mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication by a user equipment, UE, (420; 502), comprising: receiving a random access response, RAR, message from a base station (410; 504) during a random access channel, RACH, procedure; determining beam information based on the received RAR message during the RACH procedure; and characterized by transmitting a third message to the base station (410; 504) during the RACH procedure that includes the determined beam information, wherein the RAR message comprises a value indicating a request for beam information during the RACH procedure, and wherein the third message is transmitted based on the request for beam information. receiving a random access response, RAR, message from a base station (410; 504) during a random access channel, RACH, procedure; determining beam information based on the received RAR message during the RACH procedure; and characterized by transmitting a third message to the base station (410; 504) during the RACH procedure that includes the determined beam information, wherein the RAR message comprises a value indicating a request for beam information during the RACH procedure, and wherein the third message is transmitted based on the request for beam information.
Communication system by modulated optical signals of Li-Fi signal type, for the transmission of data to and from a plurality of defined privileged spaces , the communication system comprising: - a plurality of first light sources , each first light source being adapted to emit, in the infrared, a modulated optical signal of the Li-Fi signal type, called first modulated optical signal, - a plurality of optical fibres , - a plurality of optical interfaces , one optical interface at an end of each optical fibre , each optical fibre being adapted to guide one of said first modulated optical signals, coming from only one of said first light sources , in the direction of one of said optical interfaces adapted to broadcast said one of said first modulated optical signals into a defined privileged space , each optical fibre also being adapted to transport a modulated optical signal of the Li-Fi signal type coming from the associated defined privileged space , called second modulated optical signal, in the direction of a device for acquiring said second modulated optical signal. - a plurality of first light sources , each first light source being adapted to emit, in the infrared, a modulated optical signal of the Li-Fi signal type, called first modulated optical signal, - a plurality of optical fibres , - a plurality of optical interfaces , one optical interface at an end of each optical fibre ,
Interleukin-2 (IL-2) for use in treating graft-versus-host disease (GVHD) in a pediatric subject, wherein the IL-2 is administered as a) an induction regimen comprising continuously administering to a pediatric subject interleukin-2 (IL-2) at a dose that increases the subject's plasma IL-2 level and increases the subject's ratio of regulatory T lymphocytes (Tregs) to conventional T lymphocytes (Tcons) (Tregs:Tcons); and then b) at least one maintenance regimen comprising continuously using an IL-2 maintenance dose that is higher than the induction regimen dose and that i) further increases the subject's plasma IL-2 level and ii) further increases the ratio of Tregs to Tcons. a) an induction regimen comprising continuously administering to a pediatric subject interleukin-2 (IL-2) at a dose that increases the subject's plasma IL-2 level and increases the subject's ratio of regulatory T lymphocytes (Tregs) to conventional T lymphocytes (Tcons) (Tregs:Tcons); and then b) at least one maintenance regimen comprising continuously using an IL-2 maintenance dose that is higher than the induction regimen dose and that i) further increases the subject's plasma IL-2 level and ii) further increases the ratio of Tregs to Tcons.
A collapsible container with a bottom in the form of a polygon, and with a trapezoid side wall on each side of the bottom extending over the length thereof and flexibly connecting thereto with a lower edge, and having lateral edges which respectively depart from one bottom corner , and a free upper edge, characterised in that the lateral edges of two adjacent side walls (2a, 2b; 2b, 2c; 2c, 2d; 2d, 2a) that join each other on a bottom corner (3a; 3b; 3c; 3d) are respectively connected by a triangular gusset (4a; 4b; 4c; 4d) that becomes broader from the bottom corner (3a; 3b; 3c; 3d) to an upper edge, the gusset in each case flexibly connecting to the two lateral edges in such a way that in a state of use of the container the upper edges of the side walls and the gusset surround an opening that lies above the bottom .
An apparatus for breeding plants having at least two units arranged in the apparatus for the reception of a plant, wherein at least two units are arranged in a first row and at least one of these units is movable relative to at least one further unit of the first row so that their spacing from one another is changeable, characterized in that one unit , a plurality of, or all the units has/have a reception region for a connection means , with at least two adjacent units within a row being connected by connection means , with a maximum spacing between the connected units being defined by the connection means and optionally being able to be changed, with a cover being located between adjacent units of a row or with a cover being insertable between adjacent units of a row which covers the intermediate space between the units when they are spaced apart from one another.
An automatic treatment planning system , comprising: a user interface ; and a treatment planning module configured to automatically generate (S110) one or more treatment plan candidates based on a weighted combination of a first set of objectives derived for clinical data of a first data source and a second set of objectives derived for clinical data of a second, different data source received via the user interface ; characterized in that : the first data source includes a prioritized set of clinical goals, and the second data source includes knowledge-based information. a user interface ; and a treatment planning module configured to automatically generate (S110) one or more treatment plan candidates based on a weighted combination of a first set of objectives derived for clinical data of a first data source and a second set of objectives derived for clinical data of a second, different data source received via the user interface ; characterized in that : the first data source includes a prioritized set of clinical goals, and the second data source includes knowledge-based information.
A method for exchanging data within a robotic system comprising a mobile field robot for operating in a field and a mobile service robot , the field robot and the service robot each comprising a buffer for storing data and a first communication device with a short-range communication reach for exchanging data with each other, the method comprising the steps: - commanding the field robot to operate in the field using data stored in the buffer of the field robot , - detecting that one of the robots is covered by the short-range communication reach of the other robot , - initiating a data transfer between the field robot and the service robot characterized in that the field robot is configured to operate in a subfield (7.4) of the field and the service robot is configured to operate exclusively out of the subfield (7.4); and the method comprising the steps: - commanding the service robot to approach to the field robot , - determining a dead zone being characterized in that the field robot and the service robot each are not coverable by the short-range communication reach of the other robot when the field robot is located in the dead zone , - recognizing a necessity of a data transfer for the field robot if the free buffer space of the buffer of the field robot is insufficient for a field operation of the field robot in the dead zone . - commanding the field robot to operate in the field using data stored in the buffer of the field robot , - detecting that one of the robots is covered by the short-range communication reach of the other robot , - initiating a data transfer between the field robot and the service robot the field robot is configured to operate in a subfield (7.4) of the field and the service robot is configured to operate exclusively out of the subfield (7.4); and the method comprising the steps: - commanding the service robot to approach to the field robot , - determining a dead zone being characterized in that the field robot and the service robot each are not coverable by the short-range communication reach of the other robot when the field robot is located in the dead zone , - recognizing a necessity of a data transfer for the field robot if the free buffer space of the buffer of the field robot is insufficient for a field operation of the field robot in the dead zone . - commanding the service robot to approach to the field robot , - determining a dead zone being characterized in that the field robot and the service robot each are not coverable by the short-range communication reach of the other robot when the field robot is located in the dead zone , - recognizing a necessity of a data transfer for the field robot if the free buffer space of the buffer of the field robot is insufficient for a field operation of the field robot in the dead zone .
A method for producing a supported catalyst composition for olefin polymerization comprising the steps of: a) forming a suspension comprising one or more porous particulate supports, one or more activator compounds and one or more catalyst compounds in one or more liquid diluents, wherein step a) is performed in a time of 5 hours or less; and b) spray drying the suspension to form a supported catalyst composition; wherein step b) is performed at a rate sufficient to produce at least 200 kg of supported catalyst composition in a time of 5 hours or less. a) forming a suspension comprising one or more porous particulate supports, one or more activator compounds and one or more catalyst compounds in one or more liquid diluents, wherein step a) is performed in a time of 5 hours or less; and b) spray drying the suspension to form a supported catalyst composition;
Method for the tactile interaction of a user with an electronic device , for example a smartphone, a tablet PC or a navigation device, having at least one processor for processing data and having a touch-sensitive operator interface , wherein the device has a vibration device for producing a vibration, and wherein the operator interface is designed with a scanning device for generating a scanning signal on the basis of a position of contact on the operator interface , wherein a vibration is produced at least in the operator interface on the basis of movement which is used by the user to change the position of the contact within an operating area on the operator interface , wherein the vibration is produced on the basis of the at least one operating area , for example a button, graphics, a pattern or the like, characterized in that the vibration pulses form a virtual texture (T) which can be perceived in a tactile manner and is derived from the operating area , wherein at least two operating areas which are spaced apart from one another are defined on the operator interface , wherein a different texture (T) is derived from each of the at least two operating areas , wherein a plurality of positions are defined by a texture (T), wherein the current position of the contact, which is determined by the scanning device, is continuously compared with the positions defined by the texture (T), and a vibration pulse is output by the vibration device when a movement of the contact beyond a position defined by the texture (T) is detected, wherein a frequency of successive vibration pulses is dependent on the distance between the positions defined by the texture.
A computer-implemented method for modeling a subterranean volume, comprising: receiving data representing a geology of the subterranean volume , wherein the data includes measurements acquired from sensors in the subterranean volume; calculating a mesh for a digital model of the subterranean volume ; generating the digital model using the mesh and the data, wherein generating the digital model comprises defining an implicit function for isostratigraphic surfaces of the subterranean volume ; calculating values for a plurality of data points in the model using the implicit function, wherein the plurality of data points is contained within a plurality of mesh elements of the mesh ; determining a discrepancy value for each of the individual data points by comparing the values to expected values corresponding to the respective data points ; identifying a sample domain in the digital model, wherein the sample domain includes at least one mesh element of the plurality of mesh elements, the at least one mesh element containing at least one data point with the discrepancy value associated therewith exceeding a threshold ; determining a refined implicit function for the sample domain, wherein the refined implicit function comprises a term calculated from the implicit function using a mesh-based modeling process and a term calculated using a meshless modeling technique ; and modeling the subterranean volume using the refined implicit function for the sample domain and the implicit function for an area outside of the sample domain in the digital model . receiving data representing a geology of the subterranean volume , wherein the data includes measurements acquired from sensors in the subterranean volume; calculating a mesh for a digital model of the subterranean volume ; generating the digital model using the mesh and the data, wherein generating the digital model comprises defining an implicit function for isostratigraphic surfaces of the subterranean volume ; calculating values for a plurality of data points in the model using the implicit function, wherein the plurality of data points is contained within a plurality of mesh elements of the mesh ; determining a discrepancy value for each of the individual data points by comparing the values to expected values corresponding to the respective data points ; identifying a sample domain in the digital model, wherein the sample domain includes at least one mesh element of the plurality of mesh elements, the at least one mesh element containing at least one data point with the discrepancy value associated therewith exceeding a threshold ; determining a refined implicit function for the sample domain, wherein the refined implicit function comprises a term calculated from the implicit function using a mesh-based modeling process and a term calculated using a meshless modeling technique ; and modeling the subterranean volume using the refined implicit function for the sample domain and the implicit function for an area outside of the sample domain in the digital model .
A recombinant antibody that specifically binds Leukemia Inhibitory Factor (LIF) comprising: a) a heavy chain complementarity determining region 1 (VH-CDR1) comprising an amino acid sequence set forth in SEQ ID NO: 2 (GFTFSHAW); b) a heavy chain complementarity determining region 2 (VH-CDR2) comprising an amino acid sequence set forth in SEQ ID NO: 10 (IKAKSDDYAT); c) a heavy chain complementarity determining region 3 (VH-CDR3) comprising an amino acid sequence set forth in SEQ ID NO: 15 (TCWEWDLDF); d) a light chain complementarity determining region 1 (VL-CDR1) comprising an amino acid sequence set forth in SEQ ID NO: 22 (QSLLDSDGHTY); e) a light chain complementarity determining region 2 (VL-CDR2) comprising an amino acid sequence set forth in SEQ ID NO: 26 (SVS); and f) a light chain complementarity determining region 3 (VL-CDR3) comprising an amino acid sequence set forth in SEQ ID NO: 29 (MQATHAPPYT), wherein the recombinant antibody specifically binds to LIF. a) a heavy chain complementarity determining region 1 (VH-CDR1) comprising an amino acid sequence set forth in SEQ ID NO: 2 (GFTFSHAW); b) a heavy chain complementarity determining region 2 (VH-CDR2) comprising an amino acid sequence set forth in SEQ ID NO: 10 (IKAKSDDYAT); c) a heavy chain complementarity determining region 3 (VH-CDR3) comprising an amino acid sequence set forth in SEQ ID NO: 15 (TCWEWDLDF); d) a light chain complementarity determining region 1 (VL-CDR1) comprising an amino acid sequence set forth in SEQ ID NO: 22 (QSLLDSDGHTY); e) a light chain complementarity determining region 2 (VL-CDR2) comprising an amino acid sequence set forth in SEQ ID NO: 26 (SVS); and f) a light chain complementarity determining region 3 (VL-CDR3) comprising an amino acid sequence set forth in SEQ ID NO: 29 (MQATHAPPYT),
A sanitary article , such as a sanitary napkin or a pantiliner, the sanitary article comprising a topsheet , a backsheet , an acquisition layer and an absorbent core , the absorbent core being arranged between the topsheet and the backsheet and the acquisition layer being arranged between the topsheet and the absorbent core , the sanitary article having an extension in a longitudinal direction (L) about a longitudinal centerline (L c ) and in a transverse direction (T), the sanitary article having first and second longitudinal side edges extending in the longitudinal direction (L) and front and rear transverse side edges extending in the transverse direction (T), the sanitary article being divided in a frontmost half and a rearmost half , as seen in the longitudinal direction (L), wherein the absorbent core in the frontmost half of the sanitary article is provided with a low-density front shaping element having a lower density than an adjacent region of the absorbent core , the low-density front shaping element comprising a shaping element first leg section and a shaping element second leg section , the frontmost half of the sanitary article furthermore comprising a V-shaped, or modified V-shaped, front embossed element comprising a first embossed leg section and a second embossed leg section , characterized in that, the shaping element first leg section and the shaping element second leg section tend towards each other and towards the front transverse side edge of the sanitary article to form a non-intersecting V-shape, the shaping element first leg section and the shaping element second leg section being arranged on a respective side of the longitudinal centerline (L c ) of the sanitary article , and in that the V-shaped front embossing element is provided only in the topsheet and in the acquisition layer and in that the low-density front shaping element and the V-shaped front embossing element partly or completely overlap each other.
Frame supporting soil-tilling tools , resting on main bearing wheels in constant contact with the ground (S), and comprising a central boom , a frame body integrated with an end of said boom , a central rear section extending perpendicularly to the longitudinal axis of said central boom and extending from the rear end of said frame body to the rear of said frame in the longitudinal axis of said boom , and being mounted to move relative to said frame body between at least: - a retracted position, in which said central rear section is remote from the rear end of said frame body , and - an advanced position, in which said central rear section is close to the rear end of said frame body , two lateral rear sections integrated with said frame body , and being mounted to move relative to said frame body between at least: - a transport position, in which said lateral rear sections are folded essentially along said boom , and - a work position, in which said lateral rear sections are distanced from said boom and extend on either side of said central rear section essentially in the extension thereof, said main bearing wheels , while remaining in contact with the ground (S), are movable relative to said frame body between at least: - a lowered position, in which the distance between said frame body and the ground (S) is reduced, the frame thus being in the work position, and - a raised position, in which the distance between said frame body and the ground (S) is increased, the frame thus being in a manoeuvring or transport position, said main bearing wheels moving towards the rear of the frame in order to switch from their lowered position, said frame thus being in the work position, to their raised position, said frame thus being in a manoeuvring or transport position, and vice versa. - a retracted position, in which said central rear section is remote from the rear end of said frame body , and - an advanced position, in which said central rear section is close to the rear end of said frame body , - a transport position, in which said lateral rear sections are folded essentially along said boom , and - a work position, in which said lateral rear sections are distanced from said boom and extend on either side of said central rear section essentially in the extension thereof, - a lowered position, in which the distance between said frame body and the ground (S) is reduced, the frame thus being in the work position, and - a raised position, in which the distance between said frame body and the ground (S) is increased, the frame thus being in a manoeuvring or transport position,
An acoustic treatment panel intended to be disposed on at least one wall of a turbojet in contact with a fluid flow, the panel comprising a first sheet , a second sheet (14, 14', 14") parallel to the first sheet and having a first face intended to be in contact with a fluid flow and a second face facing the first sheet , and acoustic treatment cells extending between the first and second sheets and each including an enclosure and a cavity delimited by the enclosure , the enclosure of each cell comprising two openings (184, 184") facing one another, at least one of the openings (184, 184") being coincident with an opening (184, 184") of the enclosure of an adjacent cell , characterized in that the second sheet (14, 14', 14") comprises a non-porous portion covering at least one first acoustic treatment cell and at least one porous portion disposed facing the at least one second acoustic treatment cell and comprising at least one perforation passing through the thickness of the second sheet (14, 14', 14") and allowing the sound waves to gain access to at least one second acoustic treatment cell and to said at least one first acoustic treatment cell via the openings (184, 184"). the enclosure of each cell comprising two openings (184, 184") facing one another, at least one of the openings (184, 184") being coincident with an opening (184, 184") of the enclosure of an adjacent cell , characterized in that the second sheet (14, 14', 14") comprises a non-porous portion covering at least one first acoustic treatment cell and at least one porous portion disposed facing the at least one second acoustic treatment cell and comprising at least one perforation passing through the thickness of the second sheet (14, 14', 14") and allowing the sound waves to gain access to at least one second acoustic treatment cell and to said at least one first acoustic treatment cell via the openings (184, 184").