mhurhangee/patent-ind-claim-en huggingface dataset:
A microfluidic droplet dispensing system, the system comprising: a droplet feed line to carry droplets for dispensing; a dispensing line to carry dispensing fluid for dispensing the droplets; a droplet outlet line coupled to a droplet outlet ; a first junction having a first input to receive a flow from said droplet feed line , having a second input to receive a flow from said dispensing line and having an output to said droplet outlet line ; a second junction coupled to said droplet outlet line between said first junction and said droplet outlet , having an output to a waste line ; a first pressure source to provide pressurised dispensing fluid to said dispensing line to eject droplets from said droplet outlet ; a droplet dispensing valve between said first pressure source and said dispensing line to control the ejection of droplets from said droplet outlet ; characterized in that the system further comprises: a second pressure source to provide pressurised dispensing fluid to a droplet protect line; a third junction having a first input from said droplet feed line , having a second input from said droplet protect line, and having an output; and a volume flow throttle coupled between the output of said third junction and the first input of said first junction to restrict a volume flow from said third junction into said first junction. a droplet feed line to carry droplets for dispensing; a dispensing line to carry dispensing fluid for dispensing the droplets; a droplet outlet line coupled to a droplet outlet ; a first junction having a first input to receive a flow from said droplet feed line , having a second input to receive a flow from said dispensing line and having an output to said droplet outlet line ; a second junction coupled to said droplet outlet line between said first junction and said droplet outlet , having an output to a waste line ; a first pressure source to provide pressurised dispensing fluid to said dispensing line to eject droplets from said droplet outlet ; a droplet dispensing valve between said first pressure source and said dispensing line to control the ejection of droplets from said droplet outlet ; characterized in that the system further comprises: a second pressure source to provide pressurised dispensing fluid to a droplet protect line; a third junction having a first input from said droplet feed line , having a second input from said droplet protect line, and having an output; and a volume flow throttle coupled between the output of said third junction and the first input of said first junction to restrict a volume flow from said third junction into said first junction. a second pressure source to provide pressurised dispensing fluid to a droplet protect line; a third junction having a first input from said droplet feed line , having a second input from said droplet protect line, and having an output; and a volume flow throttle coupled between the output of said third junction and the first input of said first junction to restrict a volume flow from said third junction into said first junction.
Raw meal delivery device for the delivery of raw meal (R) into a gas line, such as a riser of a heat exchanger cyclone , or into a reactor, such as a calciner , of a layout for production of cement clinker, comprising - a connection line for connecting a raw meal line to the gas line or the reactor, - an inclined raw meal chute , which is situated inside the connection line and by which raw meal (R) gets from the raw meal line into the gas line or the reactor, wherein at the foot of the raw meal chute there is arranged a baffle slide , which protrudes into the path of the raw meal (R) flowing along the raw meal chute and deflects the incoming raw meal (R), characterized in that a substantially convex displacement body is arranged on the baffle slide , which lies in the path of the incoming raw meal and disperses the flow of raw meal (R). - a connection line for connecting a raw meal line to the gas line or the reactor, - an inclined raw meal chute , which is situated inside the connection line and by which raw meal (R) gets from the raw meal line into the gas line or the reactor, wherein at the foot of the raw meal chute there is arranged a baffle slide , which protrudes into the path of the raw meal (R) flowing along the raw meal chute and deflects the incoming raw meal (R), characterized in that a substantially convex displacement body is arranged on the baffle slide , which lies in the path of the incoming raw meal and disperses the flow of raw meal (R).
An air cap (100; 500; 600) for a liquid spray gun, the air cap comprising: a base member (102; 502; 602) comprising: a base member body (116; 516), a receiving feature (114; 514), at least one pair of air horns (108; 508; 608) each comprising an exit air opening (107; 507; 607), and a nozzle tip opening (106; 506; 606); and a face geometry insert (104; 204; 504; 604) comprising a bridging portion (105; 205; 505; 605) and a pair of shaping air apertures (110; 210; 510) and being retained to the base member body (116; 516) in the receiving feature (114; 514) such that the exit air openings (107; 507; 607) in the base member body (116; 516) are configured to deliver air to the shaping air apertures (110; 210; 510); wherein each aperture of the pair of shaping air apertures (110; 210; 510) is located on an opposite side of a spray axis (150; 550) of the air cap (100; 500; 600). a base member (102; 502; 602) comprising: a base member body (116; 516), a receiving feature (114; 514), at least one pair of air horns (108; 508; 608) each comprising an exit air opening (107; 507; 607), and a nozzle tip opening (106; 506; 606); and a face geometry insert (104; 204; 504; 604) comprising a bridging portion (105; 205; 505; 605) and a pair of shaping air apertures (110; 210; 510) and being retained to the base member body (116; 516) in the receiving feature (114; 514) such that the exit air openings (107; 507; 607) in the base member body (116; 516) are configured to deliver air to the shaping air apertures (110; 210; 510); wherein each aperture of the pair of shaping air apertures (110; 210; 510) is located on an opposite side of a spray axis (150; 550) of the air cap (100; 500; 600).
A method for wireless communication by a user equipment, UE, comprising: receiving a grant indicating a beginning transmission time interval, TTI, of a set of consecutive TTIs and allocation of resources within each TTI of the set of consecutive TTIs; receiving an indicator of a feedback window that is offset relative to the beginning TTI of the set of consecutive TTIs, the feedback window comprising a plurality of control channel occasions interspersed within a duration of the set of consecutive TTIs; receiving a transport block within a first TTI of the set of consecutive TTIs; and transmitting , within a first control channel occasion of the plurality of control channel occasions, feedback to indicate whether the transport block was successfully received. receiving a grant indicating a beginning transmission time interval, TTI, of a set of consecutive TTIs and allocation of resources within each TTI of the set of consecutive TTIs; receiving an indicator of a feedback window that is offset relative to the beginning TTI of the set of consecutive TTIs, the feedback window comprising a plurality of control channel occasions interspersed within a duration of the set of consecutive TTIs; receiving a transport block within a first TTI of the set of consecutive TTIs; and transmitting , within a first control channel occasion of the plurality of control channel occasions, feedback to indicate whether the transport block was successfully received.
A method for making a containment element that has a bottom wall , a lateral wall connected at the bottom to the bottom wall and a shaped perimetric flange that extends outwards from an upper part of the lateral wall , wherein the method comprises: an operating step of taking a flat sheet constituted of a thermoformable material; a thermoforming operating step in which the flat sheet is thermoformed and the bottom wall , the lateral wall and an annular band that projects outwards from the upper part of the lateral wall are created; and, subsequently a hot bending operating step for bending the annular band , dividing the annular band into a first annular portion and a second annular portion which are concentric and are not coplanar, after the hot bending the annular band constituting the shaped perimetric flange. an operating step of taking a flat sheet constituted of a thermoformable material; a thermoforming operating step in which the flat sheet is thermoformed and the bottom wall , the lateral wall and an annular band that projects outwards from the upper part of the lateral wall are created; and, subsequently a hot bending operating step for bending the annular band , dividing the annular band into a first annular portion and a second annular portion which are concentric and are not coplanar, after the hot bending the annular band constituting the shaped perimetric flange.
A method implemented in a wireless transmit/receive unit, WTRU, the method comprising: transmitting a positioning request by any of transmitting a positioning specific preamble and transmitting a preamble in a positioning specific resource, wherein the WTRU is in any of idle mode and inactive mode; receiving a positioning random access response, positioning RAR indicating allocated resources for transmitting a repetition of an uplink positioning reference signal, UL PRS; and transmitting the UL PRS at least two times in the allocated resources transmitting a positioning request by any of transmitting a positioning specific preamble and transmitting a preamble in a positioning specific resource, wherein the WTRU is in any of idle mode and inactive mode; receiving a positioning random access response, positioning RAR indicating allocated resources for transmitting a repetition of an uplink positioning reference signal, UL PRS; and transmitting the UL PRS at least two times in the allocated resources
Safety switch with a redundant input structure and with a redundant output structure, which is configured for integration in a series circuit of safety switches , wherein the safety switch comprises means for recognition and setting of the mode of operation within the series circuit , wherein the safety switch is configured for exchange in the series circuit during operation thereof, wherein the safety switch generates a binary switching signal which is output by way of the redundant output structure, wherein the switching signal has as first switching state a switched-on state corresponding with an active safety condition or a release signal and as second switching state a switched-off state corresponding with a non-active safety condition, wherein test pulses are output by way of the redundant output structure only in the switched-on state, wherein the switching capability of the redundant output structure is tested by the test pulses, wherein the redundant output structure is formed by two outputs (OA, OB) and the redundant input structure by two inputs (IA, IB), wherein a first output and a first input form a first channel and a second input and a second output form a second channel, and wherein through reading back the test pulses at an output of one channel to the respective other channel the switching capability of this output is tested.
Measurement system having a flat measurement element receptacle having substantially parallel cover surfaces , suitable for installation between torque- and/or force-transmitting machine parts, having at least one piezoelectric measurement element , wherein the measurement element is arranged in a through-opening of the measurement element receptacle , characterised in that the at least one measurement element is mechanically fixed with defined play in the through-opening , such that the at least one measurement element comprises structures on its circumferential surface which engage with play in at least one spatial direction parallel to the cover surfaces and/or normal to the cover surfaces in corresponding structures on the circumferential wall of the through-opening .
A porous oxide catalyst, wherein the catalyst is Pd (1 wt%)/Ce 0.85 Cu 0.05 Zr 0.1 O 1.95 , wherein the porous oxide catalyst comprises mesopores having a pore size of 1 to 50 nanometers, wherein the pore size of the mesopore is determined by measuring the BET surface area and the total pore volume of the porous oxide catalyst.
A process of injection blow molding or injection stretch blow molding of an article; the process comprising a step of injection molding of a preform on a core pin followed by a step of blow molding or stretch blow molding of said preform ; wherein the article is a recipient which is a blow-molded article comprising: - a reservoir , the reservoir having a bottom wall comprising an opening ; - a central element arranged at the opening of the reservoir ; - a socket arranged to surround the central element ; wherein both the socket and the central element show a lower end and an upper end, and are connected by their respective upper ends by means of a disc with a central aperture, wherein the assembly comprising the socket , the central element and the disc is forming a ring that comes into one piece; wherein least a part of the bottom wall of the reservoir is arranged to face the disc ; Wherein the ring and the reservoir also come into one piece so that the reservoir is irreversibly fixed to the ring ; wherein the socket shows an internal relief being an internal thread; and in that the step of blow molding or stretch blow molding of the preform is followed by a step of unscrewing the article from the core pin performed before a step of ejection of said article; and wherein the reservoir has a single opening being the opening of the bottom wall. - a reservoir , the reservoir having a bottom wall comprising an opening ; - a central element arranged at the opening of the reservoir ; - a socket arranged to surround the central element ; wherein both the socket and the central element show a lower end and an upper end, and are connected by their respective upper ends by means of a disc with a central aperture, wherein the assembly comprising the socket , the central element and the disc is forming a ring that comes into one piece; wherein least a part of the bottom wall of the reservoir is arranged to face the disc ; Wherein the ring and the reservoir also come into one piece so that the reservoir is irreversibly fixed to the ring ; wherein the socket shows an internal relief being an internal thread; and in that the step of blow molding or stretch blow molding of the preform is followed by a step of unscrewing the article from the core pin performed before a step of ejection of said article; and wherein the reservoir has a single opening being the opening of the bottom wall.
An optical fiber comprising: first and second doped cores that extend along the length of the fiber; each of the cores having a different dopant regime; the first core having a first grating and the second core having a second grating , the first and second grating having substantially the same grating period; and a cladding that surrounds the first and second cores , wherein each grating has a temperature coefficient and a stress coefficient respectively relating a change in temperature and a change in stress experienced by the fiber to a shift in the wavelength of light reflected by that grating, the dopant regimes are chosen so that the temperature coefficient of the first grating is different from the temperature coefficient of the second grating and so that the stress coefficient of the first grating is the same as the stress coefficient of the second grating ; said fiber being characterised in that said dopant regimes are further chosen so that a shift in the wavelength of light reflected by the first grating due to a change in hydrogen concentration is the same as a shift in the wavelength of light reflected by the second grating due to said change in hydrogen concentration. first and second doped cores that extend along the length of the fiber; each of the cores having a different dopant regime; the first core having a first grating and the second core having a second grating , the first and second grating having substantially the same grating period; and a cladding that surrounds the first and second cores , wherein each grating has a temperature coefficient and a stress coefficient respectively relating a change in temperature and a change in stress experienced by the fiber to a shift in the wavelength of light reflected by that grating, the dopant regimes are chosen so that the temperature coefficient of the first grating is different from the temperature coefficient of the second grating and so that the stress coefficient of the first grating is the same as the stress coefficient of the second grating ; said fiber being characterised in that said dopant regimes are further chosen so that a shift in the wavelength of light reflected by the first grating due to a change in hydrogen concentration is the same as a shift in the wavelength of light reflected by the second grating due to said change in hydrogen concentration.
A tubular molded body , comprising: a tube main body formed in a tubular shape; an attachment flange formed in a flange shape to project from the tube main body , the attachment flange comprising a thin-walled hinge and an attachment flange main body being rotatable by the hinge ; a hinge protection portion formed on the tube main body near an end of the hinge , wherein a tip portion of the hinge protection portion is formed on a projecting side of the attachment flange beyond the hinge ; characterized in that a thin-walled side plate portion provided between the hinge protection portion and the attachment flange , the side plate portion extending from the end of the hinge in the projecting direction of the attachment flange , wherein the hinge enables the tubular molded body including the attachment flange to rotate until the attachment flange main body of the attachment flange abuts against the tube main body , and wherein when the attachment flange main body rotates, the side plate portion provided between the hinge protection portion and the attachment flange is configured to be broken. a tube main body formed in a tubular shape; an attachment flange formed in a flange shape to project from the tube main body , the attachment flange comprising a thin-walled hinge and an attachment flange main body being rotatable by the hinge ; a hinge protection portion formed on the tube main body near an end of the hinge , wherein a tip portion of the hinge protection portion is formed on a projecting side of the attachment flange beyond the hinge ; characterized in that a thin-walled side plate portion provided between the hinge protection portion and the attachment flange , the side plate portion extending from the end of the hinge in the projecting direction of the attachment flange , wherein the hinge enables the tubular molded body including the attachment flange to rotate until the attachment flange main body of the attachment flange abuts against the tube main body , and wherein when the attachment flange main body rotates, the side plate portion provided between the hinge protection portion and the attachment flange is configured to be broken.
A thin film transistor comprising: an active layer ; and a gate electrode at least partially overlapped with the active layer, wherein the active layer includes: a first active layer and a second active layer on the first active layer; a channel ; a first connection portion contacting a first side of the channel; and a second connection portion contacting a second side of the channel, wherein the channel includes: a first overlap area (OA1) in which the first active layer and the second active layer overlap each other based on a plan view; and a first non-overlap area (NOA1) in which the first active layer and the second active layer do not overlap each other based on the plan view, wherein in the channel of the active layer, each of the first active layer and the second active layer extends from the first connection portion to the second connection portion , and wherein the second active layer has a mobility greater than a mobility of the first active layer ; wherein the active layer further includes a third active layer on the second active layer , wherein the third active layer extends from the first connection portion to the second connection portion in the channel, and wherein the third active layer has a mobility smaller than a mobility of the second active layer . an active layer ; and a gate electrode at least partially overlapped with the active layer, wherein the active layer includes: a first active layer and a second active layer on the first active layer; a channel ; a first connection portion contacting a first side of the channel; and a second connection portion contacting a second side of the channel, a first active layer and a second active layer on the first active layer; a channel ; a first connection portion contacting a first side of the channel; and a second connection portion contacting a second side of the channel, wherein the channel includes: a first overlap area (OA1) in which the first active layer and the second active layer overlap each other based on a plan view; and a first non-overlap area (NOA1) in which the first active layer and the second active layer do not overlap each other based on the plan view, a first overlap area (OA1) in which the first active layer and the second active layer overlap each other based on a plan view; and a first non-overlap area (NOA1) in which the first active layer and the second active layer do not overlap each other based on the plan view, wherein in the channel of the active layer, each of the first active layer and the second active layer extends from the first connection portion to the second connection portion , and wherein the second active layer has a mobility greater than a mobility of the first active layer ; wherein the active layer further includes a third active layer on the second active layer , wherein the third active layer extends from the first connection portion to the second connection portion in the channel, and wherein the third active layer has a mobility smaller than a mobility of the second active layer .
A polyester-epoxide polymer composition which comprises a reaction product of: (a) a polyepoxide compound having an equivalent weight within the range of 125 to 250 g/eq.; and (b) a polyol composition comprising a polyester polyol, wherein the polyester polyol has a hydroxyl value within the range of 50 to 400 mg KOH/g, an average hydroxyl functionality within the range of 1.5 to 4.0, and an acid number less than 5 mg KOH/g; wherein the ratio of epoxy equivalents of the polyepoxide compound to hydroxyl equivalents of the polyol composition is within the range of 0.8 to 3.5, and the polyester-epoxide polymer composition has a glass-transition temperature as measured by differential scanning calorimetry as indicated in the description within the range of -40°C to 60°C. (a) a polyepoxide compound having an equivalent weight within the range of 125 to 250 g/eq.; and (b) a polyol composition comprising a polyester polyol, wherein the polyester polyol has a hydroxyl value within the range of 50 to 400 mg KOH/g, an average hydroxyl functionality within the range of 1.5 to 4.0, and an acid number less than 5 mg KOH/g;