mhurhangee/patent-ind-claim-en huggingface dataset:
A measurement method for a target substance amount comprising: mixing a sample containing a target substance, magnetic particles to which a first receptor that specifically recognizes a site of the target substance is fixed, and a labeled substance to which a second receptor that specifically recognizes a site different from the site of the target substance is fixed to obtain a mixture containing a target substance-magnetic particle-labeled substance complex; and detecting a signal intensity of the target substance-magnetic particle-labeled substance complex after separating the target substance-magnetic particle-labeled substance complex by magnetism and electrophoresis , wherein the electrophoresis is performed while or after the complex is captured by the magnetism, such that the complex remains fixed at the predetermined position by magnetism and does not move. mixing a sample containing a target substance, magnetic particles to which a first receptor that specifically recognizes a site of the target substance is fixed, and a labeled substance to which a second receptor that specifically recognizes a site different from the site of the target substance is fixed to obtain a mixture containing a target substance-magnetic particle-labeled substance complex; and detecting a signal intensity of the target substance-magnetic particle-labeled substance complex after separating the target substance-magnetic particle-labeled substance complex by magnetism and electrophoresis , wherein the electrophoresis is performed while or after the complex is captured by the magnetism, such that the complex remains fixed at the predetermined position by magnetism and does not move.
A back plate for use in a display device comprising a display panel , the back plate being configurable to hold the display panel of the display device , the back plate comprising: a plurality of mounting sections disposed on a plurality of positions on a lower edge part of the back plate , arranged for mounting a reciprocal plurality of holding members for holding the display device ; a plurality of vertically extending bulging sections that bulge out from a reference surface of the back plate and each extend from the proximity of the upper ends of the plurality of mounting sections to an upper edge part of the back plate ; and a laterally extending bulging section that bulges out from the reference surface , extends along the upper edge part of the back plate , and has a length larger than a distance between adjacent vertically extending bulging sections . a plurality of mounting sections disposed on a plurality of positions on a lower edge part of the back plate , arranged for mounting a reciprocal plurality of holding members for holding the display device ; a plurality of vertically extending bulging sections that bulge out from a reference surface of the back plate and each extend from the proximity of the upper ends of the plurality of mounting sections to an upper edge part of the back plate ; and a laterally extending bulging section that bulges out from the reference surface , extends along the upper edge part of the back plate , and has a length larger than a distance between adjacent vertically extending bulging sections .
A radio access device , wherein the radio access device supports at least two types of air interfaces, the radio access device communicates with a terminal by using a specified air interface, the specified air interface is at least one of the at least two types of air interfaces, and the radio access device comprises dedicated control entities respectively corresponding to the at least two types of air interfaces and a common control entity, wherein the common control entity is configured to determine a dedicated control entity corresponding to the specified air interface between the radio access device and the terminal ; and the common control entity is configured to interact with the dedicated control entity corresponding to the specified air interface, to implement a Media Access Control function of the specified air interface; wherein in a process in which the common control entity interacts with the dedicated control entity corresponding to the specified air interface, the dedicated control entity is configured to: obtain radio condition information of the specified air interface, and send the radio condition information to the common control entity; and the common control entity is configured to: determine, based on the radio condition information, a radio resource interval corresponding to the specified air interface, and perform, within the radio resource interval corresponding to the specified air interface, resource scheduling for data transmitted through the specified air interface.
An improved duster having a handle and a plate with an active double cleaning surface , where said plate is connected to said handle by means of a hinging device with an adjustment of the inclination between the handle and the plate , characterised by the fact that said hinging devices are spaced apart from the main central axis of the plate and where there are, interposed between said hinging and said plate , releasable interconnecting devices, composed of an insert and a relative seat , between a first stable position connecting said hinging and said plate and a second detached position of the interconnecting devices for rotating said hinging devices with respect to the main central axis of the plate .
An acoustic structure for reducing noise generated from a source , said acoustic structure comprising: a honeycomb comprising a first side to be located closest to said source and a second side , said honeycomb comprising a plurality of honeycomb walls that extend between said first and second sides , said honeycomb walls defining a plurality of cells wherein each of said cells has a cross-sectional area measured perpendicular to said honeycomb walls ; an acoustic barrier located at the second edge of said honeycomb or within at least one of said cells to form an acoustic resonator wherein the depth of said acoustic resonator is equal to the distance between the first side of said honeycomb and said acoustic barrier ; a multi-sectional acoustic septum extending vertically within said acoustic resonator, said acoustic septum having a septum top located nearest the first side of said honeycomb and a septum bottom located nearest the second side of said honeycomb , said acoustic septum comprising a septum wall that extends between said septum top and said septum bottom, wherein said septum wall is divided into at least a first septum section located nearest to said septum top and a second septum section located nearest to said septum bottom; wherein said first septum section comprises a solid wall and forms a wave guide, and characterised in that said second septum section comprises a mesh and forms a secondary acoustic resonator, so that the acoustic damping provided by the wall of said first septum section is different from the acoustic damping provided by the wall of said second septum section , and at least one additional septum section is located between said first septum section and said second septum section , the additional septum section acting as an acoustic resonator, wherein a perforated film or sheet is used in the additional septum section, such that the noise damping properties of the mesh and the film or sheet are different. a honeycomb comprising a first side to be located closest to said source and a second side , said honeycomb comprising a plurality of honeycomb walls that extend between said first and second sides , said honeycomb walls defining a plurality of cells wherein each of said cells has a cross-sectional area measured perpendicular to said honeycomb walls ; an acoustic barrier located at the second edge of said honeycomb or within at least one of said cells to form an acoustic resonator wherein the depth of said acoustic resonator is equal to the distance between the first side of said honeycomb and said acoustic barrier ; a multi-sectional acoustic septum extending vertically within said acoustic resonator, said acoustic septum having a septum top located nearest the first side of said honeycomb and a septum bottom located nearest the second side of said honeycomb , said acoustic septum comprising a septum wall that extends between said septum top and said septum bottom, wherein said septum wall is divided into at least a first septum section located nearest to said septum top and a second septum section located nearest to said septum bottom;
A method implemented at a first user equipment, UE, the method comprising: participating in an identity, ID, determination procedure such that a sidelink ID is determined for a sidelink between the first UE and a second UE, wherein the sidelink ID comprises a full ID for identifying one of the first and second UEs and a short ID for identifying the other of the first and second UEs, wherein the full ID refers to an ID that identifies the first UE in a globally unique manner or in a locally unique manner, wherein the short ID refers to an ID that identifies the second UE uniquely among the UEs with which the first UE has simultaneous sidelinks.
A removable adaptor bar device for coupling with and securely transporting a bicycle using a vehicle, comprising: an outer sleeve; an inner sleeve , operable to slidably engage with the outer sleeve ; an adjustable clamp for securing the outer and inner sleeves in a fixed position with respect to each other; a first engagement mechanism coupled with an end of the outer sleeve; a second engagement mechanism coupled with an end of the inner sleeve and opposite the first engagement mechanism; wherein the first and second engagement mechanisms are operable to couple with a seating post of a bicycle and a post near handlebars of the bicycle for securing the bicycle during transportation or storage characterised in that the removable adaptor bar device further comprises a primary coupling mechanism for coupling with a complementary coupling mechanism of a transportation or storage apparatus, wherein the primary coupling mechanism is a male engagement piece that is operable to engage with a female engagement receiver for storage and transportation of the adaptor bar and wherein the male engagement piece has a trapezoidal cross section.
An inhibitor of miR-210 for use in the treatment of sepsis or of a Trypanosoma infection, wherein said inhibitor of miR-210 is a DNA nuclease specifically knocking out or disrupting the miR-210 gene, an RNase specifically targeting miR-210, or an inhibitory oligonucleotide targeting miR-210.
Coupling apparatus for connecting two wagon bodies, with a coupling rod for transmitting longitudinal forces between the two wagon bodies, the coupling rod being fastened with its ends in each case in a movable bearing to the two coupling apparatus, and the coupling apparatus comprising a linkage mechanism which is independent of the coupling rod and is configured for the transmission of vertical and/or transverse forces between the two wagon bodies, with the result that the coupling rod is loaded exclusively in its longitudinal direction, characterized in that the linkage mechanism is configured as a coupling frame which is mounted by means of a first and a second joint (9.1, 9.2) which can be moved in each case about at least two parallel axes which are spaced apart from one another in the transverse and/or vertical direction, the first joint being assigned to one of the two wagon bodies and the second joint (9.1, 9.2) being assigned to the other one of the two wagon bodies.
A method for calculating in vivo a local specific energy absorption rate on the basis of: a living object's tissue's electrical conductivity, electrical permittivity, and mass density in a segmented geometry of the living object accommodated in an examination region for a magnetic resonance scan and a survey scan , and a magnetic field vector distribution of a radio frequency antenna for emitting a radio frequency field in the examination region and receiving an induced magnetic resonance signal from the examination region, the method comprising obtaining the values of the living object's tissue's electrical conductivity, electrical permittivity and mass density from a database containing pre-determined values taken from literature of the electric conductivity and electrical permittivity of the living object's tissue at the Larmor Frequency used for the magnetic resonance scan and the survey scan and the mass density of the living object's tissue, while the magnetic field vector distribution is estimated by a B 1 mapping method based on the magnetic resonance scan, and wherein the segmented geometry of the living object is obtained from the survey scan of the living object.
A self-cleaning control method for an air conditioner, comprising: controlling (S101), in response to the air conditioner entering a self-cleaning mode, the air conditioner to perform a cooling operation; during the cooling operation of the air conditioner, acquiring (S102) a high-pressure-side pressure of an exhaust port of a compressor, and recording a duration of the cooling operation of the air conditioner; controlling (S103), based on the high-pressure-side pressure and the duration of the cooling operation of the air conditioner, the air conditioner to switch to perform a heating operation; during the heating operation of the air conditioner, acquiring (S104) a temperature at a bottom of an outdoor heat exchanger, and recording a duration of the heating operation of the air conditioner; and controlling (S105), based on the temperature at the bottom of the outdoor heat exchanger and the duration of the heating operation of the air conditioner, the air conditioner to exit the self-cleaning mode. controlling (S101), in response to the air conditioner entering a self-cleaning mode, the air conditioner to perform a cooling operation; during the cooling operation of the air conditioner, acquiring (S102) a high-pressure-side pressure of an exhaust port of a compressor, and recording a duration of the cooling operation of the air conditioner; controlling (S103), based on the high-pressure-side pressure and the duration of the cooling operation of the air conditioner, the air conditioner to switch to perform a heating operation; during the heating operation of the air conditioner, acquiring (S104) a temperature at a bottom of an outdoor heat exchanger, and recording a duration of the heating operation of the air conditioner; and controlling (S105), based on the temperature at the bottom of the outdoor heat exchanger and the duration of the heating operation of the air conditioner, the air conditioner to exit the self-cleaning mode.
Filter device, with a filter housing comprising a filter bowl and a removable housing lid part , said filter housing receiving a filter element , which separates an unfiltered medium side from a filtrate side , and with a bypass valve device that comprises a valve closing element , which is preloaded by a closing spring into a closing position lying on a valve seat part and, if the filter element is blocked, moves into a position in which it releases a fluid channel from the unfiltered medium side to the filtrate side , bypassing the filter element , the valve closing element and the closing spring being arranged on the lid part and the valve seat part being located on an element cap of the filter element , said cap comprising a receiving part forming an edging for the end, facing the lid part , of the filter material of the filter element , the element cap of the filter element comprising a receiving part in the form of a flat circular ring at the edging for the facing end of the filter material , a guide part extending axially into the inside of the filter element forming the unfiltered medium side being connected to the inner circumference of said circular ring, the valve seat part being formed on said guide part, characterised in that the filter housing comprises a filter head and in that the guide part takes the form of a hollow cone , the tapered end of which has an opening and extends into the inside of the filter element and forms the sealing edge of the valve closing element at the edge of said opening.
A method of producing drimenol comprising: i) contacting farnesyl diphosphate (FPP) with a polypeptide having drimenol synthase activity and comprising an amino acid sequence having at least 70% sequence identity to a sequence of SEQ ID NO: 2 to produce the drimenol; and ii) optionally isolating the drimenol. i) contacting farnesyl diphosphate (FPP) with a polypeptide having drimenol synthase activity and comprising an amino acid sequence having at least 70% sequence identity to a sequence of SEQ ID NO: 2 to produce the drimenol; and ii) optionally isolating the drimenol.
A therapeutically effective amount of SEQ ID NO: 14 for use in rendering a BCl-2 antagonist resistant subject more susceptible to treatment with a BCl-2 antagonist, wherein said subject is suffering from cancer and wherein SEQ ID NO: 14 increases the expression of miR-15a in the cells of said cancer and wherein said BCL-2 antagonist is selected from the group consisting of Oblimersen, SPC-2996, RTA-402, Gossypol, AT-101, Obatoclax mesylate, A-371191, A-385358, A-438744, ABT-737, ABT-199, AT-101, BL-11, BL-193, GX-15-003, 2-Methoxyantimycin A3, HA-14-1, KF-67544, Purpurogallin, TP-TW-37, YC-137 and Z-24.
A radiating element of an antenna , wherein the radiating element comprises a reflection module formed by a conductive plate, a power feed printed circuit board, PCB , disposed on the reflection module and electrically connected to the reflection module , and a radiating module extending away from the power feed PCB , wherein the radiating module is disposed on the power feed PCB and is electrically connected to the power feed PCB , wherein: • on a first surface of the power feed PCB a first microstrip line (S1) and a grounding area of the radiating module are disposed, wherein the grounding area of the radiating module is a first conductive layer, and a grounding electrode of the radiating module is electrically connected to the grounding area of the radiating module , • on a second surface of the power feed PCB opposite to the first surface a grounding area of the power feed PCB and a second microstrip line (S2) are disposed, wherein the grounding area of the power feed PCB is a second conductive layer, • wherein the first microstrip line (S1) is galvanically connected to the second microstrip line (S2) by using a first through hole provided in the power feed PCB , and the grounding area of the radiating module is galvanically connected to the grounding area of the power feed PCB by using a second through hole provided in the power feed PCB , • wherein the radiating module is provided on a side of the first surface of the power feed PCB , and the radiating module comprises a radiator group and a balun feeding power to the radiator group and the radiator group is connected to the power feed PCB by using the balun, wherein on a surface of the balun a feeder is provided for feeding the power to the radiator group and the feeder is electrically connected to the second microstrip line. • on a first surface of the power feed PCB a first microstrip line (S1) and a grounding area of the radiating module are disposed, wherein the grounding area of the radiating module is a first conductive layer, and a grounding electrode of the radiating module is electrically connected to the grounding area of the radiating module , • on a second surface of the power feed PCB opposite to the first surface a grounding area of the power feed PCB and a second microstrip line (S2) are disposed, wherein the grounding area of the power feed PCB is a second conductive layer, • wherein the first microstrip line (S1) is galvanically connected to the second microstrip line (S2) by using a first through hole provided in the power feed PCB , and the grounding area of the radiating module is galvanically connected to the grounding area of the power feed PCB by using a second through hole provided in the power feed PCB , • wherein the radiating module is provided on a side of the first surface of the power feed PCB , and the radiating module comprises a radiator group and a balun feeding power to the radiator group and the radiator group is connected to the power feed PCB by using the balun, wherein on a surface of the balun a feeder is provided for feeding the power to the radiator group and the feeder is electrically connected to the second microstrip line.
A gas hob comprising a top sheet , a connection rail having a plurality of ports and a plurality of gas burners arranged on the top sheet and releasably connected to the ports , the ports being configured to supply the gas burners with fuel gas, and an extraction unit configured to extract fumes, the extraction unit being retractable into the top sheet , characterised in that the extraction unit is arranged on top of and/or at least partially inside the connection rail .
A method for manufacturing a composition consisting of brewer's spent grains and polylactic acid, comprising the following steps: a step a of providing a raw material containing brewer's spent grains; a step b of providing a raw material containing polylactic acid; and a step c of mixing the brewer's spent grains with the polylactic acid at a specific proportion; characterized in that the step a includes a pretreatment unit which uses a dehydration process , a desiccation process , a drying process , a grinding process and a sieving process to process the brewer's spent grains into brewer's spent grains which have a length-to-diameter ratio of 7.6 to 10.2 and a moisture content of the brewer's spent grains is controlled at 2% to 5%. a step a of providing a raw material containing brewer's spent grains; a step b of providing a raw material containing polylactic acid; and a step c of mixing the brewer's spent grains with the polylactic acid at a specific proportion; characterized in that the step a includes a pretreatment unit which uses a dehydration process , a desiccation process , a drying process , a grinding process and a sieving process to process the brewer's spent grains into brewer's spent grains which have a length-to-diameter ratio of 7.6 to 10.2 and a moisture content of the brewer's spent grains is controlled at 2% to 5%.