mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a second network node for performing a transmission in a wireless communications network , wherein the second network node and at least one first network node in the wireless communications network performs transmissions using contention-based transmission resources of the same frequency, the method comprising: obtaining indications of a maximum transmit power associated with two or more first network nodes ; determining a single overall indication of a first maximum transmission power for the transmission based on the obtained indications of the maximum transmit power associated with the two or more first network nodes; and performing the transmission based on the first maximum transmission power when the contention-based transmission resources of the same frequency is available for transmissions by the at least one first network node in the wireless communications network . obtaining indications of a maximum transmit power associated with two or more first network nodes ; determining a single overall indication of a first maximum transmission power for the transmission based on the obtained indications of the maximum transmit power associated with the two or more first network nodes; and performing the transmission based on the first maximum transmission power when the contention-based transmission resources of the same frequency is available for transmissions by the at least one first network node in the wireless communications network .
A method of removing excess material from a dental appliance, the method comprising the steps of: (A) providing at least one 5-axis computer numerical control (CNC) machine and at least one administrator computing system , wherein the 5-axis CNC machine includes an automated tool ; (B) providing at least one three-dimensional model managed by the administrator computing system , wherein the 3D model is a virtual representation of at least one dental appliance ; (C) executing a line assessment process by the administrator computing system by outputting a trim line with the line assessment process, wherein the 3D model and the dental appliance are each delineated into a useful portion and at least one excess portion by the trim line ; (D) generating a tool path for the automated tool in accordance to the trim line and the 3D model by administrator computing system ; (E) relaying the tool path from the administrator computing system to the 5-axis CNC machine ; (F) loading the dental appliance into the 5-axis CNC machine ; (G) machining the dental appliance along the trim line with the automated tool , while guiding the automated tool along the tool path with the 5-axis CNC machine ; (H) unloading the useful portion of the dental appliance as a finished product from the 5-axis CNC machine ; and executing steps (A) through (H) as a sequential set of automative steps. (A) providing at least one 5-axis computer numerical control (CNC) machine and at least one administrator computing system , wherein the 5-axis CNC machine includes an automated tool ; (B) providing at least one three-dimensional model managed by the administrator computing system , wherein the 3D model is a virtual representation of at least one dental appliance ; (C) executing a line assessment process by the administrator computing system by outputting a trim line with the line assessment process, wherein the 3D model and the dental appliance are each delineated into a useful portion and at least one excess portion by the trim line ; (D) generating a tool path for the automated tool in accordance to the trim line and the 3D model by administrator computing system ; (E) relaying the tool path from the administrator computing system to the 5-axis CNC machine ; (F) loading the dental appliance into the 5-axis CNC machine ; (G) machining the dental appliance along the trim line with the automated tool , while guiding the automated tool along the tool path with the 5-axis CNC machine ; (H) unloading the useful portion of the dental appliance as a finished product from the 5-axis CNC machine ; and
Electrowetting element comprising a first electrode layer having a hydrophobic surface and a second electrode layer opposite said hydrophobic surface , a containment space formed between said first and said second electrode layer, wherein said containment space comprises at least one polar liquid having a first conductivity and at least one non-polar liquid having a second conductivity, said polar liquid and non-polar liquid being immiscible forming a polar non-polar liquid interface, and wherein said electrowetting element further comprises powering means for controllably powering said first and second electrode layers for rearranging said polar liquid relative to said non-polar liquid for switching said electrowetting element between an optically transmissive and optically non-transmissive state, wherein at least one substance comprised of particles is present in said containment space , characterized in that , said polar liquid comprises said at least one substance, the particles of which having a particle size matching an average void size of voids present in said hydrophobic surface , for clogging one or more of said voids .
A method of queuing a first command (CMD1) requested by a first program and a second command (CMD2) requested by a second program, the first program being associated with a first virtual time (vta) and the second program being associated with a second virtual time (vtb), wherein each virtual time (vta, vtb) refers to a value determined by dividing a total amount of provided input/output services of the respective program by respective weights of each program and then leveling, the method comprising: comparing the first virtual time (vta) of the first command (CMD1) with the second virtual time (vtb) of the second command (CMD2), and obtaining a comparison result; determining a standard global virtual time (vtg) from the first virtual time (vta) and the second virtual time (vtb) wherein the global virtual time (vtg) is a minimum of the first virtual time (vta) and the second virtual time (vtb); and sending each of the first (CMD1) and second (CMD2) commands to one of a first priority class queue, a second priority class queue, or a third priority class queue, based on a comparison of a difference between the first virtual time (vta) and the global virtual time (vtg) with a first threshold, and a comparison of a difference between the second virtual time (vtb) and the global virtual time (vtg) with the first threshold, wherein each of the first to third priority class queues has processing speeds that differ from each other, and commands in each of the first to third priority class queues are performed on the basis of the respective processing speed. comparing the first virtual time (vta) of the first command (CMD1) with the second virtual time (vtb) of the second command (CMD2), and obtaining a comparison result; determining a standard global virtual time (vtg) from the first virtual time (vta) and the second virtual time (vtb) wherein the global virtual time (vtg) is a minimum of the first virtual time (vta) and the second virtual time (vtb); and sending each of the first (CMD1) and second (CMD2) commands to one of a first priority class queue, a second priority class queue, or a third priority class queue, based on a comparison of a difference between the first virtual time (vta) and the global virtual time (vtg) with a first threshold, and a comparison of a difference between the second virtual time (vtb) and the global virtual time (vtg) with the first threshold, wherein each of the first to third priority class queues has processing speeds that differ from each other, and commands in each of the first to third priority class queues are performed on the basis of the respective processing speed.
A display apparatus comprising: a first substrate comprising a plurality of light emitting diodes regularly arranged thereon; a second substrate comprising a TFT panel part comprising a plurality of TFTs driving the plurality of light emitting diodes; and a third substrate comprising a light converter converting light emitted from the first substrate, wherein the first substrate and the second substrate are coupled to each other so as to face each other; the light emitting diodes are electrically connected to the TFTs, respectively; the first substrate and the third substrate are coupled to each other so as to face each other; and light emitted from the plurality of light emitting diodes is converted into at least one of blue light, green light, and red light through the light converter; wherein the first substrate further comprises: a plurality of support substrates; the plurality of light emitting diodes disposed on the plurality of support substrates, respectively; and a blocking portion disposed between the plurality of support substrates and blocking light emitted from the plurality of light emitting diodes. a first substrate comprising a plurality of light emitting diodes regularly arranged thereon; a second substrate comprising a TFT panel part comprising a plurality of TFTs driving the plurality of light emitting diodes; and a third substrate comprising a light converter converting light emitted from the first substrate, wherein the first substrate and the second substrate are coupled to each other so as to face each other; the light emitting diodes are electrically connected to the TFTs, respectively; the first substrate and the third substrate are coupled to each other so as to face each other; and light emitted from the plurality of light emitting diodes is converted into at least one of blue light, green light, and red light through the light converter; wherein the first substrate further comprises: a plurality of support substrates; the plurality of light emitting diodes disposed on the plurality of support substrates, respectively; and a blocking portion disposed between the plurality of support substrates and blocking light emitted from the plurality of light emitting diodes. a plurality of support substrates; the plurality of light emitting diodes disposed on the plurality of support substrates, respectively; and a blocking portion disposed between the plurality of support substrates and blocking light emitted from the plurality of light emitting diodes.
A method for operating a fiber laser system comprising the steps of: - transmitting laser generated light propagating to and backreflected light propagating from an external worksite through an optical protective component mounted to an end of a laser head which faces the worksite; - coupling return light including a portion of the backreflected light through the optical protective component into an optical fiber located proximate to the protective component; - guiding the coupled return light along the optical fiber to a sensor which is operative to determine a measure of a light power thereof; and - operating the laser system based upon a result of the determination of the light power, characterized in that, - the optical fiber contacts a periphery of the optical protective component substantially continuously thereabout, and flexibly extends between the sensor and the optical protective component allowing an operable displacement thereof; - the method further comprising the steps of: - receiving the portion of return light in at least a second sensor secured upstream of the optical protective component in the laser head; and - operably guiding the portion of the return light along a data path to a data processor . - transmitting laser generated light propagating to and backreflected light propagating from an external worksite through an optical protective component mounted to an end of a laser head which faces the worksite; - coupling return light including a portion of the backreflected light through the optical protective component into an optical fiber located proximate to the protective component; - guiding the coupled return light along the optical fiber to a sensor which is operative to determine a measure of a light power thereof; and - operating the laser system based upon a result of the determination of the light power, - the optical fiber contacts a periphery of the optical protective component substantially continuously thereabout, and flexibly extends between the sensor and the optical protective component allowing an operable displacement thereof; - the method further comprising the steps of: - receiving the portion of return light in at least a second sensor secured upstream of the optical protective component in the laser head; and - operably guiding the portion of the return light along a data path to a data processor .
Heat-sealable coating system suitable for the sealing of various types of substrates, comprising a film-forming dispersion, characterized in that said dispersion comprises between 10% and 60% by weight of a polyester or polyester mixture as polymer type A, between 10% and 60% by weight of a poly (meth) acrylate as polymer type B, between 1% and 20% by weight of a graft copolymer of polymer type A and polymer type B as polymer type AB, between 1% and 30% by weight of a polyolefin as polymer type C, and between 1 and 35% by weight of a graft copolymer as polymer type CD, composed of polymer type C and of a poly(meth)acrylate as polymer type D, based in each case on the total mass of the polymer types A, B, C, AB, and CD, that the proportion of the polymer type C, inclusive of the proportions in polymer type CD, based on said total mass, is between 5 and 40% by weight, that from 10% to 40% of the carbons of the main chain of the polymer type C are tertiary carbon atoms, that component C comprises a proportion of between 20 and 70% by weight of repeating ethylene units, and its weight-average molecular weight M w is between 10 000 and 250 000, and that the solids content of the dispersion is between 25 and 70% by weight. between 10% and 60% by weight of a polyester or polyester mixture as polymer type A, between 10% and 60% by weight of a poly (meth) acrylate as polymer type B, between 1% and 20% by weight of a graft copolymer of polymer type A and polymer type B as polymer type AB, between 1% and 30% by weight of a polyolefin as polymer type C, and between 1 and 35% by weight of a graft copolymer as polymer type CD, composed of polymer type C and of a poly(meth)acrylate as polymer type D, based in each case on the total mass of the polymer types A, B, C, AB, and CD, that the proportion of the polymer type C, inclusive of the proportions in polymer type CD, based on said total mass, is between 5 and 40% by weight, that from 10% to 40% of the carbons of the main chain of the polymer type C are tertiary carbon atoms, that component C comprises a proportion of between 20 and 70% by weight of repeating ethylene units, and its weight-average molecular weight M w is between 10 000 and 250 000, and that the solids content of the dispersion is between 25 and 70% by weight.
A diamond powder comprising diamond particles having an average particle size of no more than 20 μm and a vacancy or impurity-vacancy point defect concentration of at least 1 ppm, wherein at least 70% of the volume of diamond in the powder is formed from a single crystal growth sector.
A battery housing comprising: a first housing portion ; a lid assembly mateable with said first housing portion , said lid assembly having a tray and defining a powder chamber with a flame-retardant powder therein, said powder chamber having a plurality of openings sized to permit said powder to be expelled by pressure in said powder chamber; said first housing portion and said lid assembly , when mated, providing: a battery chamber dimensioned to hold at least one battery; and a venting passageway from said battery chamber to said powder chamber, wherein thermal runaway of a battery within said battery chamber pressurizes said powder chamber to expel powder through said openings . a first housing portion ; a lid assembly mateable with said first housing portion , said lid assembly having a tray and defining a powder chamber with a flame-retardant powder therein, said powder chamber having a plurality of openings sized to permit said powder to be expelled by pressure in said powder chamber; said first housing portion and said lid assembly , when mated, providing: a battery chamber dimensioned to hold at least one battery; and a venting passageway from said battery chamber to said powder chamber, wherein thermal runaway of a battery within said battery chamber pressurizes said powder chamber to expel powder through said openings . a battery chamber dimensioned to hold at least one battery; and a venting passageway from said battery chamber to said powder chamber, wherein thermal runaway of a battery within said battery chamber pressurizes said powder chamber to expel powder through said openings .
Method for preventing a collision between an autonomous vehicle (A) and a user (B) in a movement range of the autonomous vehicle, comprising the steps: - receiving a time-dependent, planned path (P1) of the autonomous vehicle (A) and a time-dependent, planned path (P2) of the user (B), - determining a time-dependent path network by means of a path network unit , wherein the time-dependent path network describes the planned paths (P1, P2), - determining collision information which describes an overlap of the planned paths (P1, P2) in the time-dependent path network, - determining a safe zone for the user on the basis of the collision information, wherein the safe zone describes an area in the movement range which is safe for the user (B) with respect to a collision with the autonomous vehicle (A), and - providing a display for the user (B) by means of a display device , wherein the display describes the safe zone , characterized in that - in addition an unsafe zone , in which there is a risk of a collision between the autonomous vehicle (A) and the user (B), and a zone of increased attention between the safe zone and the unsafe zone are determined on the basis of the collision information, and the unsafe zone and the zone of increased attention are displayed to the user (B). - receiving a time-dependent, planned path (P1) of the autonomous vehicle (A) and a time-dependent, planned path (P2) of the user (B), - determining a time-dependent path network by means of a path network unit , wherein the time-dependent path network describes the planned paths (P1, P2), - determining collision information which describes an overlap of the planned paths (P1, P2) in the time-dependent path network, - determining a safe zone for the user on the basis of the collision information, wherein the safe zone describes an area in the movement range which is safe for the user (B) with respect to a collision with the autonomous vehicle (A), and - providing a display for the user (B) by means of a display device , wherein the display describes the safe zone , characterized in that - in addition an unsafe zone , in which there is a risk of a collision between the autonomous vehicle (A) and the user (B), and a zone of increased attention between the safe zone and the unsafe zone are determined on the basis of the collision information, and the unsafe zone and the zone of increased attention are displayed to the user (B).
An anti-EphA3 antibody that clusters and activates EphA3 and competes with mAb IIIA4 for binding to EphA3 for use in inhibiting growth of a solid tumor that expresses EphA3 on the tumor vasculature and has fewer than 25% of cells that have detectable expression of EphA3 on the tumor cell surface, wherein mAb IIIA4 comprises a V H CDR1 sequence SYWIN, a V H CDR2 sequence DIYPGSGNTNYDEKFKR, a V H CDR3 sequence SGYYEDFDS, a V L CDR1 sequence RASQEISGYLG, a V L CDR2 sequence AASTLDS, and a V L CDR3 sequence VQYANYPYT, wherein the antibody has a human Fc region that clusters EphA3 and/or is a multivalent antibody, and wherein the level of EphA3 protein expression in the solid tumor is less than 2 times the background from a control cell that does not express EphA3.
A controlled lamp device comprising a lamp housing with a light exit opening , a sensor unit for detecting a contactless manual intervention (15, 16-1, 16-2, 17) of an operator of the lamp device in an intervention region (5, 5-1, 5-2), and an evaluation and control device for evaluating the intervention of the operator detected by the sensor unit and for influencing a control parameter for the operation of the lamp device depending on a result of the evaluation, wherein the sensor unit is provided in and/or on the lamp housing laterally adjacent to the light exit opening , the evaluation and control device is designed such that it influences the control parameter if the evaluation carried out by the evaluation and control device shows that a predefined path in an intervention region has been covered in a gesture-like manner during the intervention of the operator; and the control parameter for the operation of the lamp device influences at least one operating state of the lamp device, which is selected from the group of a lamp activation, a light intensity of the light emitted by the lamp device, a color value of the light emitted by the lamp device, and combinations of these, characterized in that the evaluation and control device is designed such that it influences the control parameter if the evaluation carried out by the evaluation and control device shows that during the intervention of the operator the predefined path in the intervention region has been covered in a gesture-like manner with a predefined velocity characteristic, and that the predefined path defines a spatial sub-region within the intervention region, in which the gesture executed by the operator must be located, in order for the evaluation and control device to influence the control parameter.
An apparatus comprising: a microneedle assembly comprising a base surface , a plurality of microneedles extending outwardly from the base surface , and a pathway at least partially defined by a microneedle of the microneedle assembly ; and characterised by a membrane draped over at least a portion of the plurality of microneedles , wherein the membrane comprises an aperture in fluid communication with the pathway , at least a portion of the membrane is spaced apart from the microneedle so that a gap is defined between the membrane and the microneedle , and the gap extends both at least partially around the microneedle and at least partially along the microneedle . a microneedle assembly comprising a base surface , a plurality of microneedles extending outwardly from the base surface , and a pathway at least partially defined by a microneedle of the microneedle assembly ; and characterised by a base surface , a plurality of microneedles extending outwardly from the base surface , and a pathway at least partially defined by a microneedle of the microneedle assembly ; and characterised by a membrane draped over at least a portion of the plurality of microneedles , wherein the membrane comprises an aperture in fluid communication with the pathway , at least a portion of the membrane is spaced apart from the microneedle so that a gap is defined between the membrane and the microneedle , and the gap extends both at least partially around the microneedle and at least partially along the microneedle . the membrane comprises an aperture in fluid communication with the pathway , at least a portion of the membrane is spaced apart from the microneedle so that a gap is defined between the membrane and the microneedle , and the gap extends both at least partially around the microneedle and at least partially along the microneedle .