mhurhangee/ep-ind-claims huggingface dataset:
A communication apparatus (200, 400) comprising: a receiver configured to receive a first downlink control signal from a communication partner apparatus over a basic downlink component carrier, the first downlink control signal including uplink resource allocation information and first downlink resource allocation information, and to receive a second downlink control signal from the communication partner apparatus over another downlink component carrier, the second downlink control signal including second downlink resource allocation information and not including the uplink resource allocation information, wherein only one of the uplink resource allocation information and the first downlink resource allocation information includes padding zeros, so that the uplink resource allocation information and the first downlink resource allocation information have a same payload size, and both of the uplink resource allocation information and the first downlink resource allocation information include Cyclic Redundancy Check bits; and a decoder (207, 407) configured to decode the received first downlink control signal based on the payload size of the uplink resource allocation information; wherein the basic downlink component carrier is a downlink component carrier having a smallest bandwidth among one or more downlink component carriers having larger bandwidths than a bandwidth of the uplink component carrier. a receiver configured to receive a first downlink control signal from a communication partner apparatus over a basic downlink component carrier, the first downlink control signal including uplink resource allocation information and first downlink resource allocation information, and to receive a second downlink control signal from the communication partner apparatus over another downlink component carrier, the second downlink control signal including second downlink resource allocation information and not including the uplink resource allocation information, wherein only one of the uplink resource allocation information and the first downlink resource allocation information includes padding zeros, so that the uplink resource allocation information and the first downlink resource allocation information have a same payload size, and both of the uplink resource allocation information and the first downlink resource allocation information include Cyclic Redundancy Check bits; and a decoder (207, 407) configured to decode the received first downlink control signal based on the payload size of the uplink resource allocation information; wherein the basic downlink component carrier is a downlink component carrier having a smallest bandwidth among one or more downlink component carriers having larger bandwidths than a bandwidth of the uplink component carrier.
A molecule consisting of a (guanidyl)-oligosaccharidic derivative represented by the general formula wherein: R 1, R 2, R 3, R 4, equal or different from each other, are: - a hydrogen -H; - a linker of formula -CO-R I -X, where R I is a C 2 -C 3 alkyl branched chain and where X is a halogen; or - a guanidine terminating group of formula -CO-R I -[CH 2 C(CH 3)-CO-NH-R II -NHC(NH 2)=NH]-X, where R I and X have the same meanings previously mentioned for the linker, and R" is a linear or branched C 4 -C 8 alkyl chain optionally bearing a -OH or a -COOH group, with the proviso that R 1, R 2, R 3, R 4 represent, independently one from the other, at least one guanidine terminating group of formula -CO-R I -[CH 2 C(CH 3)-CO-NH-R II -NHC(NH 2)=NH]-X; R 5 is: - a spacer -(CH 3 CO)N-R III -Y, where R III is a linear or branched C 8 -C 22 alkyl chain or an oligo(ethylene glycol) chain derivative of formula - [CH 2 CH 2 O] m -(CH 2) p where m is an integer selected in the range from 2 to 136 and p is an integer selected from the range from 2 to 6, and Y is a terminating group selected from the carboxyl-, amino-, hydroxyl- or thiol- groups; n is an integer ranging from 2 to 8, and salts thereof. R 1, R 2, R 3, R 4, equal or different from each other, are: - a hydrogen -H; - a linker of formula -CO-R I -X, where R I is a C 2 -C 3 alkyl branched chain and where X is a halogen; or - a guanidine terminating group of formula -CO-R I -[CH 2 C(CH 3)-CO-NH-R II -NHC(NH 2)=NH]-X, where R I and X have the same meanings previously mentioned for the linker, and R" is a linear or branched C 4 -C 8 alkyl chain optionally bearing a -OH or a -COOH group, with the proviso that R 1, R 2, R 3, R 4 represent, independently one from the other, at least one guanidine terminating group of formula -CO-R I -[CH 2 C(CH 3)-CO-NH-R II -NHC(NH 2)=NH]-X; - a hydrogen -H; - a linker of formula -CO-R I -X, where R I is a C 2 -C 3 alkyl branched chain and where X is a halogen; or - a guanidine terminating group of formula -CO-R I -[CH 2 C(CH 3)-CO-NH-R II -NHC(NH 2)=NH]-X, where R I and X have the same meanings previously mentioned for the linker, and R" is a linear or branched C 4 -C 8 alkyl chain optionally bearing a -OH or a -COOH group, R 5 is: - a spacer -(CH 3 CO)N-R III -Y, where R III is a linear or branched C 8 -C 22 alkyl chain or an oligo(ethylene glycol) chain derivative of formula - [CH 2 CH 2 O] m -(CH 2) p where m is an integer selected in the range from 2 to 136 and p is an integer selected from the range from 2 to 6, and Y is a terminating group selected from the carboxyl-, amino-, hydroxyl- or thiol- groups; - a spacer -(CH 3 CO)N-R III -Y, where R III is a linear or branched C 8 -C 22 alkyl chain or an oligo(ethylene glycol) chain derivative of formula - [CH 2 CH 2 O] m -(CH 2) p where m is an integer selected in the range from 2 to 136 and p is an integer selected from the range from 2 to 6, and Y is a terminating group selected from the carboxyl-, amino-, hydroxyl- or thiol- groups; n is an integer ranging from 2 to 8,
A utilisation of a support member that is shaped in the form of a thin-walled strip and has a coating applied at least section-wise thereon and formed at least along one lateral surface of the support member and in the width of the support member, said coating consisting of an adherent polymer layer which is provided on the support member and the opposite surface of which is covered by a protective film, characterised in that the adherent polymer layer is realised as an adhesive film and consists of a UV cross-linked polymer and in that the support member is realised as a joint sealing element which serves for sealing a construction joint formed between two concreting sections (17, 18) and which is embedded into the concreting sections (17, 18).
A lamp for a compartment of a vehicle, comprising: a base; a mounting plate disposed on the base and having a power source receiving part; a power source received in the power source receiving part and preferably disposed outside of the luminous region of the lamping source; and a lamping source disposed on the mounting plate and having a luminous region of a sector shape preferably having a radius ranging from 10 mm to 100 mm, wherein the power source receiving part is located at a side of the lamping source and preferably integrally with the mounting plate; characterized in that the mounting plate defines a first end fixed with the base, and a second end; and the power source receiving part is formed by bending the second end of the mounting plate inwardly, in a direction toward the interior of the lamp, to form a first bending angle (θ1) and a first bending portion, and then bending a part of the first bending portion inwardly, in a direction toward the interior of the lamp, to form second bending angle (θ2) and a second bending portion; and wherein the first bending angle (θ1) is larger than the second bending angle (θ2). a base; a mounting plate disposed on the base and having a power source receiving part; a power source received in the power source receiving part and preferably disposed outside of the luminous region of the lamping source; and a lamping source disposed on the mounting plate and having a luminous region of a sector shape preferably having a radius ranging from 10 mm to 100 mm, wherein the power source receiving part is located at a side of the lamping source and preferably integrally with the mounting plate; characterized in that the mounting plate defines a first end fixed with the base, and a second end; and the power source receiving part is formed by bending the second end of the mounting plate inwardly, in a direction toward the interior of the lamp, to form a first bending angle (θ1) and a first bending portion, and then bending a part of the first bending portion inwardly, in a direction toward the interior of the lamp, to form second bending angle (θ2) and a second bending portion; and wherein the first bending angle (θ1) is larger than the second bending angle (θ2).
Motor vehicle equipped with: - an alternator; and - an energy regenerating regulator device for recovering kinetic energy, said energy regenerating regulator device comprising: - at least one acceleration sensor with a pass-band comprising a static acceleration in a single- or multi-axial configuration; - at least one first adder of an accelerometric contribution to a voltage reference; - at least one long-term integrator of an acceleration for providing a null acceleration reference; - at least one second adder of an instantaneous acceleration measured with said null acceleration reference stored in said integrator; characterised in that: - said energy regenerating regulator device is independent from and external to said alternator and is coupled with said alternator in order to enable a recovery of kinetic energy; and in that said energy regenerating device further comprises: - a containing case equipped with electric connecting means in parallel with poles of a battery of said motor vehicle; and - a battery of supercapacitors. - an alternator; and - an energy regenerating regulator device for recovering kinetic energy, said energy regenerating regulator device comprising: - at least one acceleration sensor with a pass-band comprising a static acceleration in a single- or multi-axial configuration; - at least one first adder of an accelerometric contribution to a voltage reference; - at least one long-term integrator of an acceleration for providing a null acceleration reference; - at least one second adder of an instantaneous acceleration measured with said null acceleration reference stored in said integrator; characterised in that: - said energy regenerating regulator device is independent from and external to said alternator and is coupled with said alternator in order to enable a recovery of kinetic energy; and in that said energy regenerating device further comprises: - a containing case equipped with electric connecting means in parallel with poles of a battery of said motor vehicle; and - a battery of supercapacitors. - at least one acceleration sensor with a pass-band comprising a static acceleration in a single- or multi-axial configuration; - at least one first adder of an accelerometric contribution to a voltage reference; - at least one long-term integrator of an acceleration for providing a null acceleration reference; - at least one second adder of an instantaneous acceleration measured with said null acceleration reference stored in said integrator; characterised in that: - said energy regenerating regulator device is independent from and external to said alternator and is coupled with said alternator in order to enable a recovery of kinetic energy; and in that said energy regenerating device further comprises: - a containing case equipped with electric connecting means in parallel with poles of a battery of said motor vehicle; and - a battery of supercapacitors. - a containing case equipped with electric connecting means in parallel with poles of a battery of said motor vehicle; and - a battery of supercapacitors.
A video-based method of measuring a patient's vital sign, comprising: receiving, from a video camera, a video signal having a field of view exposed to a patient; identifying, using a processor, a first seed point on the patient; flood filling, using the processor, a first contiguous region from the first seed point to a boundary; utilizing, using the processor, the first contiguous region to identify a target region; extracting, using the processor, a first intensity signal from the target region; measuring a vital sign from the first intensity signal; and displaying a number derived from the measured vital sign, wherein utilizing the first contiguous region to identify the target region comprises selecting the target region to be fully contained within the first contiguous region, and the target region defines a perimeter that excludes edges of the first contiguous region. receiving, from a video camera, a video signal having a field of view exposed to a patient; identifying, using a processor, a first seed point on the patient; flood filling, using the processor, a first contiguous region from the first seed point to a boundary; utilizing, using the processor, the first contiguous region to identify a target region; extracting, using the processor, a first intensity signal from the target region; measuring a vital sign from the first intensity signal; and displaying a number derived from the measured vital sign, wherein utilizing the first contiguous region to identify the target region comprises selecting the target region to be fully contained within the first contiguous region, and the target region defines a perimeter that excludes edges of the first contiguous region.
Process for producing functionalized xonotlite, wherein the process comprises subjecting to hydrothermal treatment, at a temperature in the range from 230 to 320 °C and during a period of at least 4 hours, a mixture comprising: - at least one calcium component which is selected from calcium hydroxide (Ca 2) and calcium oxide (CaO); - at least one polyalkylene glycol of formula R-O-(C α H 2α O) β -H wherein: R is hydrogen or an aliphatic hydrocarbon group having 1 to 20 carbon atoms, a cycloaliphatic hydrocarbon group having 5 to 8 carbon atoms, or an aryl group having 6 to 14 carbon atoms, α is independently selected for each -(C α H 2α O)- unit from 2, 3 or 4, β is 3 to 200, and wherein the at least one polyalkylene glycol has an average molar mass of 400 to 4000 g/mol; and - at least one silicon-dioxide containing component which is selected from the group consisting of microsilica, nanosilica, pyrogenic silica, precipitated silica, waterglass, blast furnace slag, quartz sand and any mixture thereof; wherein the molar ratio (C/S) of calcium from the calcium component to silicon from the silicon-dioxide containing component is from 0.9 to 1.1. - at least one calcium component which is selected from calcium hydroxide (Ca 2) and calcium oxide (CaO); - at least one polyalkylene glycol of formula R-O-(C α H 2α O) β -H wherein: R is hydrogen or an aliphatic hydrocarbon group having 1 to 20 carbon atoms, a cycloaliphatic hydrocarbon group having 5 to 8 carbon atoms, or an aryl group having 6 to 14 carbon atoms, α is independently selected for each -(C α H 2α O)- unit from 2, 3 or 4, β is 3 to 200, and wherein the at least one polyalkylene glycol has an average molar mass of 400 to 4000 g/mol; and R is hydrogen or an aliphatic hydrocarbon group having 1 to 20 carbon atoms, a cycloaliphatic hydrocarbon group having 5 to 8 carbon atoms, or an aryl group having 6 to 14 carbon atoms, α is independently selected for each -(C α H 2α O)- unit from 2, 3 or 4, β is 3 to 200, and wherein the at least one polyalkylene glycol has an average molar mass of 400 to 4000 g/mol; and - at least one silicon-dioxide containing component which is selected from the group consisting of microsilica, nanosilica, pyrogenic silica, precipitated silica, waterglass, blast furnace slag, quartz sand and any mixture thereof;
Composition comprising A) 20.0 wt% to 99.45 wt% of aromatic polycarbonate, B) 0.50 to 50.0 wt% of glass fibres or carbon fibres, C) 0.05 wt% to 10.0 wt% of a mixture comprising at least one saturated or unsaturated monocarboxylic acid having a chain length of 6 to 30 carbon atoms and at least one ester of this monocarboxylic acid based on glycerol and/or diglycerol. A) 20.0 wt% to 99.45 wt% of aromatic polycarbonate, B) 0.50 to 50.0 wt% of glass fibres or carbon fibres, C) 0.05 wt% to 10.0 wt% of a mixture comprising at least one saturated or unsaturated monocarboxylic acid having a chain length of 6 to 30 carbon atoms and at least one ester of this monocarboxylic acid based on glycerol and/or diglycerol.
A vial adaptor assembly, suitable for use with a vial containing a medicament and a syringe adaptor, which is in turn connectable to a syringe having a piston adapted for selectable displacement in a first direction for drawing fluid into said syringe and in a second direction for expelling fluid from said syringe, said vial adaptor assembly comprising: a vial connector for non-removable connection with said vial containing a medicament; a syringe adaptor connector for connection with said syringe adaptor; a pressure equalization chamber having a variable volume, which is sealed from the outside environment during use; a liquid pathway communicating between an interior of said vial containing said medicament and an interior of said syringe when said syringe adaptor is connected to said syringe adaptor connector and said syringe is connected to said syringe adaptor and said vial connector is connected to said vial containing said medicament; and a venting pathway communicating between said interior of said vial containing said medicament and an interior of said pressure equalization chamber, when said vial connector is connected to said vial containing said medicament, characterized in that said pressure equalization chamber and said venting pathway are mutually configured such that, when said syringe adaptor is connected to said syringe adaptor connector and said syringe is connected to said syringe adaptor and said vial connector is connected to said vial containing said medicament, substantially all of any of said medicament that becomes located within said pressure equalization chamber is removed therefrom via said venting pathway and returned to said interior of said vial by displacement of said piston of said syringe in said first direction. a vial connector for non-removable connection with said vial containing a medicament; a syringe adaptor connector for connection with said syringe adaptor; a pressure equalization chamber having a variable volume, which is sealed from the outside environment during use; a liquid pathway communicating between an interior of said vial containing said medicament and an interior of said syringe when said syringe adaptor is connected to said syringe adaptor connector and said syringe is connected to said syringe adaptor and said vial connector is connected to said vial containing said medicament; and a venting pathway communicating between said interior of said vial containing said medicament and an interior of said pressure equalization chamber, when said vial connector is connected to said vial containing said medicament, characterized in that said pressure equalization chamber and said venting pathway are mutually configured such that, when said syringe adaptor is connected to said syringe adaptor connector and said syringe is connected to said syringe adaptor and said vial connector is connected to said vial containing said medicament, substantially all of any of said medicament that becomes located within said pressure equalization chamber is removed therefrom via said venting pathway and returned to said interior of said vial by displacement of said piston of said syringe in said first direction.
Cabinet, in particular electrical switchgear cabinet, having a corner strut with at least two grooves (2 and 3) which are contained therein and having side walls which can be made in the grooves (2 and 3), are adjacent to one another and are composed of electrically conductive material, characterized in that the corner strut has at least one insert opening, which projects into at least one of the grooves, for a contact claw with at least one movement path (5 or 6), wherein the contact claw is supported against the side walls with a spring action so as to electrically connect the side walls.
An apparatus (1, 2) for manufacturing semiconductors comprising: processing equipment configured to process a wafer; a Front Opening Unified Pod, FOUP, configured to: - supply the wafer and - house the wafer that has been processed; an Equipment Front End Module, EFEM, configured to transfer the wafer between the FOUP and the processing equipment; a fan and filter unit configured to send an airflow from above to the EFEM; the apparatus being characterized in that it further comprises an ultrasonic oscillator configured to generate high-frequency power; and a vibrator (54, 55) configured to: - generate ultrasonic waves by using the high-frequency power that is generated by the ultrasonic oscillator and - apply the ultrasonic waves to the wafer that is transported in the EFEM and that has been processed, wherein the ultrasonic oscillator is configured to: - decrease the frequency of the ultrasonic waves from a specific frequency to another specific frequency for a predetermined period and - increase it from the other specific frequency to the specific frequency for a period that is shorter than the predetermined period. processing equipment configured to process a wafer; a Front Opening Unified Pod, FOUP, configured to: - supply the wafer and - house the wafer that has been processed; - supply the wafer and - house the wafer that has been processed; an Equipment Front End Module, EFEM, configured to transfer the wafer between the FOUP and the processing equipment; a fan and filter unit configured to send an airflow from above to the EFEM; the apparatus being characterized in that it further comprises an ultrasonic oscillator configured to generate high-frequency power; and a vibrator (54, 55) configured to: - generate ultrasonic waves by using the high-frequency power that is generated by the ultrasonic oscillator and - apply the ultrasonic waves to the wafer that is transported in the EFEM and that has been processed, - generate ultrasonic waves by using the high-frequency power that is generated by the ultrasonic oscillator and - apply the ultrasonic waves to the wafer that is transported in the EFEM and that has been processed, wherein the ultrasonic oscillator is configured to: - decrease the frequency of the ultrasonic waves from a specific frequency to another specific frequency for a predetermined period and - increase it from the other specific frequency to the specific frequency for a period that is shorter than the predetermined period. - decrease the frequency of the ultrasonic waves from a specific frequency to another specific frequency for a predetermined period and - increase it from the other specific frequency to the specific frequency for a period that is shorter than the predetermined period.