mhurhangee/patent-ind-claim-en huggingface dataset:
An optical device, comprising: a light-transmitting substrate having an input aperture, an output aperture, at least two major surfaces and edges; an optical element for coupling light waves into the light-transmitting substrate ; at least one partially reflecting surface located between the two major surfaces of the light-transmitting substrate for partially reflecting light waves out of the light-transmitting substrate ; a first transparent plate , having at least two major surfaces, one of the major surfaces of the first transparent plate being optically attached to a major surface of the light-transmitting substrate defining an interface plane , characterised in that a beam-splitting coating is applied at the interface plane between the light-transmitting substrate and the first transparent plate , such that said light-transmitting substrate and said first transparent plate form at least part of a light-guide optical element having an upper major surface , a lower major surface and the interface plane , said upper major surface , said lower major surface and said internal partially reflecting interface plane all being parallel, wherein light waves coupled inside the light-transmitting substrate are partially reflected from the interface plane and partially pass therethrough, and wherein the light waves undergo a plurality of total internal reflections off the upper major surface and the lower major surface between said input aperture and said output aperture. a light-transmitting substrate having an input aperture, an output aperture, at least two major surfaces and edges; an optical element for coupling light waves into the light-transmitting substrate ; at least one partially reflecting surface located between the two major surfaces of the light-transmitting substrate for partially reflecting light waves out of the light-transmitting substrate ; a first transparent plate , having at least two major surfaces, one of the major surfaces of the first transparent plate being optically attached to a major surface of the light-transmitting substrate defining an interface plane , characterised in that a beam-splitting coating is applied at the interface plane between the light-transmitting substrate and the first transparent plate , such that said light-transmitting substrate and said first transparent plate form at least part of a light-guide optical element having an upper major surface , a lower major surface and the interface plane , said upper major surface , said lower major surface and said internal partially reflecting interface plane all being parallel, wherein light waves coupled inside the light-transmitting substrate are partially reflected from the interface plane and partially pass therethrough, and wherein the light waves undergo a plurality of total internal reflections off the upper major surface and the lower major surface between said input aperture and said output aperture.
A pharmaceutical formulation of docetaxel comprising two compositions that are mixed prior to being infused or administered to patients, that comprises: (a) a first liquid composition comprising docetaxel, or a pharmaceutically acceptable salt thereof, ethanol, and an organic acid, wherein the organic acid is not aspartic acid or glutamic acid, and (b) a second aqueous composition comprising human serum albumin and a parenterally acceptable vehicle, wherein the pharmaceutical formulation does not contain Polysorbate 80, and wherein the two compositions are mixed in less than 24 hours prior to being infused or administered to patients.
An uplink power control method, comprising: receiving, by a terminal device, first indication information from a network side, wherein the first indication information is used to indicate whether the terminal device uses a downlink path loss estimation to obtain transmitting power of an uplink signal; if the first indication information indicates that the terminal device uses the downlink path loss estimation to obtain the transmitting power of the uplink signal: determining , by the terminal device, a target downlink signal for performing the downlink path loss estimation; performing , by the terminal device, the downlink path loss estimation based on the target downlink signal to obtain a downlink path loss estimate; and determining , by the terminal device, the transmitting power of the uplink signal according to the downlink path loss estimate; if the first indication information indicates that the terminal device does not use the downlink path loss estimation to obtain the transmitting power of the uplink signal: determining, by the terminal device, to use previously determined transmitting power as the transmitting power of the uplink signal; transmitting , by the terminal device, the uplink signal according to the transmitting power. receiving, by a terminal device, first indication information from a network side, wherein the first indication information is used to indicate whether the terminal device uses a downlink path loss estimation to obtain transmitting power of an uplink signal; if the first indication information indicates that the terminal device uses the downlink path loss estimation to obtain the transmitting power of the uplink signal: determining , by the terminal device, a target downlink signal for performing the downlink path loss estimation; performing , by the terminal device, the downlink path loss estimation based on the target downlink signal to obtain a downlink path loss estimate; and determining , by the terminal device, the transmitting power of the uplink signal according to the downlink path loss estimate; determining , by the terminal device, a target downlink signal for performing the downlink path loss estimation; performing , by the terminal device, the downlink path loss estimation based on the target downlink signal to obtain a downlink path loss estimate; and determining , by the terminal device, the transmitting power of the uplink signal according to the downlink path loss estimate; if the first indication information indicates that the terminal device does not use the downlink path loss estimation to obtain the transmitting power of the uplink signal: determining, by the terminal device, to use previously determined transmitting power as the transmitting power of the uplink signal; determining, by the terminal device, to use previously determined transmitting power as the transmitting power of the uplink signal; transmitting , by the terminal device, the uplink signal according to the transmitting power.
Method for preparing transmembrane pH-gradient vesicles, comprising the steps of: a) preparing vesicles made from at least one matrix substance in an aqueous medium having an osmolarity of not more than 200 mOsm/l, wherein the matrix substance is chosen from the group consisting of amphiphilic lipids and amphiphilic block copolymers, b) mixing the vesicles with a basic or acidic buffer having an osmolarity being at least 200 mOsm/l higher than the osmolarity of the aqueous medium of step a) to apply an osmotic shock to the vesicles and to obtain buffer-filled vesicles and c) diluting a mixture of the aqueous medium and the basic or acidic buffer containing the buffer-filled vesicles by adding a neutralizing solution to obtain transmembrane pH- gradient vesicles suspended in a suspension buffer, wherein the suspension buffer differs from the basic or acidic buffer in pH value. a) preparing vesicles made from at least one matrix substance in an aqueous medium having an osmolarity of not more than 200 mOsm/l, wherein the matrix substance is chosen from the group consisting of amphiphilic lipids and amphiphilic block copolymers, b) mixing the vesicles with a basic or acidic buffer having an osmolarity being at least 200 mOsm/l higher than the osmolarity of the aqueous medium of step a) to apply an osmotic shock to the vesicles and to obtain buffer-filled vesicles and c) diluting a mixture of the aqueous medium and the basic or acidic buffer containing the buffer-filled vesicles by adding a neutralizing solution to obtain transmembrane pH- gradient vesicles suspended in a suspension buffer, wherein the suspension buffer differs from the basic or acidic buffer in pH value.
A polyester-based resin composition, comprising: 93 to 99.5 % by weight of a polybutylene terephthalate resin; 0.1 to 3 % by weight of a polar group-containing lubricant; and 0.1 to 2 % by weight of an antioxidant, wherein the polar group-containing lubricant has a dropping point of 115 to 128 °C or a crystallization temperature (Tm) of 102 to 122 °C, wherein the dropping point and the crystallization temperature are defined and measured as indicated in the specification. 93 to 99.5 % by weight of a polybutylene terephthalate resin; 0.1 to 3 % by weight of a polar group-containing lubricant; and 0.1 to 2 % by weight of an antioxidant,
An absorbent article comprising topsheet , backsheet , and an absorbent core positioned between the topsheet and the backsheet , wherein the absorbent article comprises: a front waist region and a back waist region , wherein the front waist region and the back waist region comprise at least one of, or both of, the topsheet and the backsheet ; and a central absorbent region , wherein the central absorbent region comprises topsheet , backsheet and absorbent core ; the absorbent article further comprises fastening elements ; and the absorbent article comprises a longitudinal axis, (A), wherein the absorbent articles comprise a first fold extending transversely across the central absorbent region so that the front waist region and the back waist region are positioned in side-by-side configuration; and the absorbent article further comprises a second fold extending transversely across the front and back waist regions , and wherein the second fold extends transversely across the front and back waist regions along a line which lies between the outward edge of the absorbent core and the inner edge of the fastening elements . a front waist region and a back waist region , wherein the front waist region and the back waist region comprise at least one of, or both of, the topsheet and the backsheet ; and a central absorbent region , wherein the central absorbent region comprises topsheet , backsheet and absorbent core ; the absorbent article further comprises fastening elements ; and the absorbent article comprises a longitudinal axis, (A), wherein the absorbent articles comprise a first fold extending transversely across the central absorbent region so that the front waist region and the back waist region are positioned in side-by-side configuration; and the absorbent article further comprises a second fold extending transversely across the front and back waist regions , and wherein the second fold extends transversely across the front and back waist regions along a line which lies between the outward edge of the absorbent core and the inner edge of the fastening elements .
A fixed positioning mechanism for a spring arm of a pendant system , the pendant system for the manipulation and maintained support of a device mounted to the spring arm , the fixed positioning mechanism comprising: a base link , a load link , and a transfer link ; said base link and said transfer link share a first pivot ; said load link further comprising a fine load adjustment adjacent said first pivot , said fine load adjustment actuatable to be moved towards or away from said first pivot ; a second pivot at said fine load adjustment ; said transfer link further comprising a slidable rod assembly having a first end and a second end, a spring situated over said rod assembly , and a third pivot mounted on said first end of said rod assembly ; said load link extending between said second pivot and said third pivot such that actuation of said fine load adjustment towards or away from said first pivot will respectively increase or decrease the distance between said first pivot and said third pivot ; and characterized by said load link further comprising a curved or offset body such that rotation of said transfer link below horizontal allows said base link to intersect a plane defined by said second pivot and said third pivot regardless of the positioning of said fine load adjustment . a base link , a load link , and a transfer link ; said base link and said transfer link share a first pivot ; said load link further comprising a fine load adjustment adjacent said first pivot , said fine load adjustment actuatable to be moved towards or away from said first pivot ; a second pivot at said fine load adjustment ; said transfer link further comprising a slidable rod assembly having a first end and a second end, a spring situated over said rod assembly , and a third pivot mounted on said first end of said rod assembly ; said load link extending between said second pivot and said third pivot such that actuation of said fine load adjustment towards or away from said first pivot will respectively increase or decrease the distance between said first pivot and said third pivot ; and characterized by said load link further comprising a curved or offset body such that rotation of said transfer link below horizontal allows said base link to intersect a plane defined by said second pivot and said third pivot regardless of the positioning of said fine load adjustment .
Boom for a construction machine , with a boom arm which can be mounted at its lower end with a lower boom arm region on a carrier implement and has at its upper end in an upper boom arm region a suspension means for a working apparatus , wherein on the boom arm in a center region arranged between the lower boom arm region and the upper boom arm region at least one hose drum for a hose line is rotatably supported, characterized in that in the center region of the boom arm a fork-like arrangement for forming a free space is provided which is designed for receiving the at least one hose drum along a longitudinal axis of the boom arm and is delimited by two opposite side walls of the boom arm , on which the at least one hose drum is rotatably supported, wherein the at least one hose drum projects from the free space with respect to a front side directed towards the working apparatus and a rear side of the boom arm directed towards the carrier implement .
An interface module configured to be releaseably coupled to an electric machine , said interface module comprising: a processing device ; a first communication interface coupled to said processing device and configured for coupling with a motor controller of the electric machine ; a second communication interface coupled to said processing device and configured to receive a control signal; a housing configured for coupling with the electric machine and for at least partially enclosing said processing device , said first communication interface , and said second communication interface ; and a memory device characterized in that the memory device is configured to store a plurality of communications protocols, wherein said processing device is configured to: access the plurality of communications protocols to translate the control signal into a format able to be transmitted to the motor controller , and transmit the translated control signal into the motor controller . a processing device ; a first communication interface coupled to said processing device and configured for coupling with a motor controller of the electric machine ; a second communication interface coupled to said processing device and configured to receive a control signal; a housing configured for coupling with the electric machine and for at least partially enclosing said processing device , said first communication interface , and said second communication interface ; and a memory device characterized in that the memory device is configured to store a plurality of communications protocols, wherein said processing device is configured to: access the plurality of communications protocols to translate the control signal into a format able to be transmitted to the motor controller , and transmit the translated control signal into the motor controller .
A fluid delivery apparatus , comprising: a first piston body having a first through hole and a first connecting portion , wherein the first through hole extends from one end of the first connecting portion to an opposite end, and the first connecting portion has an accommodation space (S1) and a buffer space (S2) communicable to the accommodation space (S1), a second piston body in contact with the first piston body and having a second through hole and a second connecting portion , wherein the first through hole extends from one end of the second connecting portion to an opposite end thereof, and at least part of the second connecting portion is disposed inside the accommodation space (S1), a fluid delivery pipe , accommodated in the first through hole and the second through hole , and moveable between a first position and a second position, and a sealing element encircling the fluid delivery pipe , wherein when the fluid delivery pipe is at the first position, the sealing element is accommodated in the accommodation space (S1), and when the fluid delivery pipe is disposed at the second position, a first part of the sealing element is accommodated in the accommodation space (S1), and a second part of the sealing element is accommodated in the buffer space (S2). a first piston body having a first through hole and a first connecting portion , wherein the first through hole extends from one end of the first connecting portion to an opposite end, and the first connecting portion has an accommodation space (S1) and a buffer space (S2) communicable to the accommodation space (S1), a second piston body in contact with the first piston body and having a second through hole and a second connecting portion , wherein the first through hole extends from one end of the second connecting portion to an opposite end thereof, and at least part of the second connecting portion is disposed inside the accommodation space (S1), a fluid delivery pipe , accommodated in the first through hole and the second through hole , and moveable between a first position and a second position, and a sealing element encircling the fluid delivery pipe , wherein when the fluid delivery pipe is at the first position, the sealing element is accommodated in the accommodation space (S1), and when the fluid delivery pipe is disposed at the second position, a first part of the sealing element is accommodated in the accommodation space (S1), and a second part of the sealing element is accommodated in the buffer space (S2).
Method for operating a dryer with a heat pump and internal flushing of at least one heat exchanger, wherein the dryer contains a drum for receiving damp items of laundry, a heat pump having, as heat exchangers , a heat sink and a heat source , a condensate pan , a condensate tank , a condensate pump for conveying an aqueous liquid from the condensate pan to the condensate tank , a flushing apparatus , connected to the condensate tank , for at least one of the heat exchangers , a fan for conveying process air in a process air duct , a control device and a counter for registering a number of drying programs performed, wherein the counter can detect at least one counter reading n i where i ≥ 1, comprising the steps a) starting a drying program; b) increasing the counter reading n i by the value "1" and checking whether the new counter reading obtained as a result is m i = ( n i +1) = n set i , where n set i is a predetermined number of drying programs performed since a last flushing of the heat exchanger ; c) in the event that m i = n set i , (c1) determining the quantity M of aqueous liquid , which is conveyed during the drying program from the condensate pan into the condensate tank ; (c2) comparing the determined quantity M with a quantity M set provided for flushing the heat exchanger ; (c3) flushing the heat exchanger with the flushing device when M ≥M set ; and (c4) resetting the counter reading n i to zero; and (d) in the event that m i < n set i , performing and terminating the drying program without flushing the heat exchanger , wherein the flushing in step (c3) is carried out when the fan is switched on; and wherein, in the event that, with the comparison in step (c2), it is determined that M > M set , the steps (c3) and (c4) are not performed, but step (d) is instead performed. a) starting a drying program; b) increasing the counter reading n i by the value "1" and checking whether the new counter reading obtained as a result is m i = ( n i +1) = n set i , where n set i is a predetermined number of drying programs performed since a last flushing of the heat exchanger ; c) in the event that m i = n set i , (c1) determining the quantity M of aqueous liquid , which is conveyed during the drying program from the condensate pan into the condensate tank ; (c2) comparing the determined quantity M with a quantity M set provided for flushing the heat exchanger ; (c3) flushing the heat exchanger with the flushing device when M ≥M set ; and (c4) resetting the counter reading n i to zero; and (c1) determining the quantity M of aqueous liquid , which is conveyed during the drying program from the condensate pan into the condensate tank ; (c2) comparing the determined quantity M with a quantity M set provided for flushing the heat exchanger ; (c3) flushing the heat exchanger with the flushing device when M ≥M set ; and (c4) resetting the counter reading n i to zero; and (d) in the event that m i < n set i , performing and terminating the drying program without flushing the heat exchanger ,
A wire rod for cold heading comprising, in percent (%) by weight of the entire composition, C: 0.15 to 0.5%, Si: 0.1 to 0.4%, Mn: 0.3 to 1.5%, Cr: 0.1 to 1.5%, Al: 0.02 to 0.05%, N: 0.004 to 0.02%, at least one selected from the group consisting of Nb: 0.001 to 0.03%, V: 0.01 to 0.3%, Mo: 0.01 to 0.5%, Ti: 0.001 to 0.03%, and the remainder of iron (Fe) and other inevitable impurities, wherein the wire rod comprises a pearlite colony as microstructure, wherein the long and short axis ratio of cementite present in the pearlite colony is 200: 1 or less and wherein a maximum grain size of the pearlite colony is 5 μ m or less; wherein an area fraction of segmented cementite in the pearlite is 5 to 50%; and wherein the wire rod comprises a ferrite as a microstructure, and the maximum ferrite grain size is 5 μ m or less. wherein the wire rod comprises a pearlite colony as microstructure, wherein the long and short axis ratio of cementite present in the pearlite colony is 200: 1 or less and wherein a maximum grain size of the pearlite colony is 5 μ m or less; wherein an area fraction of segmented cementite in the pearlite is 5 to 50%; and wherein the wire rod comprises a ferrite as a microstructure, and the maximum ferrite grain size is 5 μ m or less.