mhurhangee/patent-ind-claim-en huggingface dataset:
System comprising a multi-chamber hollow profile (H) having a fastening wall and at least one inner wall , and comprising a hinge part of an articulation hinge, in particular a leaf hinge part, that is fastened to the fastening wall , the hinge part comprising a mounting part which can be fixedly attached to the multi-chamber hollow profile (H) and an adjusting part which can be moved relative to the mounting part and can be fixed in a desired displacement position, characterized in that the mounting part comprises a plurality of first fitting extensions which engage in perforations in the fastening wall and the inner wall with at least almost zero-clearance, and at least one second fitting extension which engages in perforations only in the fastening wall with at least almost zero-clearance.
A weight roller comprising: a weight adjusting member having a cylindrical shape; and a covering member covering an outer peripheral surface and at least part of an upper surface and a lower surface which are two opposite surfaces of the weight adjusting member , the covering member protruding beyond the upper surface and the lower surface of the weight adjusting member , wherein the covering member is made of a resin composition, characterized in that the covering member has a portion protruding beyond the upper surface of the weight adjusting member , the portion having an inner chamfered portion having a chamfered shape along an inner periphery of the portion, and the covering member is formed by a mold having at least one split portion disposed at a position corresponding to the inner chamfered portion . a weight adjusting member having a cylindrical shape; and a covering member covering an outer peripheral surface and at least part of an upper surface and a lower surface which are two opposite surfaces of the weight adjusting member , the covering member protruding beyond the upper surface and the lower surface of the weight adjusting member , wherein the covering member is made of a resin composition, characterized in that the covering member has a portion protruding beyond the upper surface of the weight adjusting member , the portion having an inner chamfered portion having a chamfered shape along an inner periphery of the portion, and the covering member is formed by a mold having at least one split portion disposed at a position corresponding to the inner chamfered portion .
A method performed by a terminal for connecting to a cell in a wireless communication system, the method comprising: determining to receive a connection restriction parameter from a base station if it is determined to attempt connection to the base station during data communication through a wireless local area network, LAN, ; receiving , if it is determined to receive the connection restriction parameter, system information including the connection restriction parameter from the base station ; determining whether connection to the base station is allowed based on the connection restriction parameter; and attempting to connect to the base station when connection to the base station is allowed. determining to receive a connection restriction parameter from a base station if it is determined to attempt connection to the base station during data communication through a wireless local area network, LAN, ; receiving , if it is determined to receive the connection restriction parameter, system information including the connection restriction parameter from the base station ; determining whether connection to the base station is allowed based on the connection restriction parameter; and attempting to connect to the base station when connection to the base station is allowed.
An adaptor configured to couple with a sealed vial, the adaptor comprising: a housing apparatus including a distal access aperture configured to permit withdrawal of fluid from the sealed vial when the adaptor is coupled to the sealed vial, wherein at least a portion of an access channel and at least a portion of a regulator channel pass through the housing apparatus, the regulator channel being in fluid communication with the sealed vial when the adaptor is coupled to the sealed vial; a check valve having a cracking pressure; and a regulator enclosure in fluid communication with the vial through the regulator channel, wherein the regulator enclosure is configured to move between an orientation in which at least a portion of the regulator enclosure is at least partially folded and an orientation in which at least a portion of the regulator enclosure is at least partially unfolded when a fluid is transferred between the sealed vial and a syringe via the access channel; wherein, when the adaptor is coupled with the vial and a pressure difference between the inside and outside of the vial exceeds the cracking pressure of the check valve, the check valve opens and permits ambient air to enter the vial via the adaptor, thereby substantially equalizing the pressure inside the vial relative to the pressure outside the vial; and wherein a rigid housing of the housing apparatus does not entirely contain the regulator enclosure in the unfolded orientation. a housing apparatus including a distal access aperture configured to permit withdrawal of fluid from the sealed vial when the adaptor is coupled to the sealed vial, wherein at least a portion of an access channel and at least a portion of a regulator channel pass through the housing apparatus, the regulator channel being in fluid communication with the sealed vial when the adaptor is coupled to the sealed vial; a check valve having a cracking pressure; and a regulator enclosure in fluid communication with the vial through the regulator channel, wherein the regulator enclosure is configured to move between an orientation in which at least a portion of the regulator enclosure is at least partially folded and an orientation in which at least a portion of the regulator enclosure is at least partially unfolded when a fluid is transferred between the sealed vial and a syringe via the access channel; wherein, when the adaptor is coupled with the vial and a pressure difference between the inside and outside of the vial exceeds the cracking pressure of the check valve, the check valve opens and permits ambient air to enter the vial via the adaptor, thereby substantially equalizing the pressure inside the vial relative to the pressure outside the vial; and wherein a rigid housing of the housing apparatus does not entirely contain the regulator enclosure in the unfolded orientation.
A hair treatment agent comprising a pressurized container and an aerosol composition located therein which contains, based on the weight thereof, a) 20 to 80 wt.% of at least one propellant, b) 1 to 79 wt.% of at least one white pigment, c) 0.1 to 50 wt.% of at least one viscosity enhancer, d) 0 to 1 wt.% dye(s), e) 0.1 to 10 wt.% talc. a) 20 to 80 wt.% of at least one propellant, b) 1 to 79 wt.% of at least one white pigment, c) 0.1 to 50 wt.% of at least one viscosity enhancer, d) 0 to 1 wt.% dye(s), e) 0.1 to 10 wt.% talc.
A laser including a semiconductor distributed Bragg reflector mirror , wherein the mirror comprises: layers of InGaAs; and layers of AlAsP or GaAlAsP. layers of InGaAs; and layers of AlAsP or GaAlAsP.
A method for the identification of the presence of FGF2, the method comprising the use of target cells sensitive to the presence of FGF2 by obstructing proliferation, wherein the target cells constitutively express a first reporter in the nucleus of living target cells, and wherein the target cells are co-incubated with cells or a liquid to detect the secretion or presence of FGF2.
Method for assigning addresses to bus subscribers of a bus system, which comprises a master module (M) and bus subscribers (S1, S2, S3, S4) arranged in series, the master module (M) and the bus subscribers (S1, S2, S3, S4) being arranged and interconnected in series, the method having the following consecutive method steps: the master module (M), in a first method step, allocating a first address to a first bus subscriber (S1) arranged downstream of the master module (M) and sending said first address to the first bus subscriber (S1), the first address in particular being a natural number n, the first address in particular being 0 or 1, the first bus subscriber (S1), in a second method step, increasing the first address by one and assigning it, as a second address, to a second bus subscriber (S2) arranged downstream of the first bus subscriber (S1) and sending said second address to the second bus subscriber (S2), the second address in particular being the natural number (n+1), the second bus subscriber (S2), in a third method step, logging into the master module (M) using its second address, and characterised in that any bus subscriber (S1, S2, S3, S4) that receives an address that is higher than the maximum permitted number of bus subscribers (S1, S2, S3, S4) does not increase this address any further, but rather forwards the same address to the bus subscriber (S1, S2, S3, S4) arranged downstream of it, which logs into the master module (M) using that address, and as soon as the master module (M) receives an address that is higher than the maximum permitted number of bus subscribers (S1, S2, S3, S4), the master module (M) sends an error message to a controller superordinate to the master module (M). the master module (M), in a first method step, allocating a first address to a first bus subscriber (S1) arranged downstream of the master module (M) and sending said first address to the first bus subscriber (S1), the first address in particular being a natural number n, the first address in particular being 0 or 1, the first bus subscriber (S1), in a second method step, increasing the first address by one and assigning it, as a second address, to a second bus subscriber (S2) arranged downstream of the first bus subscriber (S1) and sending said second address to the second bus subscriber (S2), the second address in particular being the natural number (n+1), the second bus subscriber (S2), in a third method step, logging into the master module (M) using its second address, and characterised in that any bus subscriber (S1, S2, S3, S4) that receives an address that is higher than the maximum permitted number of bus subscribers (S1, S2, S3, S4) does not increase this address any further, but rather forwards the same address to the bus subscriber (S1, S2, S3, S4) arranged downstream of it, which logs into the master module (M) using that address, and as soon as the master module (M) receives an address that is higher than the maximum permitted number of bus subscribers (S1, S2, S3, S4), the master module (M) sends an error message to a controller superordinate to the master module (M).
A motorized drive for racking operations in a medium voltage switchgear comprising a main drive shaft actuated by a drive motor and adapted to be operatively coupled to a truck in said medium voltage switchgear, wherein it comprises a replicating device which replicates the stroke of said truck during rack-in or rack out operations in said switchgear, characterised in that said replicating device is operatively coupled to said main drive shaft and comprises a movable actuator which is movable between a first position corresponding to a rack-in condition of said truck and a second position corresponding to a rack-out condition of said truck; said replicating device comprises a main frame comprising a first and a second sliding support slidingly connected to said frame and first and second adjustable end-stroke means for setting respectively said first and second position, said first and second adjustable end-stroke means being respectively positioned on said first and second sliding support.
An electronic circuit assembly comprising: an electrical component ; a circuitry interface panel positioned underneath the electrical component ; said circuitry interface panel having one or more pillars on the bottom of said interface panel and extending down away from the interface panel ; a base portion having one or more cavities in linear alignment with said one or more pillars and adapted to receive said one or more pillars ; a spring element disposed between said interface panel and said base portion so that one end of the spring element is positioned inside one of the one or more cavities ; and said one or more cavities being at least partially filled with a viscous coolant. an electrical component ; a circuitry interface panel positioned underneath the electrical component ; said circuitry interface panel having one or more pillars on the bottom of said interface panel and extending down away from the interface panel ; a base portion having one or more cavities in linear alignment with said one or more pillars and adapted to receive said one or more pillars ; a spring element disposed between said interface panel and said base portion so that one end of the spring element is positioned inside one of the one or more cavities ; and said one or more cavities being at least partially filled with a viscous coolant.
Synchronization system for a power generation unit coupled to an electrical power system , the synchronization system being configured to be communicated with the electrical power system and with the power generation unit to facilitate the synchronization between the power generation unit and the electrical power system , to receive at least one main electrical signal (S e ) from the electrical power system , and to generate at least one synchronization signal (S s ) for facilitating the synchronization by mean of at least one Phase-Locked Loop , and the Phase-Locked Loop comprising at least one controller scheme with a plurality of gain parameters (K mn ), to eliminate a deviation of at least one electrical property of the synchronization signal (S s ) in respect of the main electrical signal (S e ), the electrical property being selected between at least an amplitude, frequency and phase angle, characterized in that the synchronization system also comprises a gain controller configured to adjust the value of the gain parameters (K mn ) of the Phase-Locked Loop depending on the frequency or phase angle and the amplitude of said main electrical signal (S e ), said gain parameters (K mn ) being adjusted dynamically following possible changes in the main electrical signal (S e ), and consequently the generation of the synchronization signal (S s ) being based on current conditions of the electrical power system .
Sunshade intended to be fixed to a building by an inner side of said sunshade, in order to protect this building from solar radiation, comprising a fixed portion equipped with crosspieces arranged transversely with respect to the inner side, which each support means for guiding a movable portion enabling it to be moved towards the fixed portion in order to obtain a covering of these parts under the action of a motorization system, each crosspiece comprising at its outer end a support , characterized in that the fixed part and the movable part receive photovoltaic cells , and in that the guide means of each crosspiece comprise a guide rail comprising two "C" sections and receiving two sets of four rollers , the support comprising a vertical plane and on each side of this vertical plane one of the two sets of four rollers, each set of four rollers being fitted in one of the two sections of this guide rail , two of said four rollers being fixed to the ends of the support , and bearing on an upper guiding plane of this section, and two other of said four rollers bearing on a lower guiding plane of this section.
Impeller comprising: - a central shaft or tube for mounting on a shaft; - around a shaft or tube , a hollow hub with an outside and an inside oriented towards the shaft or tube ; - a series of blades that are attached to the outside of the hub by their bases , wherein for each blade , or for at least a number of these blades , a reinforcing rib is provided that extends on the shaft or tube in a radial direction and forms a radial connection between the shaft or tube and the inside of the hub at a position opposite the attachment of the base of a blade concerned, whereby the location of attachment of a head of the reinforcing ribs on the inside of the hub is located within the footprint of a corresponding blade on this inside characterised in that the aforementioned location of attachment of the reinforcing ribs lies within the footprint of a corresponding blade and is shifted slightly sideways with respect to the centerline of this footprint. - a central shaft or tube for mounting on a shaft; - around a shaft or tube , a hollow hub with an outside and an inside oriented towards the shaft or tube ; - a series of blades that are attached to the outside of the hub by their bases , wherein for each blade , or for at least a number of these blades , a reinforcing rib is provided that extends on the shaft or tube in a radial direction and forms a radial connection between the shaft or tube and the inside of the hub at a position opposite the attachment of the base of a blade concerned, whereby the location of attachment of a head of the reinforcing ribs on the inside of the hub is located within the footprint of a corresponding blade on this inside characterised in that the aforementioned location of attachment of the reinforcing ribs lies within the footprint of a corresponding blade and is shifted slightly sideways with respect to the centerline of this footprint.
A sliding wall installation , including at least one profile element of a ceiling guide of the sliding wall installation , a running carriage and a sliding wall element , wherein the running carriage includes a carriage housing , a first running wheel , a second running wheel as well as a suspension element , wherein the running wheels are rotatably supported by means of at least one bearing device with regard to the carriage housing about at least one running wheel axis , and wherein furthermore the suspension element is disposed in this manner protruding from the carriage housing in and/or at the carriage housing , such that the sliding wall element is attachable to the suspension element , wherein the sliding wall element is attached to the suspension element of the running carriage and the running carriage is movably disposed in the profile element , wherein furthermore the profile element includes a first running profile , a second running profile and a profile gap , which in particular is disposed between the first running profile and the second running profile , wherein, in the employed state, the running wheels are disposed each on one of the running profiles and the suspension element extends through the profile gap , wherein the profile element includes at least one branching section , in which one running path , which includes at least the running profiles and the profile gap , branches into at least one first path section and a second path section , characterized in that an extension of at least one of the running wheels in the direction along the at least one running wheel axis is at least one and a half times larger, preferably two to three times larger, at maximum four times larger than an extension of the suspension element in said direction, and in that at least one of the running wheels includes a surrounding running surface and shortened along the at least one running wheel axis , wherein the running surface is stepped radially by a running step from the rest of the running wheel , and in that the at least one branching section includes an elevation element for compensating the stepped running surface when travelling through the branching section , wherein the elevation element has a height corresponding to the running step .
A method for determining a precoding matrix indicator, comprising: receiving a reference signal from a transmit end; selecting a precoding matrix W from a codebook based on the reference signal, wherein the precoding matrix W is a product of a matrix W 1 and a matrix W2, wherein the W 1 comprises N B block matrices X i , N B > 1, and the W 1 is indicated as W 1= diag { X 1 ,..., X N B }, wherein 1≤ i ≤ N B , each block matrix X i is a kronecker product of a first codebook A i and a second codebook B i , X i = A i ⊗ B i , a quantity of candidate codebooks of the first codebook A i is greater than or equal to a quantity of candidate codebooks of the second codebook B i , the first codebook A i represents a codebook corresponding to a horizontal direction of a two-dimensional planar array antenna, and the second codebook B i represents a codebook corresponding to a vertical direction of the two-dimensional planar array antenna; and sending a precoding matrix indicator, PMI, corresponding to the precoding matrix W to the transmit end. receiving a reference signal from a transmit end; selecting a precoding matrix W from a codebook based on the reference signal, wherein the precoding matrix W is a product of a matrix W 1 and a matrix W2, wherein the W 1 comprises N B block matrices X i , N B > 1, and the W 1 is indicated as W 1= diag { X 1 ,..., X N B }, wherein 1≤ i ≤ N B , each block matrix X i is a kronecker product of a first codebook A i and a second codebook B i , X i = A i ⊗ B i , a quantity of candidate codebooks of the first codebook A i is greater than or equal to a quantity of candidate codebooks of the second codebook B i , the first codebook A i represents a codebook corresponding to a horizontal direction of a two-dimensional planar array antenna, and the second codebook B i represents a codebook corresponding to a vertical direction of the two-dimensional planar array antenna; and sending a precoding matrix indicator, PMI, corresponding to the precoding matrix W to the transmit end.
A method for operating a portable storage medium PSM based remote terminal unit RTU in an industrial control and automation system comprising: receiving the PSM in a slot included in the RTU 102 thereby electrically coupling the PSM to processing circuitry ; determining , by the processing circuitry and on-chip memory mounted on a same chip as the processing circuitry that the PSM is coupled to the processing circuitry; and in response to determining that the PSM stores function code in a specified folder that the processing circuitry is configured to access, performing a specified function corresponding to the function code by executing the function code wherein the specified function comprises a download , the PSM storing new configuration information received in the download; and wherein performing the specified function includes: in response to determining that the new configuration information is compatible with hardware of the RTU, replacing existing configuration information stored in the on-chip memory by copying the new configuration information from the PSM to the on-chip memory. receiving the PSM in a slot included in the RTU 102 thereby electrically coupling the PSM to processing circuitry ; determining , by the processing circuitry and on-chip memory mounted on a same chip as the processing circuitry that the PSM is coupled to the processing circuitry; and in response to determining that the PSM stores function code in a specified folder that the processing circuitry is configured to access, performing a specified function corresponding to the function code by executing the function code wherein the specified function comprises a download , the PSM storing new configuration information received in the download; and wherein performing the specified function includes: in response to determining that the new configuration information is compatible with hardware of the RTU, replacing existing configuration information stored in the on-chip memory by copying the new configuration information from the PSM to the on-chip memory.