and a plurality of air conditioning components, including multiple compressors , disposed at least partially within the housing assembly; wherein the housing assembly is configured such that, when the air conditioner is installed in the vehicle such that the mounting surface contacts the roof of the vehicle, a first portion of at least one of the plurality of air conditioning components extends above the roof of the vehicle, and a second portion of the at least one of the plurality of air conditioning components extends through an opening in the roof of the vehicle and into a passenger compartment of the vehicle; wherein the at least one of the plurality of air conditioning components includes the multiple compressors a housing assembly having a mounting surface configured to contact an exterior of a roof of a vehicle; and a plurality of air conditioning components, including multiple compressors , disposed at least partially within the housing assembly; wherein the housing assembly is configured such that, when the air conditioner is installed in the vehicle such that the mounting surface contacts the roof of the vehicle, a first portion of at least one of the plurality of air conditioning components extends above the roof of the vehicle, and a second portion of the at least one of the plurality of air conditioning components extends through an opening in the roof of the vehicle and into a passenger compartment of the vehicle; wherein the at least one of the plurality of air conditioning components includes the multiple compressors
Bearing surface transporter for receiving an object to be transported, such as a bearing surface of a surgical table, comprising at least two motorized drive rollers and an operating handle , the operating handle comprising the following: a sensor housing ; a handle piece which is attached to the sensor housing of the operating handle so as to be rotatable about the longitudinal axis thereof; an angle of rotation sensor for detecting an angle of rotation and a direction of rotation of the handle piece and for providing a sensor signal to a control unit of the at least two drive rollers ; and a force sensor for detecting a force exerted on the handle piece in the direction of the longitudinal axis of the handle piece and for providing a sensor signal to the control unit of the at least two drive rollers , characterized in that the force sensor is integrated in the sensor housing of the operating handle . a sensor housing ; a handle piece which is attached to the sensor housing of the operating handle so as to be rotatable about the longitudinal axis thereof; an angle of rotation sensor for detecting an angle of rotation and a direction of rotation of the handle piece and for providing a sensor signal to a control unit of the at least two drive rollers ; and a force sensor for detecting a force exerted on the handle piece in the direction of the longitudinal axis of the handle piece and for providing a sensor signal to the control unit of the at least two drive rollers ,
A processing system , comprising: a stack pointer configured to reference a first return address stored on a stack; a return address buffer pointer configured to reference a second return address stored in a return address buffer ; and a return address verification logic configured to: responsive to detecting a dynamically computed address being pushed on the stack by an instruction other than a call instruction, store the dynamically computed address in the return address buffer; responsive to receiving a return instruction, compare the first return address to the second return address; and responsive to determining that the first return address is equal to the second return address, execute the return instruction. a stack pointer configured to reference a first return address stored on a stack; a return address buffer pointer configured to reference a second return address stored in a return address buffer ; and a return address verification logic configured to: responsive to detecting a dynamically computed address being pushed on the stack by an instruction other than a call instruction, store the dynamically computed address in the return address buffer; responsive to receiving a return instruction, compare the first return address to the second return address; and responsive to determining that the first return address is equal to the second return address, execute the return instruction. responsive to detecting a dynamically computed address being pushed on the stack by an instruction other than a call instruction, store the dynamically computed address in the return address buffer; responsive to receiving a return instruction, compare the first return address to the second return address; and responsive to determining that the first return address is equal to the second return address, execute the return instruction.
Bushing for feeding a cable through an opening in a wall, in particular a housing wall, comprising a cable with a cable sheath , a seal receptacle radially surrounding the cable sheath and a seal arranged in the seal receptacle , wherein at least the seal receptacle is formed by injection moulding or overmoulding on the cable sheath , the seal receptacle on the outer side is formed tapering conically in the axial direction of the cable , characterised in that the seal receptacle is formed with a radial depression for receiving the seal .
Printing machine, comprising a hot-air dryer with at least one dryer segment with a nozzle-action distance (A) between a nozzle surface of the at least one dryer segment and a transport path of sheets of at most 20 millimeters in an active position for drying the sheets, the hot-air dryer being mounted so as to be adjustable away from the transport path of the sheets into a passive position, characterized in that the hot-air dryer is controlled in the passive position to continue ejecting hot air.