mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for sounding the atmosphere, said apparatus comprising: a transducer for converting an electrical signal to an acoustic wave and/or vice-versa transferring means associated with said transducer for transferring the acoustic wave towards the atmosphere and/or for transferring a reflected acoustic wave from said atmosphere; and acoustic isolating means for isolating or attenuating the acoustic wave such that energy of said acoustic wave transferred in a substantially horizontal direction is reduced below energy of said acoustic wave transferred in a substantially vertical direction by a factor of at least 45dB; wherein said acoustic isolating means includes an acoustic baffle system for attenuating energy of said acoustic wave transferred in a substantially horizontal direction, wherein said acoustic baffle system includes a bank of baffles each separated by an air gap (H) for attenuating energy of said acoustic wave transferred in a substantially horizontal direction, and wherein said acoustic baffle system includes at least an inner baffle stage and an outer baffle stage and a first diffraction edge associated with the inner baffle stage for providing first attenuation in a substantially horizontal direction and a second diffraction edge associated with the outer baffle stage for providing second attenuation in a substantially horizontal direction. a transducer for converting an electrical signal to an acoustic wave and/or vice-versa transferring means associated with said transducer for transferring the acoustic wave towards the atmosphere and/or for transferring a reflected acoustic wave from said atmosphere; and acoustic isolating means for isolating or attenuating the acoustic wave such that energy of said acoustic wave transferred in a substantially horizontal direction is reduced below energy of said acoustic wave transferred in a substantially vertical direction by a factor of at least 45dB; wherein said acoustic isolating means includes an acoustic baffle system for attenuating energy of said acoustic wave transferred in a substantially horizontal direction, wherein said acoustic baffle system includes a bank of baffles each separated by an air gap (H) for attenuating energy of said acoustic wave transferred in a substantially horizontal direction, and wherein said acoustic baffle system includes at least an inner baffle stage and an outer baffle stage and a first diffraction edge associated with the inner baffle stage for providing first attenuation in a substantially horizontal direction and a second diffraction edge associated with the outer baffle stage for providing second attenuation in a substantially horizontal direction.
A propylene-based resin composition characterized by comprising from 1 to 99 parts by weight of a propylene-based polymer (α) whose melt flow rate (MFR) at 230°C under a load of 2.16 kg obtained according to ASTM D1238E is from 0.1 to 500 g/10 min and from 1 to 99 parts by weight of an olefin-based resin (β) satisfying the following requirements (I) to (V) (in which a sum of the (α) and the (β) is 100 parts by weight) : (I) the olefin-based resin (β) includes a grafted olefin-based polymer [R1] having a main chain comprising an ethylene/α-olefin copolymer and at least one side chain comprising an ethylene polymer; (II) the olefin-based resin (β) has a melting peak in a range of from 60 to 130°C in a differential scanning calorimetry (DSC) measurement and a melting heat quantity ΔH at the melting peak is in a range of from 5 to 100 J/g; (III) a percentage E of an ortho-dichlorobenzene soluble component at 20°C or lower measured by cross-fractionation chromatography (CFC) is 45% by weight or less; (IV) a glass transition temperature Tg measured by differential scanning calorimetry (DSC) is in a range of from -80 to -30°C; and (V) an intrinsic viscosity [η] measured in decalin at 135°C is in a range of from 0.1 to 12 dl/g. (I) the olefin-based resin (β) includes a grafted olefin-based polymer [R1] having a main chain comprising an ethylene/α-olefin copolymer and at least one side chain comprising an ethylene polymer; (II) the olefin-based resin (β) has a melting peak in a range of from 60 to 130°C in a differential scanning calorimetry (DSC) measurement and a melting heat quantity ΔH at the melting peak is in a range of from 5 to 100 J/g; (III) a percentage E of an ortho-dichlorobenzene soluble component at 20°C or lower measured by cross-fractionation chromatography (CFC) is 45% by weight or less; (IV) a glass transition temperature Tg measured by differential scanning calorimetry (DSC) is in a range of from -80 to -30°C; and (V) an intrinsic viscosity [η] measured in decalin at 135°C is in a range of from 0.1 to 12 dl/g.
A vaporizer device comprising: a housing including an air inlet ; a heating element within the housing , the heating element including a nonlinear positive temperature coefficient of resistance material; and a heat exchanger thermally coupled to the heating element and arranged to receive an airflow from the air inlet , the heat exchanger configured to transfer heat between the heating element and the airflow to produce a heated airflow, wherein the heated airflow exiting the heat exchanger is configured to vaporize a vaporizable material, wherein the heat exchanger includes a plurality of fin features. a housing including an air inlet ; a heating element within the housing , the heating element including a nonlinear positive temperature coefficient of resistance material; and a heat exchanger thermally coupled to the heating element and arranged to receive an airflow from the air inlet , the heat exchanger configured to transfer heat between the heating element and the airflow to produce a heated airflow, wherein the heated airflow exiting the heat exchanger is configured to vaporize a vaporizable material, wherein the heat exchanger includes a plurality of fin features.
A wireless device comprising: at least one processor and at least one memory including computer program code, the at least one memory and the computer program code configured to, with the at least one processor , cause the wireless device at least to: determine a deactivation of packet data convergence protocol, PDCP, data duplication for a radio bearer configured for PDCP data duplication, wherein the radio bearer configured for PDCP data duplication is associated with an original radio link control, RLC entity , and a duplicate RLC entity , wherein said deactivation of the PDCP data duplication is responsive to deactivation of all of a plurality of active cells associated with the duplicate RLC entity ; and responsive to said deactivation of the PDCP data duplication: determine that a buffer associated with the duplicate RLC entity has duplicated data to be transmitted after said deactivation, cause mapping a logical channel associated with the duplicate RLC entity of the radio bearer to at least one active cell associated with the original RLC entity of the radio bearer, and transmit the duplicated data in the buffer associated with the duplicate RLC entity on the logical channel to the at least one active cell. determine a deactivation of packet data convergence protocol, PDCP, data duplication for a radio bearer configured for PDCP data duplication, wherein the radio bearer configured for PDCP data duplication is associated with an original radio link control, RLC entity , and a duplicate RLC entity , wherein said deactivation of the PDCP data duplication is responsive to deactivation of all of a plurality of active cells associated with the duplicate RLC entity ; and responsive to said deactivation of the PDCP data duplication: determine that a buffer associated with the duplicate RLC entity has duplicated data to be transmitted after said deactivation, cause mapping a logical channel associated with the duplicate RLC entity of the radio bearer to at least one active cell associated with the original RLC entity of the radio bearer, and transmit the duplicated data in the buffer associated with the duplicate RLC entity on the logical channel to the at least one active cell. determine that a buffer associated with the duplicate RLC entity has duplicated data to be transmitted after said deactivation, cause mapping a logical channel associated with the duplicate RLC entity of the radio bearer to at least one active cell associated with the original RLC entity of the radio bearer, and transmit the duplicated data in the buffer associated with the duplicate RLC entity on the logical channel to the at least one active cell.
An integrated circuit comprising: a fault detector configured to detect a fault condition of the integrated circuit; a controller configured to generate a controller output data signal ; and an output generator configured to generate an output signal of the integrated circuit and to: generate the output signal at a first set of output levels based upon the controller output data signal when the fault detector does not detect the fault condition; and generate the output signal at a second set of output levels based upon the controller output data signal when the fault detector detects the fault condition, characterized in that the second set of output levels is different than the first set of output levels and comprises a level of the output signal caused by an open circuit or a short circuit of the output signal. a fault detector configured to detect a fault condition of the integrated circuit; a controller configured to generate a controller output data signal ; and an output generator configured to generate an output signal of the integrated circuit and to: generate the output signal at a first set of output levels based upon the controller output data signal when the fault detector does not detect the fault condition; and generate the output signal at a second set of output levels based upon the controller output data signal when the fault detector detects the fault condition, characterized in that the second set of output levels is different than the first set of output levels and comprises a level of the output signal caused by an open circuit or a short circuit of the output signal. generate the output signal at a first set of output levels based upon the controller output data signal when the fault detector does not detect the fault condition; and generate the output signal at a second set of output levels based upon the controller output data signal when the fault detector detects the fault condition, characterized in that the second set of output levels is different than the first set of output levels and comprises a level of the output signal caused by an open circuit or a short circuit of the output signal.
Reflector unit comprising - a single pieced reflector , said reflector being obtained by way of a molding process, and - a frame structure for supporting the single pieced reflector , wherein the reflector comprises at least two reflecting chambers for reflecting light from a light source , wherein the at least two chambers are being spaced from another, and wherein the reflector is firmly and essentially non-adjustably connected to the frame structure by at least two connecting means , wherein the reflector is non-movable with regard to the frame structure along the portions of the connecting means , characterized in that the frame structure comprises at least one adjusting screw being connected with an engaging portion of the frame structure and an engaging portion of the reflector , wherein the engaging portions are configured to allow rotational movement of the respective adjusting screw , and wherein rotational movement of the at least one adjusting screw translates into linear movement of the respective engaging portions (6a and 7a, 6b and 7b) with respect to one another for adjusting the distance between the respective engaging portions of the reflector and the respective engaging portion of the frame structure and thus bending the reflector with regard to the firm portions of the connecting means , wherein the reflector unit comprises at least two, in particular precisely two adjusting screws , wherein the single pieced reflector and the frame structure comprise respective engaging portions for engaging with each adjusting screw . - a single pieced reflector , said reflector being obtained by way of a molding process, and - a frame structure for supporting the single pieced reflector , wherein the reflector comprises at least two reflecting chambers for reflecting light from a light source , wherein the at least two chambers are being spaced from another, and wherein the reflector is firmly and essentially non-adjustably connected to the frame structure by at least two connecting means , wherein the reflector is non-movable with regard to the frame structure along the portions of the connecting means , characterized in that the frame structure comprises at least one adjusting screw being connected with an engaging portion of the frame structure and an engaging portion of the reflector , wherein the engaging portions are configured to allow rotational movement of the respective adjusting screw , and wherein rotational movement of the at least one adjusting screw translates into linear movement of the respective engaging portions (6a and 7a, 6b and 7b) with respect to one another for adjusting the distance between the respective engaging portions of the reflector and the respective engaging portion of the frame structure and thus bending the reflector with regard to the firm portions of the connecting means , wherein the reflector unit comprises at least two, in particular precisely two adjusting screws , wherein the single pieced reflector and the frame structure comprise respective engaging portions for engaging with each adjusting screw .
Device for sealing or repairing a leaking and/or damaged location on an inner pipe wall of a pipe , in particular a waste water pipe, comprising a volume-expandable bellows body which is configured to expand when the bellows body is positioned in the region of the leaking and/or damaged location in the interior of the pipe, with infiltration of a fluid, in particular a gaseous fluid, into a bellows body interior, with an increase in its volume, wherein a carrier portion is formed on an outer surface of the bellows body , on which carrier portion a resin sealing mat can be arranged, which in an expanded state of the bellows body in the region of the leaking and/or damaged location can be connected to the inner pipe wall of the pipe by pressing against the latter and can be hardened, wherein the carrier portion is formed from para rubber, wherein a) the bellows body is made from a multilayer material, the outer surface of the bellows body being formed by an outer material layer of the multilayer material and either the outer material layer being formed at least partially from para rubber and forming the carrier section or the outer material layer having a para rubber coating forming the carrier section , which coating at least partially covers the outer surface of the bellows body , or b) the bellows body is made from a single layer of material, wherein the outer surface of the bellows body is formed by the single layer of material and the layer of material has a para-rubber coating forming the carrier section , which coating at least partially covers the outer surface of the bellows body . a) the bellows body is made from a multilayer material, the outer surface of the bellows body being formed by an outer material layer of the multilayer material and either the outer material layer being formed at least partially from para rubber and forming the carrier section or the outer material layer having a para rubber coating forming the carrier section , which coating at least partially covers the outer surface of the bellows body , or b) the bellows body is made from a single layer of material, wherein the outer surface of the bellows body is formed by the single layer of material and the layer of material has a para-rubber coating forming the carrier section , which coating at least partially covers the outer surface of the bellows body .
An iNKT stimulator, wherein said iNKT stimulator consists of a compound of the following formula (II): wherein X represents a PEG fragment -[CH 2 -CH 2 -O] m with m being an integer from 1 to 24, an alkyl chain -(CH 2 ) n - with n being an integer from 1 to 24 or a branched hydrocarbon group, wherein R represents -CO-R1, -CONR1, -COOR1, -CSR1, -CSNR1 or -CSOR1, wherein R1 represents an alkyl, an aryl, an heterocyclic group, a PEG fragment - [CH 2 -CH 2 -O] p -R2 with p being an integer from 1 to 24 or an alkyl chain -(CH 2 ) q -R2 with q being an integer from 1 to 24, wherein R2 represents a functional reacting group allowing coupling to a carrier D or represents L-D, wherein L is a linker and D is a carrier. wherein X represents a PEG fragment -[CH 2 -CH 2 -O] m with m being an integer from 1 to 24, an alkyl chain -(CH 2 ) n - with n being an integer from 1 to 24 or a branched hydrocarbon group, wherein R represents -CO-R1, -CONR1, -COOR1, -CSR1, -CSNR1 or -CSOR1, wherein R1 represents an alkyl, an aryl, an heterocyclic group, a PEG fragment - [CH 2 -CH 2 -O] p -R2 with p being an integer from 1 to 24 or an alkyl chain -(CH 2 ) q -R2 with q being an integer from 1 to 24, wherein R2 represents a functional reacting group allowing coupling to a carrier D or represents L-D, wherein L is a linker and D is a carrier.
An air conditioner comprising: a housing having an inlet and an outlet ; a heat exchanger disposed inside the housing to exchange heat with air introduced into the inlet ; a fan configured to blow air heat-exchanged in the heat exchanger to the outlet ; and a speech recognizer comprising a microphone , a speaker , and a case accommodating the microphone and the speaker , and configured to operate the air conditioner using the microphone and the speaker , wherein the housing comprises: an upper panel , a front panel , side panels , and a lower panel ; and a piping space formed within a lower part of the housing at an inner side of the lower panel , and in which the speech recognizer , a holder , a refrigerant pipe configured to supply a refrigerant to the heat exchanger and a drain pipe configured to discharge condensed water generated in the heat exchanger are disposed, wherein the speech recognizer is mounted on the holder , and wherein at least one of the holder or the case of the speech recognizer comprises a protrusion part to allow an air layer to be formed between the holder and the speech recognizer . a housing having an inlet and an outlet ; a heat exchanger disposed inside the housing to exchange heat with air introduced into the inlet ; a fan configured to blow air heat-exchanged in the heat exchanger to the outlet ; and a speech recognizer comprising a microphone , a speaker , and a case accommodating the microphone and the speaker , and configured to operate the air conditioner using the microphone and the speaker , wherein the housing comprises: an upper panel , a front panel , side panels , and a lower panel ; and a piping space formed within a lower part of the housing at an inner side of the lower panel , and in which the speech recognizer , a holder , a refrigerant pipe configured to supply a refrigerant to the heat exchanger and a drain pipe configured to discharge condensed water generated in the heat exchanger are disposed, wherein the speech recognizer is mounted on the holder , and wherein at least one of the holder or the case of the speech recognizer comprises a protrusion part to allow an air layer to be formed between the holder and the speech recognizer . an upper panel , a front panel , side panels , and a lower panel ; and a piping space formed within a lower part of the housing at an inner side of the lower panel , and in which the speech recognizer , a holder , a refrigerant pipe configured to supply a refrigerant to the heat exchanger and a drain pipe configured to discharge condensed water generated in the heat exchanger are disposed, wherein the speech recognizer is mounted on the holder , and wherein at least one of the holder or the case of the speech recognizer comprises a protrusion part to allow an air layer to be formed between the holder and the speech recognizer .
Method for the automated repair of components using an additive manufacturing system, comprising the following steps: - a) defining a repair region which comprises the surface of a component to be repaired and defining a tool path (PF) within the repair region ; - b) determining the nature of the component in the repair region in a measuring cycle by means of a measuring instrument of the additive manufacturing system by determining data values (DW) along the defined tool path (PF) for the deviation of the surface of the component from a predefined dimension; and - c) selectively applying filler along the defined tool path (PF) by means of a tool of the additive manufacturing system in at least one filling cycle, wherein, in a filling cycle, part or all of the tool path (PF) is traversed and, in the process, the manufacturing system is selectively activated to apply the filler, depending on the difference between the data value (DW) and a predeterminable threshold value, wherein the tool path (PF) corresponds to the travel path which the tool of the manufacturing system traverses in at least one filling cycle and at the same time corresponds to the travel path which the measuring instrument traverses for the determination of the deviation. - a) defining a repair region which comprises the surface of a component to be repaired and defining a tool path (PF) within the repair region ; - b) determining the nature of the component in the repair region in a measuring cycle by means of a measuring instrument of the additive manufacturing system by determining data values (DW) along the defined tool path (PF) for the deviation of the surface of the component from a predefined dimension; and - c) selectively applying filler along the defined tool path (PF) by means of a tool of the additive manufacturing system in at least one filling cycle, wherein, in a filling cycle, part or all of the tool path (PF) is traversed and, in the process, the manufacturing system is selectively activated to apply the filler, depending on the difference between the data value (DW) and a predeterminable threshold value,
Compound for use in the treatment of infections by protozoa having a formate-nitrite transporter protein (FNT), the compound having structure I, wherein R1 is a perfluoroalkyl in which the alkyl is straight-chain or branched wherein R2 is H or a C 1 to C 12 alkyl, or R2 is a carbonyl group with H or a C 1 to C 12 alkyl, wherein R1 is pentafluoroethyl, heptafluoropropyl or nonafluorobutyl, wherein R3 is an aromatic compound which is bonded directly or by a C 1 to C 3 alkyl and which is substituted in the para or meta position to structure I by a straight-chain or branched C 1 to C 12 alkyl group or a C 1 to C 12 alkoxy group or halogen.