mhurhangee/patent-ind-claim-en huggingface dataset:
A method for analyzing an investigated complex system of a specific system type, said complex system comprising a plurality of system components, the method comprising the steps of: (a) Providing (S1) a base virtual object oriented data model comprising abstract components corresponding to system components of the investigated complex system , wherein each abstract component of the base virtual object oriented data model comprises parameters and attributes of the respective system component of the investigated complex system ; (b) Mapping (S2) sensor tags of sensors deployed in the investigated complex system and/or event names of events received from the investigated complex system to the parameters of the abstract components of the provided base virtual object oriented data model to generate a dedicated data model for the system type of the investigated complex system ; and (c) Performing (S3) a failure mode and/or a root-cause analysis of the investigated complex system on the basis of the dedicated data model generated for the specific system type of the investigated complex system . (a) Providing (S1) a base virtual object oriented data model comprising abstract components corresponding to system components of the investigated complex system , wherein each abstract component of the base virtual object oriented data model comprises parameters and attributes of the respective system component of the investigated complex system ; (b) Mapping (S2) sensor tags of sensors deployed in the investigated complex system and/or event names of events received from the investigated complex system to the parameters of the abstract components of the provided base virtual object oriented data model to generate a dedicated data model for the system type of the investigated complex system ; and (c) Performing (S3) a failure mode and/or a root-cause analysis of the investigated complex system on the basis of the dedicated data model generated for the specific system type of the investigated complex system .
A display device comprising: a display panel (no); an optical guide portion surrounding the display panel, defining a touch area on the display panel, wherein a touch on the touch area is sensed by the display panel detecting interception of light having been output through the optical guide portion passing through the touch area, wherein the optical guide portion is disposed such that a gap is located between the optical guide portion and at least a portion of an outer edge of the display panel, and comprising a vibrator to vibrate the display panel; a drainage hole , and a drainage path to receive liquid that flows into the gap and to guide the received liquid to the drainage hole, wherein the drainage path is formed inside the optical guide portion to form a closed loop along the optical guide portion ; and wherein if a predetermined amount of light output through the optical guide portion is not detected, the vibrator vibrates the display panel. a display panel (no); an optical guide portion surrounding the display panel, defining a touch area on the display panel, wherein a touch on the touch area is sensed by the display panel detecting interception of light having been output through the optical guide portion passing through the touch area, wherein the optical guide portion is disposed such that a gap is located between the optical guide portion and at least a portion of an outer edge of the display panel, and comprising a vibrator to vibrate the display panel; a drainage hole , and a drainage path to receive liquid that flows into the gap and to guide the received liquid to the drainage hole, wherein the drainage path is formed inside the optical guide portion to form a closed loop along the optical guide portion ; and wherein if a predetermined amount of light output through the optical guide portion is not detected, the vibrator vibrates the display panel.
Micromechanical functional assembly comprising at least one first part formed by a first substrate topped by a first functional surface intended to enter into frictional contact with a second functional surface , said second functional surface belonging either to said first part or to at least one second part formed by a second substrate topped by said second functional surface , the second part constituting with said first part said functional assembly , the first functional surface and the second functional surface being formed by a first layer which is either integral with the first substrate and the second substrate or distinct from the first substrate and the second substrate , the first layer comprising ultrananocrystalline, nanocrystalline or microcrystalline diamond and being topped by a second layer including S and F atoms, the second layer having an average thickness of between 2 and 50 nm, preferably between 5 and 10 nm.
Electrical connection device intended for the electrical connection of a first pad and a second pad of an electrical power source and electrical contacts of heating modules , the first pad being at a first electrical potential that is different from that of the second pad , said connection device comprising: - at least one first electrically conductive tab , intended to be electrically connected to the first pad and to at least one electrical contact of at least one heating module ; - at least two second electrically conductive tabs , intended to be electrically connected to the second tab , and to other electrical contacts of at least one heating module , characterized in that the electrical connection device comprises: - N first conductive tabs , where N is a natural integer greater than or equal to 1; - 2N second conductive tabs ; wherein the connection device is electrically capable of electrically connecting the first pad and the second pad and the electrical contacts of a single heating module and that the connection device is also capable of electrically connecting the first pad and the second pad and the electrical contacts of a plurality of heating modules , the number of the electrical contacts of this heating module and of each of these heating modules being able to vary, and wherein the device comprises at least two assemblies of conductive tabs arranged side by side, each assembly comprising a first conductive tab arranged between two second conductive tabs . - at least one first electrically conductive tab , intended to be electrically connected to the first pad and to at least one electrical contact of at least one heating module ; - at least two second electrically conductive tabs , intended to be electrically connected to the second tab , and to other electrical contacts of at least one heating module , characterized in that the electrical connection device comprises: - N first conductive tabs , where N is a natural integer greater than or equal to 1; - 2N second conductive tabs ;
A high-hardness wear-resistant steel, comprising: 0.08 wt.% to 0.16 wt.% of carbon (C), 0.1 wt.% to 0.7 wt.% of silicon (Si), 0.8 wt.% to 1.6 wt.% of manganese (Mn), 0.05 wt.% or less of phosphorous (P), excluding 0 wt.%, 0.02 wt.% or less of sulfur (S), excluding 0 wt.%, 0.07 wt.% or less of aluminum (Al), excluding 0 wt.%, 0.1 wt.% to 1.0 wt.% of chromium (Cr), 0.01 wt.% to 0.1 wt.% of nickel (Ni), 0.01 wt.% to 0.2 wt.% of molybdenum (Mo), 50 ppm or less of boron (B), excluding 0 ppm, and 0.005 wt.% to 0.04 wt.% or less of cobalt (Co), further comprising: one or more among 0.1 wt.% or less of copper (Cu), excluding 0 wt.%, 0.02 wt.% or less of titanium (Ti), excluding 0 wt.%, 0.05 wt.% or less of niobium (Nb), excluding 0 wt.%, 0.02 wt.% or less of vanadium (V), excluding 0 wt.%, and 2 ppm to 100 ppm of calcium (Ca), further optionally comprising one or more among 0.05 wt.% or less of arsenic (As), excluding 0 wt.%, 0.05 wt.% or less of tin (Sn), excluding 0 wt.%, and 0.05 wt.% or less of tungsten (W), excluding 0 wt.%, and the balance of iron (Fe) and other inevitable impurities, and satisfying Relation 1, wherein a microstructure includes martensite in an area fraction of 97% or more, including 100% and bainite in an area fraction of 3% or less, including 0%, wherein the wear-resistant steel has a thickness of 40 mm or less, and Brinell hardness of 360 HB to 440 HB measured with a load of 3000 kgf and a tungsten indenter having a diameter of 10 mm, 360 ≤ 869 × C + 295 ≤ 440 where [C] means weight%.
A method of transmitting resource allocation information by a base station in a wireless communication system, the method comprising: generating (S101) second resource allocation information scheduling a second bandwidth; transmitting (S102), to a user equipment, UE, the second resource allocation information through a first bandwidth; and transmitting, to the UE, through the second bandwidth, a data channel scheduled by the second resource allocation information, wherein the second resource allocation information is generated with the same bit size as a bit size of first resource allocation information which is used for scheduling the first bandwidth. generating (S101) second resource allocation information scheduling a second bandwidth; transmitting (S102), to a user equipment, UE, the second resource allocation information through a first bandwidth; and transmitting, to the UE, through the second bandwidth, a data channel scheduled by the second resource allocation information, wherein the second resource allocation information is generated with the same bit size as a bit size of first resource allocation information which is used for scheduling the first bandwidth.
A basketball goal system comprising: a) a vertical support comprising a pole ; b) a backboard support assembly having a top arm with a proximal end coupled to a backboard and a distal end rotatably connected to the pole , and a bottom arm with a proximal end coupled to a backboard and a middle section rotatably coupled to the pole ; c) an elevator assembly comprising a lower strut having a lower end affixed to the pole ; an upper strut having an upper end rotatably connected to a distal end of the bottom arm characterized in that the elevator assembly further comprises a spring assembly having a spring expandably coiled around the lower strut and a housing containing the spring ; the upper strut having a lower end coupled to the housing ; and i) a handle pivotally attached to the vertical support and pivotally attached to the housing , and having a spring trigger configured to expand the spring to release a normal force on said lower strut when triggered and contract the spring to apply a normal force on the lower strut when released. a) a vertical support comprising a pole ; b) a backboard support assembly having a top arm with a proximal end coupled to a backboard and a distal end rotatably connected to the pole , and a bottom arm with a proximal end coupled to a backboard and a middle section rotatably coupled to the pole ; c) an elevator assembly comprising a lower strut having a lower end affixed to the pole ; an upper strut having an upper end rotatably connected to a distal end of the bottom arm characterized in that the elevator assembly further comprises a spring assembly having a spring expandably coiled around the lower strut and a housing containing the spring ; the upper strut having a lower end coupled to the housing ; and i) a handle pivotally attached to the vertical support and pivotally attached to the housing , and having a spring trigger configured to expand the spring to release a normal force on said lower strut when triggered and contract the spring to apply a normal force on the lower strut when released. an upper strut having an upper end rotatably connected to a distal end of the bottom arm characterized in that the elevator assembly further comprises a spring assembly having a spring expandably coiled around the lower strut and a housing containing the spring ; the upper strut having a lower end coupled to the housing ; and i) a handle pivotally attached to the vertical support and pivotally attached to the housing , and having a spring trigger configured to expand the spring to release a normal force on said lower strut when triggered and contract the spring to apply a normal force on the lower strut when released. i) a handle pivotally attached to the vertical support and pivotally attached to the housing , and having a spring trigger configured to expand the spring to release a normal force on said lower strut when triggered and contract the spring to apply a normal force on the lower strut when released.
A pharmaceutical composition for use in treatment of cancer, comprising a lipid particle composition: wherein the lipid particle composition comprises panobinostat or a salt thereof, wherein a lipid particle contains a phospholipid and cholesterol. wherein the lipid particle composition comprises panobinostat or a salt thereof, wherein a lipid particle contains a phospholipid and cholesterol.
Method for joining a first component to a second component at a joint of the first component , the first component having at least a flat first component , a flat second component and a plastics-material-containing intermediate layer arranged at least in regions between the two components , the method comprising the following steps: a) heating the first component and/or the second component in the region of the joint ; and b) exerting a compressive force on the first component and/or the second component in the region of the joint until the intermediate layer has been displaced in the region of the joint between the first component and the second component and contact is established between the first component and the second component in the region of the joint ; and c) applying an electrical voltage to the first component and the second component in the region of the joint until the first component and the second component adhere to one another in the region of the joint ; and d) connecting the first component to the second component in the region of the joint ; characterized in that during step c) a temperature in the contact region between the first component and the second component does not rise above a predetermined temperature threshold , the temperature threshold being less than the melting point of a material of the first component and less than the melting point of a material of the second component , method steps a) to c) being referred to as method steps for joint preparation, step d) comprising a subsequent joining process between the first multilayer component and a further component, namely the second component . a) heating the first component and/or the second component in the region of the joint ; and b) exerting a compressive force on the first component and/or the second component in the region of the joint until the intermediate layer has been displaced in the region of the joint between the first component and the second component and contact is established between the first component and the second component in the region of the joint ; and c) applying an electrical voltage to the first component and the second component in the region of the joint until the first component and the second component adhere to one another in the region of the joint ; and d) connecting the first component to the second component in the region of the joint ;
An isolated antibody or an antigen-binding portion thereof which binds to human OX40 comprising: (a) a heavy chain variable region CDR1 comprising the amino acid sequence of SEQ ID NO: 25; (b) a heavy chain variable region CDR2 comprising the amino acid sequence of SEQ ID NO: 26; (c) a heavy chain variable region CDR3 comprising the amino acid sequence of SEQ ID NO. 27; (d) a light chain variable region CDR1 comprising the amino acid sequence of SEQ ID NO. 32; (e) a light chain variable region CDR2 comprising the amino acid sequence of SEQ ID NO. 33; and (f) a light chain variable region CDR3 comprising the amino acid sequence of SEQ ID NO. 34.
A fractal flow device (100, 100', 100", 100′′′), comprising: at least one fractal pack , the at least one fractal pack comprising: at least two fractal cells , each fractal cell comprising a fractal distributor , a chamber adjacent the fractal distributor and comprising a fluid processing medium, and a fractal collector adjacent the chamber , the fractal distributor , the chamber , and the fractal collector in fluid communication with one another, a fastening element securing the at least two fractal cells at opposing ends of the at least one fractal pack , each fractal cell of the at least two fractal cells maintained in direct contact with at least one other fractal cell of the at least two fractal cells by the fastening element , and the at least two fractal cells comprising shoulders configured to position the at least two fractal cells in a horizontal direction on a support structure ; wherein the fractal distributor comprises three fractal plates , a first fractal plate comprising one fractal plate inlet and four fractal plate outlets , a second fractal plate comprising four fractal plate inlets and sixteen fractal plate outlets , and a third fractal plate comprising sixteen fractal plate inlets and two hundred fifty-six fractal plate outlets . at least one fractal pack , the at least one fractal pack comprising: at least two fractal cells , each fractal cell comprising a fractal distributor , a chamber adjacent the fractal distributor and comprising a fluid processing medium, and a fractal collector adjacent the chamber , the fractal distributor , the chamber , and the fractal collector in fluid communication with one another, a fastening element securing the at least two fractal cells at opposing ends of the at least one fractal pack , each fractal cell of the at least two fractal cells maintained in direct contact with at least one other fractal cell of the at least two fractal cells by the fastening element , and the at least two fractal cells comprising shoulders configured to position the at least two fractal cells in a horizontal direction on a support structure ; wherein the fractal distributor comprises three fractal plates , a first fractal plate comprising one fractal plate inlet and four fractal plate outlets , a second fractal plate comprising four fractal plate inlets and sixteen fractal plate outlets , and a third fractal plate comprising sixteen fractal plate inlets and two hundred fifty-six fractal plate outlets .
A method for generating a radiotherapy treatment plan parameter, the method comprising: receiving , by processor circuitry , radiotherapy treatment plan information; processing , by the processor circuitry , the radiotherapy treatment plan information to estimate one or more radiotherapy treatment plan parameters based on a process that depends on the output of a subprocess that estimates a derivative of a dose calculation, wherein the derivative of the dose calculation is used in an optimization process or a machine learning model that is based on a loss function that utilizes the derivative of the dose calculation, wherein the derivative of the dose calculation is computed with respect to at least one of one or more radiation parameters or one or more geometry parameters of a radiotherapy treatment device; and generating , by the processor circuitry , a radiotherapy treatment plan using the estimated one or more radiotherapy treatment plan parameters. receiving , by processor circuitry , radiotherapy treatment plan information; processing , by the processor circuitry , the radiotherapy treatment plan information to estimate one or more radiotherapy treatment plan parameters based on a process that depends on the output of a subprocess that estimates a derivative of a dose calculation, wherein the derivative of the dose calculation is used in an optimization process or a machine learning model that is based on a loss function that utilizes the derivative of the dose calculation, wherein the derivative of the dose calculation is computed with respect to at least one of one or more radiation parameters or one or more geometry parameters of a radiotherapy treatment device; and generating , by the processor circuitry , a radiotherapy treatment plan using the estimated one or more radiotherapy treatment plan parameters.
A crosslinked composition obtained from a polymer blend comprising ethylene vinyl acetate copolymer (EVA), nitrile rubber (NBR) and crosslinking agent, characterized in that said polymer blend further comprises: - a reactive polymer containing at least one nucleophilic or electrophilic functional group; and - a reactive compound selected from amphiphilic compound containing at least one nucleophilic or electrophilic functional group that can chemically react with said nucleophilic or electrophilic functional group of reactive polymer, the reactive compound being different from the reactive polymer, and in that the polymer blend comprises 1 to 20 parts by weight of reactive polymer, 1 to 20 parts by weight of reactive compound and 0.1 to 10 parts by weight of crosslinking agent, said amounts being expressed with respect to 100 parts of sum of EVA and NBR. - a reactive polymer containing at least one nucleophilic or electrophilic functional group; and - a reactive compound selected from amphiphilic compound containing at least one nucleophilic or electrophilic functional group that can chemically react with said nucleophilic or electrophilic functional group of reactive polymer, the reactive compound being different from the reactive polymer, and in that the polymer blend comprises 1 to 20 parts by weight of reactive polymer, 1 to 20 parts by weight of reactive compound and 0.1 to 10 parts by weight of crosslinking agent, said amounts being expressed with respect to 100 parts of sum of EVA and NBR.
A tissue resecting device , comprising: an assembly of tubular first and second members , the second member having a resecting element at a distal end thereof; a handle ; a motor drive system carried in the handle and a controller configured for moving the second member across a window of the first member; the motor drive system including a motor and a motor shaft driving a rotation-to-linear motion conversion mechanism , wherein a distal edge of the second member moves back and forth across the window of the first member from a window open position to a window closed position; wherein the controller includes an algorithm configured to stop reciprocation of the second member with the distal edge of the second member at a stop position in which the tissue-receiving window is partially open; wherein the rotation-to-linear motion conversion mechanism includes a rotatable drive collar ; wherein the tissue resecting device further comprises a microswitch , wherein the microswitch engages an engagement feature of the drive collar once each revolution of the drive collar; characterised in that the engagement feature is an indent in the drive collar. an assembly of tubular first and second members , the second member having a resecting element at a distal end thereof; a handle ; a motor drive system carried in the handle and a controller configured for moving the second member across a window of the first member; the motor drive system including a motor and a motor shaft driving a rotation-to-linear motion conversion mechanism , wherein a distal edge of the second member moves back and forth across the window of the first member from a window open position to a window closed position; wherein the controller includes an algorithm configured to stop reciprocation of the second member with the distal edge of the second member at a stop position in which the tissue-receiving window is partially open; wherein the rotation-to-linear motion conversion mechanism includes a rotatable drive collar ; wherein the tissue resecting device further comprises a microswitch , wherein the microswitch engages an engagement feature of the drive collar once each revolution of the drive collar; characterised in that the engagement feature is an indent in the drive collar.