mhurhangee/patent-ind-claim-en huggingface dataset:
A method for encoding by an encoder, comprising: identifying a plurality of channel instances of a channel associated with transmission of a vector comprising a first plurality of information bits, wherein the channel is recursively polarized by being partitioned or grouped into sectors or groups such that each group includes one or more channel instances; allocating the first plurality of information bits among the one or more groups based at least in part on a reliability metric associated with the channel; performing an encoding operation to encode the vector based at least in part on the allocation of the first plurality of information bits among the one or more groups and a size of at least one of the one or more groups; and transmitting the encoded vector using the plurality of channel instances; further comprising: storing a base sequence corresponding to a given group size and a given location of the given group; and determining one or more information bit locations for a group based at least in part on a number of information bits allocated to the group and the associated base sequence. identifying a plurality of channel instances of a channel associated with transmission of a vector comprising a first plurality of information bits, wherein the channel is recursively polarized by being partitioned or grouped into sectors or groups such that each group includes one or more channel instances; allocating the first plurality of information bits among the one or more groups based at least in part on a reliability metric associated with the channel; performing an encoding operation to encode the vector based at least in part on the allocation of the first plurality of information bits among the one or more groups and a size of at least one of the one or more groups; and transmitting the encoded vector using the plurality of channel instances; further comprising: storing a base sequence corresponding to a given group size and a given location of the given group; and determining one or more information bit locations for a group based at least in part on a number of information bits allocated to the group and the associated base sequence. storing a base sequence corresponding to a given group size and a given location of the given group; and determining one or more information bit locations for a group based at least in part on a number of information bits allocated to the group and the associated base sequence.
A sensor system comprising: - a magnetic field generator ; and - a sensor device arranged at a distance (dz) from said magnetic field generator and adapted for measuring or determining at least one magnetic field component (Bx, By, Bz) and/or at least one magnetic field gradient component (dBx/dx, dBx/dy, dBy/dx, dBy/dy, dBz/dx, dBz/dy); said magnetic field generator comprising a multi-pole magnet having a number of pole pairs that are axially magnetized to generate a magnetic field that is substantially rotationally symmetric around an axis , said magnet comprising a plurality of grooves and/or elongate protrusions that are radially oriented and that are arranged in a rotationally symmetric manner around said axis and that are shaped and sized so as to provide a substantially constant magnetic field gradient in a central region around said axis . - a magnetic field generator ; and - a sensor device arranged at a distance (dz) from said magnetic field generator and adapted for measuring or determining at least one magnetic field component (Bx, By, Bz) and/or at least one magnetic field gradient component (dBx/dx, dBx/dy, dBy/dx, dBy/dy, dBz/dx, dBz/dy); said magnetic field generator comprising a multi-pole magnet having a number of pole pairs that are axially magnetized to generate a magnetic field that is substantially rotationally symmetric around an axis , said magnet comprising a plurality of grooves and/or elongate protrusions that are radially oriented and that are arranged in a rotationally symmetric manner around said axis and that are shaped and sized so as to provide a substantially constant magnetic field gradient in a central region around said axis .
An uplink control plane signaling processing method for Vehicle to X, V2X, services, the method being applicable to a User Equipment, UE, and comprising: receiving (S110) an uplink signaling reduction mechanism indicated by a base station in first radio resource control, RRC, signaling or second RRC signaling, wherein the first RRC signaling is system information broadcast; and characterized in that the method further comprises: in response to receiving the uplink signaling reduction mechanism indicated by the base station, enabling (S120) the uplink signaling reduction mechanism by: selecting (S130), based on macro cell uplink resources, to camp on a macro cell or to access a small cell controlled by a plurality of road side units, RSUs; and reporting (S140) current location information through an X2 interface between the plurality of RSUs and through an X2 interface between the RSUs and the base station. selecting (S130), based on macro cell uplink resources, to camp on a macro cell or to access a small cell controlled by a plurality of road side units, RSUs; and reporting (S140) current location information through an X2 interface between the plurality of RSUs and through an X2 interface between the RSUs and the base station.
A dispenser for an unwindable cleaning tissue wound up on a hollow-cylindrical roller , in particular for a toilet paper roll, comprising a housing which completely or almost completely encloses a coiled cleaning tissue stored therein and includes an opening for unrolling and removing the cleaning tissue , and a holder attached to a rear cover of the housing , whose outside diameter is smaller than the inside diameter of the roller , for receiving the roller of the coiled cleaning tissue , wherein the holder is of hollow-cylindrical shape and is formed with an open end facing the rear cover, wherein inside the cavity of the holder one or more wet wipes are stored, which can be removed and refilled through the open end, and wherein the side of the housing facing the rear cover is formed by a first lid to be opened and closed, wherein the housing deviates from the substantially cylindrical shape of the coiled cleaning tissue , characterized in that the spaces resulting from the deviation in the upper corner regions are formed as additional storage compartments in which sanitary articles can be stored. wherein the housing deviates from the substantially cylindrical shape of the coiled cleaning tissue , characterized in that the spaces resulting from the deviation in the upper corner regions are formed as additional storage compartments in which sanitary articles can be stored.
A minimally invasive skin treatment device, comprising: a handpiece having a perimeter elevation and a top which cooperatively define a recessed area , an inner side of the perimeter elevation and the top defining an apposition surface facing into the recessed area ; a conduit extending through a side of the perimeter elevation to the recessed area ; a tool configured to at least partially extend through the conduit and into the recessed area ; a guidance track operably connected to the handpiece , wherein the guidance track is configured to constrain a portion of the tool in contact with the guidance track to move along a predetermined path to cooperatively move a distal end of the tool within the recessed area in a plane parallel to the top of the handpiece and within a region of a predetermined shape defined by the predefined path; characterized in that the conduit comprises an entry hole disposed on an inner side of the conduit and facing said recessed area , said entry hole defining a tool pivot point when a distal end of the tool is inserted through the conduit and into the recessed area , wherein the conduit widens outward toward an outer side of the perimeter elevation such that a distal end of the tool inserted through the entry hole moves in one direction when a proximal end of the tool outside the conduit moves in an opposite direction. a handpiece having a perimeter elevation and a top which cooperatively define a recessed area , an inner side of the perimeter elevation and the top defining an apposition surface facing into the recessed area ; a conduit extending through a side of the perimeter elevation to the recessed area ; a tool configured to at least partially extend through the conduit and into the recessed area ; a guidance track operably connected to the handpiece , wherein the guidance track is configured to constrain a portion of the tool in contact with the guidance track to move along a predetermined path to cooperatively move a distal end of the tool within the recessed area in a plane parallel to the top of the handpiece and within a region of a predetermined shape defined by the predefined path; characterized in that the conduit comprises an entry hole disposed on an inner side of the conduit and facing said recessed area , said entry hole defining a tool pivot point when a distal end of the tool is inserted through the conduit and into the recessed area , wherein the conduit widens outward toward an outer side of the perimeter elevation such that a distal end of the tool inserted through the entry hole moves in one direction when a proximal end of the tool outside the conduit moves in an opposite direction.
Connection set comprising a surface fitting which has a fitting housing , in which at least one shut-off valve is received and which has a hot water connection , a cold water connection and at least one outlet , and at least one thermosiphon element (10, 20; 34) which has an input interface (14, 22; 36) which can be connected to a wall connection of a water pipe, an output interface (16, 26; 38) which can be connected to the hot water connection or the cold water connection of the fitting housing and a circumferentially closed tube portion (18, 28; 44) made of a material that has a low thermal conductivity, characterised in that the thermosiphon element (10, 20; 34) is designed such that it can be connected to the wall connection and to the hot water connection or the cold water connection of the fitting housing so that the hot water connection and/or the cold water connection of the fitting housing are substantially parallel to or aligned along the length of the wall connection of the water pipe.
A magnetostrictive sensing instrument comprising: a probe including an elongate tube having a near end and a distal end , a magnetostrictive wire in the tube, and an adapter at the tube near end for mounting the probe to a vessel and having an adapter housing including a probe circuit comprising a drive circuit for the magnetostrictive wire , a pickup sensor and a preamplifier circuit ; an instrument housing including a control circuit ; and a two part swivel connector operatively disposed between the instrument housing and the adapter , the two part swivel connector comprising a probe connector and a transmitter connector for mechanically connecting the probe to the instrument housing , the transmitter connector comprising electrical connectors electrically connected to the control circuit and the probe connector comprising electrical connectors electrically connected to the probe circuit , wherein the two part swivel connector comprises a removable connector for removing the instrument housing from the probe . a probe including an elongate tube having a near end and a distal end , a magnetostrictive wire in the tube, and an adapter at the tube near end for mounting the probe to a vessel and having an adapter housing including a probe circuit comprising a drive circuit for the magnetostrictive wire , a pickup sensor and a preamplifier circuit ; an instrument housing including a control circuit ; and a two part swivel connector operatively disposed between the instrument housing and the adapter , the two part swivel connector comprising a probe connector and a transmitter connector for mechanically connecting the probe to the instrument housing , the transmitter connector comprising electrical connectors electrically connected to the control circuit and the probe connector comprising electrical connectors electrically connected to the probe circuit , wherein the two part swivel connector comprises a removable connector for removing the instrument housing from the probe .
A device comprising: a polymeric separation medium that immobilizes one or more constituents of interest in the polymeric separation medium and has an increased pore size upon application of an applied stimulus, wherein the polymeric separation medium comprises a non-labile crosslinker configured to crosslink the polymeric separation medium, and a labile crosslinker configured to crosslink the polymeric separation medium and de-crosslink upon application of the applied stimulus, wherein the polymeric separation medium comprises functional groups that covalently bond to one or more of the constituents of interest in the polymeric separation medium, and wherein the labile crosslinker comprises N,N'-(1,2-dihydroxyethylene)bisacrylamide (DHEBA), N-N'-diallyltartardiamide (DATD), N,N'-bis(acryloyl)cystamine (BAC), N,N'-(7,7-dimethyl-3,6,8,11-tetraoxatridecane-1,13-diyl)diacrylamide (DOK), or N,N'-[(1-methylethylidene)bis(oxy-2,1-ethanediyl)]diacrylamide (DK) . wherein the polymeric separation medium comprises functional groups that covalently bond to one or more of the constituents of interest in the polymeric separation medium, and wherein the labile crosslinker comprises N,N'-(1,2-dihydroxyethylene)bisacrylamide (DHEBA), N-N'-diallyltartardiamide (DATD), N,N'-bis(acryloyl)cystamine (BAC), N,N'-(7,7-dimethyl-3,6,8,11-tetraoxatridecane-1,13-diyl)diacrylamide (DOK), or N,N'-[(1-methylethylidene)bis(oxy-2,1-ethanediyl)]diacrylamide (DK) .
An installation for cleaning ballast of a track , consisting of several vehicles having machine frames supported on on-track undercarriages , including two shoulder clearing chains , positioned opposite one another with regard to a transverse direction of the track, for taking up the ballast located in a shoulder area adjoining sleeper ends, an endless clearing chain following the shoulder clearing chains with respect to a working direction of the installation and designed to be guided around the track for taking up the ballast located underneath the track , further including a screening installation , conveying devices for the transport of ballast , and a ballast introduction device , wherein a first conveying device for the transport of ballast to the screening installation is associated with the shoulder clearing chains , characterized in that a second conveying device for the transport of ballast to a processing unit is associated with the endless clearing chain and a third conveying device for the transport of ballast to the screening installation is associated with the processing unit and that the processing unit is arranged on a separate processing vehicle having a machine frame supported on on-track undercarriages wherein the processing vehicle is arranged between the shoulder clearing chains and the endless clearing chain , with regard to the working direction .
An optical connector comprising: a connecting structure ; an optical receiver located within the connecting structure ; an optical transmitter located within the connecting structure ; a heat sink located within the connecting structure , wherein the heat sink is configured to conduct heat away from the optical receiver and the optical transmitter and the optical receiver and the optical transmitter are thermally connected to the heat sink ; and a dielectric structure connected to the connecting structure , wherein the heat sink is held by the dielectric structure in the connecting structure , wherein the heat sink further comprises at least one hole configured to facilitate the horizontal position adjustment of the heat sink . a connecting structure ; an optical receiver located within the connecting structure ; an optical transmitter located within the connecting structure ; a heat sink located within the connecting structure , wherein the heat sink is configured to conduct heat away from the optical receiver and the optical transmitter and the optical receiver and the optical transmitter are thermally connected to the heat sink ; and a dielectric structure connected to the connecting structure , wherein the heat sink is held by the dielectric structure in the connecting structure , wherein the heat sink further comprises at least one hole configured to facilitate the horizontal position adjustment of the heat sink .
Method for managing an assisted driving mode of a motor vehicle, hereinafter host vehicle , the assisted driving mode implementing an adaptive cruise control function, hereinafter ACC function, the method comprising the steps of: - determining , when a deactivation of the ACC function is requested by the driver, if this request is made via a control button; - if deactivation of the ACC function is requested via the control button, determining whether a vehicle, hereinafter target vehicle, precedes the host vehicle; - transmitting an alert message to the attention of the driver if the target vehicle is detected and if a difference between the target vehicle and the host vehicle is less than a threshold value; And - deactivate the ACC function; the step of determining whether the request for deactivation of the ACC function is made via a control button further consisting in determining whether this deactivation is requested during a braking phase. - determining , when a deactivation of the ACC function is requested by the driver, if this request is made via a control button; - if deactivation of the ACC function is requested via the control button, determining whether a vehicle, hereinafter target vehicle, precedes the host vehicle; - transmitting an alert message to the attention of the driver if the target vehicle is detected and if a difference between the target vehicle and the host vehicle is less than a threshold value; And - deactivate the ACC function;
A pharmaceutical composition comprising a compound for use in treating familial exudative vitreoretinopathy, wherein the compound is:
A method of controlling signal transmission from a network node towards multiple user equipment, said network node comprising a plurality of antennas, said method comprising: selecting a plurality of said user equipment, said selected user equipment being user equipment that are determined to have a high degree of propagation channel orthogonality with respect to each other, the number of said selected plurality of user equipment being less than or equal to the number of said plurality of antennas; for at least some non-selected user equipment, determining a respective propagation channel correlation between (i) the non-selected user equipment, and (ii) each of said selected user equipment; grouping respective selected user equipment with a non-selected user equipment with which the respective selected user equipment has the highest degree of propagation channel correlation, thereby forming a plurality of groups of user equipment; forming a precoding vector for each of said plurality of groups of user equipment; and for each group of user equipment, superimposing signals intended for said user equipment within said group, applying said corresponding precoding vector to said superimposed signals and transmitting a resultant signal from one of said antenna towards said group of user equipment; wherein said step of superimposing said signals for each group of user equipment comprises encoding each of said signals and mapping each of said encoded signals to a structural coded modulation and superimposing said signals to form a superimposed structural code, wherein said superimposed structural code comprises a superimposed lattice code. selecting a plurality of said user equipment, said selected user equipment being user equipment that are determined to have a high degree of propagation channel orthogonality with respect to each other, the number of said selected plurality of user equipment being less than or equal to the number of said plurality of antennas; for at least some non-selected user equipment, determining a respective propagation channel correlation between (i) the non-selected user equipment, and (ii) each of said selected user equipment; grouping respective selected user equipment with a non-selected user equipment with which the respective selected user equipment has the highest degree of propagation channel correlation, thereby forming a plurality of groups of user equipment; forming a precoding vector for each of said plurality of groups of user equipment; and for each group of user equipment, superimposing signals intended for said user equipment within said group, applying said corresponding precoding vector to said superimposed signals and transmitting a resultant signal from one of said antenna towards said group of user equipment; wherein
A glazing comprising a glass substrate on which is deposited a coating comprising at least one layer, said layer being composed of a material comprising metal nanoparticles dispersed in an inorganic matrix of an oxide wherein, - said metallic nanoparticles are made of a metal selected from the group consisting of silver, gold, platinum, copper and nickel, or of an alloy consisting of at least two of these metals, - said matrix comprises or essentially consists of an oxide of at least one element chosen from the group of titanium, silicon, zirconium, - the atomic ratio M/Me in said material is less than 1.5, M representing all the atoms of the elements of said group of titanium, silicon, zirconium present in said layer and Me representing all the atoms of the metals of the group consisting of silver, gold, platinum, copper and nickel present in said layer, and wherein the thickness of said layer is between 5 and 100 nm. - said metallic nanoparticles are made of a metal selected from the group consisting of silver, gold, platinum, copper and nickel, or of an alloy consisting of at least two of these metals, - said matrix comprises or essentially consists of an oxide of at least one element chosen from the group of titanium, silicon, zirconium, - the atomic ratio M/Me in said material is less than 1.5, M representing all the atoms of the elements of said group of titanium, silicon, zirconium present in said layer and Me representing all the atoms of the metals of the group consisting of silver, gold, platinum, copper and nickel present in said layer,
Apparatus , configured and adapted to join two material webs each running from a bobbin , comprising a first receptacle for receiving a first bobbin with a material web of finite length, a second receptacle for receiving a second bobbin with a material web of finite length, transport means for transporting the material webs in conveying direction T, as well as a joining station having a cutting apparatus for cutting a free, trailing end of the first material web and a free, leading end of the second material web , and with a joining apparatus for joining the two cut, free ends of the material webs of finite length into an endless material web while forming an overlap region (Ü B ), wherein the joining station is configured and adapted to form an overlap region (Ü B ) which is provided with at least one breakthrough) over the width (B) of the endless material web , characterised in that the joining station is configured and adapted to form an overlap region (Ü B ) which, over the width (B) of the endless material web , has regions of overlap, on the one hand, and material-free regions , on the other hand, wherein the size of the regions of overlap is in a ratio of 0.8 to 1.2, preferably of 0.9 to 1.1, and particularly preferably of 0.95 to 1.05, to the size of the material-free regions , or there are more/larger material-free regions than regions of overlap, viewed over the entire width of the overlap region (Ü B ), or the regions of overlap and the material-free regions substantially correspond in total in terms of their size.