mhurhangee/patent-ind-claim-en huggingface dataset:
A packaging machine configured to form a wrapper from a web of packaging material and secure the wrapper to a package , the packaging machine comprising: an unwind station base configured to support the web of packaging material; a wrapping station frame spaced apart from the unwind station base ; a scoring blade configured to selectively score the web to form a break line extending between opposite lateral sides of the web ; a conveyor assembly extending from the unwind station base to the wrapping station frame , the conveyor assembly including a first set of conveyors configured to advance the web towards the wrapping station frame at a first speed and a second set of conveyors configured to advance the web towards the wrapping station frame at a second speed that is greater than the first speed, wherein the difference in conveyor speeds causes the wrapper to break apart from the web at the break line; an elevator secured to the wrapping station frame and configured to lift the package vertically into engagement with the wrapper ; characterised in that it further comprises a carriage slidably mounted on the unwind station base , and on which the conveyor assembly is secured; wherein the carriage is configured to selectively slide in a longitudinal direction relative to the wrapping station frame to adjust a travel distance of the wrapper to the elevator . an unwind station base configured to support the web of packaging material; a wrapping station frame spaced apart from the unwind station base ; a scoring blade configured to selectively score the web to form a break line extending between opposite lateral sides of the web ; a conveyor assembly extending from the unwind station base to the wrapping station frame , the conveyor assembly including a first set of conveyors configured to advance the web towards the wrapping station frame at a first speed and a second set of conveyors configured to advance the web towards the wrapping station frame at a second speed that is greater than the first speed, wherein the difference in conveyor speeds causes the wrapper to break apart from the web at the break line; an elevator secured to the wrapping station frame and configured to lift the package vertically into engagement with the wrapper ; characterised in that it further comprises a carriage slidably mounted on the unwind station base , and on which the conveyor assembly is secured; wherein the carriage is configured to selectively slide in a longitudinal direction relative to the wrapping station frame to adjust a travel distance of the wrapper to the elevator .
A method for production of large-size glass-ceramic foamed blocks, comprising: preparation of finely ground glass-ceramic phase with particle size 1-50 μm wherein said preparation includes grinding of the batch containing following components in weight %: binding component - 5 to 95; flux - 5 to 95; production waste containing at least 10 mass % of silicon carbide - 0.5 to 10 over 100%; forming, drying and sintering of granules, subsequent foaming thereof, rapid cooling and wet grinding of the foamed granules to particle size of 1 to 50 μm; subsequently preparation of finely ground batch with particle size 1-50 μm to produce foamed blocks, wherein said preparation comprises grinding the components for foamed blocks fabrication using slip or dry process, said finely ground batch contains finely ground glass-ceramic phase in the amount of 5-95 weight %, binding component, wherein the binding component and the glass-ceramic phase add to 100%, and silicon carbide - in an amount of 0,05 to 1,0 weight % is calculated in addition to 100%, wherein silicon carbide is introduced to the batch used for foamed blocks production 1.5 to 3 hours before batch components grinding completion, while the grain size of silicon carbide is from 5 to 40 μm; wherein the method further comprises subsequently drying and pressing the finely ground batch to obtain 15-60 mm thick blanks in the form of large-size tiles, and drying of large-size tiles to residual moisture content of 0.5 %; afterwards large-size tiles are transferred to the kiln along a roller conveyor without moulds and trays, whereas the roller conveyor's speed at the end of large-scale tile sintering zone inside the kiln is 5 to 25% less than before this zone, which ensures formation of a single sintered bar that is then subject to foaming; before dried large-size tiles are added to the kiln, their lower and two side surfaces parallel to roller conveyor motion are covered with double-layered engobe, and foaming at the end of kiln the bar is then followed by rapid cooling down to the temperature providing stability of its shape, then a notch is applied on its surface perpendicularly to movement of the roller conveyor; once the bar leaves the kiln, it is separated into blocks along notched lines, afterwards the blocks are fed to annealing furnace and then to a mechanical treatment.
Detector for detecting particles comprising at least: - at least one resonant cavity formed at least in part by a first reflector , a second reflector disposed at a distance from the first reflector and a channel located between the first and second reflectors, the channel being intended to receive at least one fluid comprising particles and to receive at least one light radiation ; - at least one detection system comprising at least one photodetector , - characterised in that the detector is configured such that a portion of the light radiation present in the channel escapes from the cavity by passing through the second reflector and reaches the detection system , thereby enabling the at least one photodetector to detect leakages from the cavity , - and in that the second reflector is a photonic crystal membrane PCM based reflector. - at least one resonant cavity formed at least in part by a first reflector , a second reflector disposed at a distance from the first reflector and a channel located between the first and second reflectors, the channel being intended to receive at least one fluid comprising particles and to receive at least one light radiation ; - at least one detection system comprising at least one photodetector , - characterised in that the detector is configured such that a portion of the light radiation present in the channel escapes from the cavity by passing through the second reflector and reaches the detection system , thereby enabling the at least one photodetector to detect leakages from the cavity , - and in that the second reflector is a photonic crystal membrane PCM based reflector.
An amplifier system with controllable load driving characteristics, the amplifier system comprising: an output terminal configured to connect to a load ; a first output switch and a second output switch ; an operational amplifier having a voltage output electrically connected to the output terminal through the first output switch; a transconductance amplifier having a current output electrically connected to the output terminal through the second output switch; and a control circuit configured to control the first output switch to selectively, based on the load, connect the voltage output of the operational amplifier to the output terminal, and to control the second output switch to selectively, based on the load, connect the current output of the transconductance amplifier to the output terminal. an output terminal configured to connect to a load ; a first output switch and a second output switch ; an operational amplifier having a voltage output electrically connected to the output terminal through the first output switch; a transconductance amplifier having a current output electrically connected to the output terminal through the second output switch; and a control circuit configured to control the first output switch to selectively, based on the load, connect the voltage output of the operational amplifier to the output terminal, and to control the second output switch to selectively, based on the load, connect the current output of the transconductance amplifier to the output terminal.
A dual lock flow gate (DLFG) (120; 300A-F; 400A-D) comprises: a body (302; 402) of a cylindrical flow gate and a cover (330; 404) at an end of the body; a shear pin (341; 405) interfering with the cover such that cover movement away from a body lip (325; 415) bounding a body through hole is inhibited; at a body end opposite the cover end, a bore (340; 419) in the body sidewall providing access to a part of the cover (330; 404); and, a plunger (344; 406) in the bore, a spring (341; 408) acting on the plunger, and a spring rest (342; 410) inserted in the bore; wherein an end (352; 423) of the plunger enters a plunger receiving hole (353; 421) of the cover when the shear pin fails and releases the cover such that the plunger and the receiving hole of the cover part are aligned. a body (302; 402) of a cylindrical flow gate and a cover (330; 404) at an end of the body; a shear pin (341; 405) interfering with the cover such that cover movement away from a body lip (325; 415) bounding a body through hole is inhibited; at a body end opposite the cover end, a bore (340; 419) in the body sidewall providing access to a part of the cover (330; 404); and, a plunger (344; 406) in the bore, a spring (341; 408) acting on the plunger, and a spring rest (342; 410) inserted in the bore; wherein an end (352; 423) of the plunger enters a plunger receiving hole (353; 421) of the cover when the shear pin fails and releases the cover such that the plunger and the receiving hole of the cover part are aligned.
A connection assembly including a first connector and a second connector , and wherein the first connector comprises a post having an axis; a body of the second connector comprises a fastening passage for said post, and is arranged to allow the post to penetrate into said fastening passage by moving forward in a fastening direction (X+), until it reaches a fastening position; the first connector and the second connector are configured in such a manner that in the fastening position, the post is prevented by an abutment device from moving in a disassembly direction (X-) opposite to the fastening direction (X+); and the first connector and the second connector are configured in such a manner that an external action applied solely to the post allows the post to pass from the fastening position to a free position, in which the post is disengaged from the abutment device and can move in translation in the disassembly direction; the connection assembly being characterized in that in fastening position, the post is in a predetermined angular range; and the connection assembly further comprises angular returning means, comprising for example a spring , configured to return the post into said predetermined angular range relative to the axis of the post, when the post is fastened to a body of the first connector before it is fastened to the second connector . the first connector comprises a post having an axis; a body of the second connector comprises a fastening passage for said post, and is arranged to allow the post to penetrate into said fastening passage by moving forward in a fastening direction (X+), until it reaches a fastening position; the first connector and the second connector are configured in such a manner that in the fastening position, the post is prevented by an abutment device from moving in a disassembly direction (X-) opposite to the fastening direction (X+); and the first connector and the second connector are configured in such a manner that an external action applied solely to the post allows the post to pass from the fastening position to a free position, in which the post is disengaged from the abutment device and can move in translation in the disassembly direction; the connection assembly being characterized in that in fastening position, the post is in a predetermined angular range; and the connection assembly further comprises angular returning means, comprising for example a spring , configured to return the post into said predetermined angular range relative to the axis of the post, when the post is fastened to a body of the first connector before it is fastened to the second connector .
Headphones (200; 300) with acoustic enhancement, the headphones having a corresponding frequency response, comprising: a driver unit with a housing having an interior side for integrating together a magnet , a diaphragm , and a primary bass port , the primary bass port being substantially surrounded by the magnet and having a primary bass port chamber with a first end opening facing towards the diaphragm and a second end opening facing opposite of the first end opening, the diaphragm being located on the interior side of the driver unit and configured for analog audio reproduction; and a secondary bass port (240;340) having a secondary bass port chamber (242;342) with a third end opening and a fourth end opening , the secondary bass port being coupled at the third end opening to the primary bass port at the second end opening, and the fourth end opening having substantially unimpeded air flow, further comprising: an acoustic chamber configured to prevent ambient noise from substantially mixing with the analog audio reproduction, the acoustic chamber substantially encircling and covering a backside of the driver unit except for where the secondary bass port couples to the primary bass port of the driver , wherein the acoustic chamber and the secondary bass port are configured for collectively tuning the sound pressure levels in the frequency response and the backside of the driver unit corresponds to an exterior side of the housing , the exterior side of the housing being opposite of the interior side of the housing, wherein the second end opening of the primary bass port does not open to the acoustic chamber. a driver unit with a housing having an interior side for integrating together a magnet , a diaphragm , and a primary bass port , the primary bass port being substantially surrounded by the magnet and having a primary bass port chamber with a first end opening facing towards the diaphragm and a second end opening facing opposite of the first end opening, the diaphragm being located on the interior side of the driver unit and configured for analog audio reproduction; and a secondary bass port (240;340) having a secondary bass port chamber (242;342) with a third end opening and a fourth end opening , the secondary bass port being coupled at the third end opening to the primary bass port at the second end opening, and the fourth end opening having substantially unimpeded air flow, further comprising: an acoustic chamber configured to prevent ambient noise from substantially mixing with the analog audio reproduction, the acoustic chamber substantially encircling and covering a backside of the driver unit except for where the secondary bass port couples to the primary bass port of the driver , wherein the acoustic chamber and the secondary bass port are configured for collectively tuning the sound pressure levels in the frequency response and the backside of the driver unit corresponds to an exterior side of the housing , the exterior side of the housing being opposite of the interior side of the housing, wherein the second end opening of the primary bass port does not open to the acoustic chamber.
A method for distributing resource units among instances of actors (A1, A2, A3, A4, A5, A6), the method being performed by a requesting runtime environment , the method comprising: providing , to responding runtime environments , a request for resource units to be used by at least one of the instances when run by the requesting runtime environment ; obtaining (S106), from the responding runtime environments , indications of amount of resource units made available from a respective one of the responding runtime environments to the requesting runtime environment ; determining (S108), based on the obtained indications, individual amounts of resource units required by the requesting runtime environment from each of the responding runtime environments ; and indicating (S110), to the responding runtime environments , said individual amounts of resource units required by the requesting runtime environment . providing , to responding runtime environments , a request for resource units to be used by at least one of the instances when run by the requesting runtime environment ; obtaining (S106), from the responding runtime environments , indications of amount of resource units made available from a respective one of the responding runtime environments to the requesting runtime environment ; determining (S108), based on the obtained indications, individual amounts of resource units required by the requesting runtime environment from each of the responding runtime environments ; and indicating (S110), to the responding runtime environments , said individual amounts of resource units required by the requesting runtime environment .
Compounds of formula (I): in which: X denotes an oxygen atom O, a sulfur atom S or a radical NR a ; R 1 and R 2 independently denote: - a hydrogen atom H, - a linear or branched, saturated C 1 -C 6 hydrocarbon-based radical, optionally substituted with one or more hydroxyl radicals, - a linear or branched, unsaturated C 2 -C 6 hydrocarbon-based radical, optionally substituted with one or more hydroxyl radicals, or R 1 and R 2 form, together with each carbon atom that bears them, a phenyl group optionally substituted with one or more radicals -OR b , R a and R b independently denote: - a hydrogen atom H, - a linear or branched saturated C 1 -C 6 hydrocarbon-based radical, or - an acetyl radical; and also the salts thereof, the solvates thereof and the optical and/or geometrical isomers thereof, including enantiomers and diastereoisomers, and the racemic mixtures thereof, alone or as a mixture. X denotes an oxygen atom O, a sulfur atom S or a radical NR a ; R 1 and R 2 independently denote: - a hydrogen atom H, - a linear or branched, saturated C 1 -C 6 hydrocarbon-based radical, optionally substituted with one or more hydroxyl radicals, - a linear or branched, unsaturated C 2 -C 6 hydrocarbon-based radical, optionally substituted with one or more hydroxyl radicals, or - a hydrogen atom H, - a linear or branched, saturated C 1 -C 6 hydrocarbon-based radical, optionally substituted with one or more hydroxyl radicals, - a linear or branched, unsaturated C 2 -C 6 hydrocarbon-based radical, optionally substituted with one or more hydroxyl radicals, or R 1 and R 2 form, together with each carbon atom that bears them, a phenyl group optionally substituted with one or more radicals -OR b , R a and R b independently denote: - a hydrogen atom H, - a linear or branched saturated C 1 -C 6 hydrocarbon-based radical, or - an acetyl radical; - a hydrogen atom H, - a linear or branched saturated C 1 -C 6 hydrocarbon-based radical, or - an acetyl radical; and also the salts thereof, the solvates thereof and the optical and/or geometrical isomers thereof, including enantiomers and diastereoisomers, and the racemic mixtures thereof, alone or as a mixture.
Computer-implemented method for image processing, comprising: identifying a fluctuation signature in the spatial frequency domain on the basis of a sequence of images, wherein the fluctuation signature is identified on the basis of a comparison of the fluctuation signature in the spatial frequency domain on the basis of the sequence of images with multiple stored fluctuation signatures, and wherein the fluctuation signature is a characteristic distribution of the spectral density function over multiple images in the spatial frequency domain, and restoring at least one image of the sequence of images on the basis of the detected fluctuation signature, wherein the restoring takes place on the basis of restoration information assigned to the stored fluctuation signatures.
A hair removal device comprising a handle , which encases a drive unit, and a head , which is pivotably supported on the handle and comprises at least one hair removal unit coupled to the drive unit by means of a transmission converting a motion of the drive unit into a movement of a driven part of the at least one hair removal unit , wherein pivoting of the head with respect to the handle is limited by abutment of at least one stop face of at least one stop element with at least one counter-stop element , characterized in that the at least one stop element is made by multi-component injection moulding from a first plastic material and a second plastic material which is softer than the first plastic material, and in that the handle encases an energy source, in that the at least one stop face is made from the second plastic material, in that the at least one stop element comprises at least one soft rib made from the second plastic material, wherein the soft rib exerts a biasing force on a component part abutting the soft rib and in that the at least one stop face and said soft rib are connected with each other by a web made from the second plastic material.
Electronic parking brake system , comprising: - an air supply , - a check valve , connected to the air supply, - an electro-pneumatic control unit , - at least one park brake actuator , - a relay valve , comprising a first port connected to the check valve, a second port connected to the electro-pneumatic control unit, a third port connected to the park brake actuator and a fourth port which is in communication with the atmosphere, and - an electrically actuated valve (14; 15), which is controlled by the electro-pneumatic control unit and which includes a first orifice (14a; 15a) connected to a compressed air line extending between the check valve and the air supply, a second orifice (14b; 15b), a third orifice (14c; 15c) connected to the electro-pneumatic control unit , and preferably a vent orifice , characterized in that the second orifice (14b; 15b) is connected to another compressed air line extending between the check valve and the first port of the relay valve , and in that the electrically actuated valve is designed for switching into the second configuration as soon as it is no more electrically supplied. - an air supply , - a check valve , connected to the air supply, - an electro-pneumatic control unit , - at least one park brake actuator , - a relay valve , comprising a first port connected to the check valve, a second port connected to the electro-pneumatic control unit, a third port connected to the park brake actuator and a fourth port which is in communication with the atmosphere, and - an electrically actuated valve (14; 15), which is controlled by the electro-pneumatic control unit and which includes a first orifice (14a; 15a) connected to a compressed air line extending between the check valve and the air supply, a second orifice (14b; 15b), a third orifice (14c; 15c) connected to the electro-pneumatic control unit , and preferably a vent orifice , characterized in that the second orifice (14b; 15b) is connected to another compressed air line extending between the check valve and the first port of the relay valve , and in that the electrically actuated valve is designed for switching into the second configuration as soon as it is no more electrically supplied.