mhurhangee/patent-ind-claim-en huggingface dataset:
A combustor comprising: a combustion liner constituting a combustion chamber and disposed on an upstream side in a combustion gas flow direction; a transition piece constituting the combustion chamber and disposed on a downstream side in the combustion gas flow direction; a sleeve surrounding the combustion liner and the transition piece while being spaced apart therefrom; a flow passage formed between the combustion liner and the sleeve and between the transition piece and the sleeve ; a cooling hole formed in the sleeve to introduce compressed air discharged from a compressor into the flow passage ; and at least one of a first auxiliary hole and a second auxiliary hole , wherein the first auxiliary hole is formed upstream of the cooling hole in an airflow direction, the second auxiliary hole is formed downstream of the cooling hole in an airflow direction, wherein when the cooling hole has a diameter of a value of D, the first auxiliary hole is formed to have a diameter of a value of 0.5D or less and the second auxiliary hole is formed to have a diameter of a value of 0.5D or less; characterized in that the cooling hole and the first auxiliary hole are spaced apart from each other such that a straight-line distance therebetween has a value that is equal to or less than the diameter (D) of the cooling hole , and in that the cooling hole and the second auxiliary hole are spaced apart from each other such that a straight-line distance therebetween has a value that is equal to or less than the diameter (D) of the cooling hole . a combustion liner constituting a combustion chamber and disposed on an upstream side in a combustion gas flow direction; a transition piece constituting the combustion chamber and disposed on a downstream side in the combustion gas flow direction; a sleeve surrounding the combustion liner and the transition piece while being spaced apart therefrom; a flow passage formed between the combustion liner and the sleeve and between the transition piece and the sleeve ; a cooling hole formed in the sleeve to introduce compressed air discharged from a compressor into the flow passage ; and at least one of a first auxiliary hole and a second auxiliary hole , wherein the first auxiliary hole is formed upstream of the cooling hole in an airflow direction, the second auxiliary hole is formed downstream of the cooling hole in an airflow direction, wherein when the cooling hole has a diameter of a value of D, the first auxiliary hole is formed to have a diameter of a value of 0.5D or less and the second auxiliary hole is formed to have a diameter of a value of 0.5D or less; characterized in that the cooling hole and the first auxiliary hole are spaced apart from each other such that a straight-line distance therebetween has a value that is equal to or less than the diameter (D) of the cooling hole , and in that the cooling hole and the second auxiliary hole are spaced apart from each other such that a straight-line distance therebetween has a value that is equal to or less than the diameter (D) of the cooling hole .
Heating and/or air-conditioning system with a refrigerant circuit comprising at least one compressor , a condenser/gas cooler , an expansion member and an evaporator , as well as with at least one secondary circuit comprising at least one pump for a heat transfer medium without expansion member, wherein - a first internal heat exchanger is integrated in the high-pressure region of the refrigerant circuit between the condenser/gas cooler and the expansion member , which heat exchanger is provided for heat exchange between the refrigerant of the refrigerant circuit and a heat transfer medium provided for heat transfer from the secondary circuit , which is water or a water-glycol mixture, - a second internal heat exchanger is integrated in the low-pressure region of the refrigerant circuit between the evaporator and the compressor , which heat exchanger is provided for heat exchange between the refrigerant of the refrigerant circuit and the heat transfer medium of the secondary circuit or a possibly additional heat transfer medium of a possibly additional secondary circuit , - the first internal heat exchanger and the second internal heat exchanger are arranged in such a way that they are thermally coupled or can be thermally coupled by means of at least the heat transfer medium of the secondary circuit , and - the pumping power of the pump of the secondary circuit can be regulated. - a first internal heat exchanger is integrated in the high-pressure region of the refrigerant circuit between the condenser/gas cooler and the expansion member , which heat exchanger is provided for heat exchange between the refrigerant of the refrigerant circuit and a heat transfer medium provided for heat transfer from the secondary circuit , which is water or a water-glycol mixture, - a second internal heat exchanger is integrated in the low-pressure region of the refrigerant circuit between the evaporator and the compressor , which heat exchanger is provided for heat exchange between the refrigerant of the refrigerant circuit and the heat transfer medium of the secondary circuit or a possibly additional heat transfer medium of a possibly additional secondary circuit , - the first internal heat exchanger and the second internal heat exchanger are arranged in such a way that they are thermally coupled or can be thermally coupled by means of at least the heat transfer medium of the secondary circuit , and - the pumping power of the pump of the secondary circuit can be regulated.
A method of measurement reporting implemented at a user equipment, UE , the method comprising, the method comprising: receiving signaling including a Reference Signal Received Quality RSRQ-Type information element, RSRQ-Type IE , to specify a RSRQ value type for both a serving cell and a target cell ; determining an RSRQ value of the serving cell and an RSRQ value of the target cell based on the RSRQ value type specified by the RSRQ-Type IE , wherein for a first RSRQ value type specified by the RSRQ-Type IE , the RSRQ value for the serving cell and the RSRQ value for the target cell are determined from a Received Signal Strength Indicator, RSSI, measured only from Orthogonal Frequency Division Multiplexing, OFDM, symbols containing one or more common reference signals, CRSs, and wherein for a second RSRQ value type specified by the RSRQ-Type IE , the RSRQ value for the serving cell and the RSRQ value for the target cell are determined from an RSSI measured from all OFDM symbols of a portion of a downlink transmission; and causing transmission of a measurement report for transmission to an Evolved Node-B, eNB, wherein the measurement report is based on the RSRQ value for the serving cell and the RSRQ value for the target cell . receiving signaling including a Reference Signal Received Quality RSRQ-Type information element, RSRQ-Type IE , to specify a RSRQ value type for both a serving cell and a target cell ; determining an RSRQ value of the serving cell and an RSRQ value of the target cell based on the RSRQ value type specified by the RSRQ-Type IE , wherein for a first RSRQ value type specified by the RSRQ-Type IE , the RSRQ value for the serving cell and the RSRQ value for the target cell are determined from a Received Signal Strength Indicator, RSSI, measured only from Orthogonal Frequency Division Multiplexing, OFDM, symbols containing one or more common reference signals, CRSs, and wherein for a second RSRQ value type specified by the RSRQ-Type IE , the RSRQ value for the serving cell and the RSRQ value for the target cell are determined from an RSSI measured from all OFDM symbols of a portion of a downlink transmission; and causing transmission of a measurement report for transmission to an Evolved Node-B, eNB, wherein the measurement report is based on the RSRQ value for the serving cell and the RSRQ value for the target cell .
Composition comprising A) a mixture of surfactants A1, A2 and A3 B) optionally water wherein - the mixture of surfactants comprises A1) one or more biosurfactants(s) A2) one or more sorbitan ester(s) A3) one or more further surfactant(s) different from surfactants A1) and A2) - the biosurfactant(s) used as component A1) is/are glycolipid(s) produced by fermentation - the sorbitan ester(s) used as components A2) is/are characterized by an HLB value below or equal to 11, preferably below or equal to 10, more preferred of from 4 to 10. - the weight ratio of the sum of all biosurfactants A1) to the sum of all sorbitan esters A2) is in a range of from 0.01 to 1.2, preferably 0.1 to 1.1, more preferred 0.1 to 1, even more preferred 0.15 to 0.9 and most preferred 0.2 to 0.8. - the pH value of the cleaning composition is in the range of from 3 to 10, preferably 4 to 9, more preferred 5 to 8, even more preferred 6 to 8 and most preferred 6.5 to 7.5. A) a mixture of surfactants A1, A2 and A3 B) optionally water - the mixture of surfactants comprises A1) one or more biosurfactants(s) A2) one or more sorbitan ester(s) A3) one or more further surfactant(s) different from surfactants A1) and A2) A1) one or more biosurfactants(s) A2) one or more sorbitan ester(s) A3) one or more further surfactant(s) different from surfactants A1) and A2) - the biosurfactant(s) used as component A1) is/are glycolipid(s) produced by fermentation - the sorbitan ester(s) used as components A2) is/are characterized by an HLB value below or equal to 11, preferably below or equal to 10, more preferred of from 4 to 10. - the weight ratio of the sum of all biosurfactants A1) to the sum of all sorbitan esters A2) is in a range of from 0.01 to 1.2, preferably 0.1 to 1.1, more preferred 0.1 to 1, even more preferred 0.15 to 0.9 and most preferred 0.2 to 0.8. - the pH value of the cleaning composition is in the range of from 3 to 10, preferably 4 to 9, more preferred 5 to 8, even more preferred 6 to 8 and most preferred 6.5 to 7.5.
An elastomer-metal cord composite obtained by coating, with an elastomer , a metal cord composed of a bundle of two to ten metal filaments that are parallelly aligned in a single row without being twisted together, wherein the metal cord comprises at least one pair of adjacent metal filaments being different from each other in at least either of patterning amount (h) and patterning pitch (p) in a direction perpendicular to an extending direction of the metal filaments , wherein at least one of the metal filaments in the metal cord is a substantially straight metal filament , and wherein metal filaments arranged on the respective ends of the metal cord are each the straight metal filament . wherein the metal cord comprises at least one pair of adjacent metal filaments being different from each other in at least either of patterning amount (h) and patterning pitch (p) in a direction perpendicular to an extending direction of the metal filaments , wherein at least one of the metal filaments in the metal cord is a substantially straight metal filament , and wherein metal filaments arranged on the respective ends of the metal cord are each the straight metal filament .
A method of processing a planar substrate by physical vapour deposition (PVD) in which the planar substrate is supplied with a cooling gas for cooling the planar substrate so that during the PVD process, the planar substrate is lifted from a substrate support and is cooled.
Method for determining measurement parameters for a coordinate measuring device by way of a control device, comprising: - obtaining a plurality of measurement results, which were acquired by real or simulated measurement of a plurality of workpieces of the same type; - ascertaining at least one region of the workpieces that is critical for the measurement on the basis of the measurement results; and - determining at least one measurement parameter of the coordinate measuring device for measuring the critical region ; characterized in that a sensor type used, and in particular a measurement uncertainty of the sensor type, is taken into account in the ascertainment of a critical region , and/or a workpiece region is ascertained as a critical region if a predetermined error pattern is ascertained in this workpiece region. - obtaining a plurality of measurement results, which were acquired by real or simulated measurement of a plurality of workpieces of the same type; - ascertaining at least one region of the workpieces that is critical for the measurement on the basis of the measurement results; and - determining at least one measurement parameter of the coordinate measuring device for measuring the critical region ; a sensor type used, and in particular a measurement uncertainty of the sensor type, is taken into account in the ascertainment of a critical region , and/or a workpiece region is ascertained as a critical region if a predetermined error pattern is ascertained in this workpiece region.
A focusing device for an optical system which has a carrier and an objective arranged thereat, wherein the focusing device comprises: a first guide section which is configured for fastening to the carrier or is designed in one piece therewith; a second guide section which forms a holder for the objective; at least one spring element which forms an elastic connection of the first guide section to the second guide section ; and an actuator for adjusting the second guide section in and against an adjustment direction (V) with respect to the first guide section , wherein the at least one spring element is areal at least regionally; and wherein the at least one spring element has at least one stiffening zone in which a first surface section of the spring element is bent over along a bending edge with respect to a second surface section of the spring element , characterized in that the spring element has a perforation at the bending edge which facilitates a positionally exact bending over of the first surface section . a first guide section which is configured for fastening to the carrier or is designed in one piece therewith; a second guide section which forms a holder for the objective; at least one spring element which forms an elastic connection of the first guide section to the second guide section ; and an actuator for adjusting the second guide section in and against an adjustment direction (V) with respect to the first guide section , wherein the at least one spring element is areal at least regionally; and wherein the at least one spring element has at least one stiffening zone in which a first surface section of the spring element is bent over along a bending edge with respect to a second surface section of the spring element , characterized in that the spring element has a perforation at the bending edge which facilitates a positionally exact bending over of the first surface section .
A display substrate, comprising a plurality of pixels, each of the pixels being divided into a first light emitting unit , a second light emitting unit , a third light emitting unit , and a fourth light emitting unit , each of the first light emitting unit, the second light emitting unit, the third light emitting unit, and the fourth light emitting unit comprises an anode , a cathode , and a carrier transport layer , wherein the first light emitting unit comprises a first light emitting layer , the second light emitting unit comprises a first process auxiliary layer and a second light emitting layer , the third light emitting unit comprises a third light emitting layer and a second process auxiliary layer , and the fourth light emitting unit comprises a fourth light emitting layer , wherein the first and second process auxiliary layers comprise a light emitting material that is not used to emit light; and wherein the first light emitting layer and the first process auxiliary layer are formed into an integral portion from a same material in a film forming process, the second light emitting layer and the third light emitting layer are formed into an integral portion from a same material in a film forming process, and the second process auxiliary layer and the fourth light emitting layer are formed into an integral portion from a same material in a film forming process, characterized in that , the carrier transport layer comprises a hole transport layer, the first light emitting unit comprises a first hole transport layer and a second hole transport layer , the second light emitting unit comprises a third hole transport layer , a fourth hole transport layer , and a fifth hole transport layer , the third light emitting unit comprises a sixth hole transport layer and a seventh hole transport layer , and the fourth light emitting unit comprises an eighth hole transport layer ; and the first hole transport layer , the third hole transport layer , the sixth hole transport layer , and the eighth hole transport layer are formed into an integral portion from a same material in a film forming process, the second hole transport layer and the fourth hole transport layer are formed into an integral portion from a same material in a film forming process, and the fifth hole transport layer and the seventh hole transport layer are formed into an integral portion from a same material in a film forming process.
A method for bar code generation and display, applied to a terminal, comprising: obtaining (S202) a bar code encoding request; generating (S204) a target bar code embedded with a target code by encoding the target code in response to the bar code encoding request, the target code comprising a target logical function; the target code comprises a code character string compiled into a byte code or a customized proprietary programming language, and displaying (S206) the target bar code. obtaining (S202) a bar code encoding request; generating (S204) a target bar code embedded with a target code by encoding the target code in response to the bar code encoding request, the target code comprising a target logical function; the target code comprises a code character string compiled into a byte code or a customized proprietary programming language, and displaying (S206) the target bar code.
Joining unit for an articulated robot , for joining a component to a joining element while applying an axial force, said joining unit comprising a base element for connection to an articulated robot , said base element being connected to a feed unit which latter is adapted to move relative to the base element in an axial direction in and against a setting direction, with said feed unit being connected to a setting device which latter is adapted to move together with said feed unit , wherein furthermore a pressure piece which is mounted so as to be movable in and against the setting direction relative to said feed unit is connected to said feed unit via a coupling unit , characterized in that the coupling unit comprises a blocking unit which, from a predefined axial blocking position, prevents a relative movement of said pressure piece with respect to said feed unit against the setting direction as long as the feed force is smaller than the blocking force set, said blocking unit comprising a release device which enables the relative movement of said pressure piece against the setting direction.
A nucleic acid structure comprising a plurality of annealed motifs, each of said annealed motifs comprising at least three oligonucleotides, each of said at least three oligonucleotides comprising a respective first, second and third domain, each of said first domain of a respective oligonucleotide of said at least three oligonucleotides being complementary for base pairing with a single one of said second domain of another oligonucleotide of said at least three oligonucleotides, to form said annealed motifs; and each of said third domain of a respective oligonucleotide of said at least three oligonucleotides being complementary for base pairing with said third domain of another oligonucleotide from a different annealed motif, to form nucleic acid structure. a plurality of annealed motifs, each of said annealed motifs comprising at least three oligonucleotides, each of said at least three oligonucleotides comprising a respective first, second and third domain, each of said first domain of a respective oligonucleotide of said at least three oligonucleotides being complementary for base pairing with a single one of said second domain of another oligonucleotide of said at least three oligonucleotides, to form said annealed motifs; and each of said third domain of a respective oligonucleotide of said at least three oligonucleotides being complementary for base pairing with said third domain of another oligonucleotide from a different annealed motif, to form nucleic acid structure.
A method, comprising: receiving a first set of intraoral images of a first intraoral site, wherein the first intraoral site comprises a preparation; determining an identity of the preparation; algorithmically performing the following by a processing device: locking the first set of intraoral images and selecting, based at least in part on the identity of the preparation, a portion of the first set of intraoral images depicting the preparation; and generating a virtual 3D model comprising the preparation based at least in part on the locked first set of intraoral images and in part on one or more additional intraoral images that also depict the preparation, wherein, to generate the virtual 3D model, the intraoral images on which the virtual 3D model is based are registered, wherein the portion of the locked first set of intraoral images is used for the preparation in the virtual 3D model, and wherein data from the one or more additional intraoral images is not used for the preparation in the virtual 3D model. receiving a first set of intraoral images of a first intraoral site, wherein the first intraoral site comprises a preparation; determining an identity of the preparation; algorithmically performing the following by a processing device: locking the first set of intraoral images and selecting, based at least in part on the identity of the preparation, a portion of the first set of intraoral images depicting the preparation; and locking the first set of intraoral images and selecting, based at least in part on the identity of the preparation, a portion of the first set of intraoral images depicting the preparation; and generating a virtual 3D model comprising the preparation based at least in part on the locked first set of intraoral images and in part on one or more additional intraoral images that also depict the preparation, wherein, to generate the virtual 3D model, the intraoral images on which the virtual 3D model is based are registered, wherein the portion of the locked first set of intraoral images is used for the preparation in the virtual 3D model, and wherein data from the one or more additional intraoral images is not used for the preparation in the virtual 3D model.
Method for manufacturing an equipment for treatment of a person, the method comprising: measuring a left internal ear point and a right internal ear point of the person; defining an internal ear line through the left internal ear point and the right internal ear point ; defining a target denture plane lying parallel to the internal ear line ; configuring the equipment such that applying the equipment to the person achieves a target denture geometry characterized by the target denture plane . measuring a left internal ear point and a right internal ear point of the person; defining an internal ear line through the left internal ear point and the right internal ear point ; defining a target denture plane lying parallel to the internal ear line ; configuring the equipment such that applying the equipment to the person achieves a target denture geometry characterized by the target denture plane .