mhurhangee/patent-ind-claim-en huggingface dataset:
A metal porous body having a frame of a three-dimensional network structure, the frame being formed of a plurality of bone members connected to each other, the plurality of bone members defining openings in a surface of the metal porous body, the plurality of bone members defining voids inside the metal porous body, the openings and the voids communicating with each other, wherein the bone members are hollow by virtue of having cavities inside thereof, a porosity being from 5 volume % to 10 volume %, wherein the porosity (volume %) is calculated by { 1-(apparent mass of metal porous body per unit volume)/(true specific gravity of metal porous body)} × 100, wherein the "true specific gravity of metal porous body" means the specific gravity of the metal constituting the metal porous body, and a density being from 6 g/cm 3 to 8.5 g/cm 3 , wherein the density (g/cm 3 ) is calculated by dividing the mass (g) of the metal porous body by the apparent volume (cm 3 ), wherein the "apparent volume" is the volume of the metal porous body estimated from the outer shape thereof. the frame being formed of a plurality of bone members connected to each other, the plurality of bone members defining openings in a surface of the metal porous body, the plurality of bone members defining voids inside the metal porous body, the openings and the voids communicating with each other, wherein the bone members are hollow by virtue of having cavities inside thereof, a porosity being from 5 volume % to 10 volume %, wherein the porosity (volume %) is calculated by { 1-(apparent mass of metal porous body per unit volume)/(true specific gravity of metal porous body)} × 100, wherein the "true specific gravity of metal porous body" means the specific gravity of the metal constituting the metal porous body, and a density being from 6 g/cm 3 to 8.5 g/cm 3 , wherein the density (g/cm 3 ) is calculated by dividing the mass (g) of the metal porous body by the apparent volume (cm 3 ), wherein the "apparent volume" is the volume of the metal porous body estimated from the outer shape thereof.
A method for resource allocation of a vehicle network, adapted to a user equipment (UE) supporting a centralized network, the method comprising: sensing (S402) available resource blocks, further referred to as RBs, to generate a first resource indicator labeling location information of the available RBs; the method being characterized in further comprising: receiving (S404) a second resource indicator sent by each of at least one neighboring device , wherein the second resource indicator labels location information of available RBs sensed by each of the at least one neighboring device ; combining (S406) the first resource indicator and the second resource indicators into a cooperative resource indicator; sending (S408) the cooperative resource indicator to a base station serving the centralized network and receiving location information of a dedicated RB assigned by the base station according to the cooperative resource indicator; and sending (S410) messages via the dedicated RB. receiving (S404) a second resource indicator sent by each of at least one neighboring device , wherein the second resource indicator labels location information of available RBs sensed by each of the at least one neighboring device ; combining (S406) the first resource indicator and the second resource indicators into a cooperative resource indicator; sending (S408) the cooperative resource indicator to a base station serving the centralized network and receiving location information of a dedicated RB assigned by the base station according to the cooperative resource indicator; and sending (S410) messages via the dedicated RB.
A multilayer composition comprising: a first layer comprising a first material which is partially impregnated with a second material wherein the first material is a gel material and the second material is a flexible porous material, and a second layer comprising a low friction material wherein the composition is adapted so that the first layer is in fluid flow communication with a wound or skin of a wearer in use, wherein the gel in the first layer comprises a hydrogel, which in use contacts a wound, and wherein the coat weight of the hydrogel is between 900 - 1400 g/m2; and wherein the second material which is partially impregnated into the first material is a porous sheet comprises a non-woven material having a gram weight of between 20 and 30 g/m 2 ; and wherein the composition does not include an additional distinct/discrete layer between the first and second layers. a first layer comprising a first material which is partially impregnated with a second material wherein the first material is a gel material and the second material is a flexible porous material, and a second layer comprising a low friction material wherein the composition is adapted so that the first layer is in fluid flow communication with a wound or skin of a wearer in use, wherein the gel in the first layer comprises a hydrogel, which in use contacts a wound, and wherein the coat weight of the hydrogel is between 900 - 1400 g/m2; and wherein the second material which is partially impregnated into the first material is a porous sheet comprises a non-woven material having a gram weight of between 20 and 30 g/m 2 ; and wherein the composition does not include an additional distinct/discrete layer between the first and second layers. wherein the gel in the first layer comprises a hydrogel, which in use contacts a wound, and wherein the coat weight of the hydrogel is between 900 - 1400 g/m2; and wherein the second material which is partially impregnated into the first material is a porous sheet comprises a non-woven material having a gram weight of between 20 and 30 g/m 2 ; and wherein the composition does not include an additional distinct/discrete layer between the first and second layers.
A method for supporting network isolation in a multi-tenant cluster environment, comprising: supporting one or more tenants within the multi-tenant cluster environment; associating each of the one or more tenants with a partition of a plurality of partitions; associating each of the plurality of partitions which have been associated with a tenant with one or more nodes of a plurality of nodes, each of the plurality of nodes being associated with a leaf switch of a plurality of switches, the plurality of switches comprising a plurality of leaf switches and at least one switch at another level within a fat-tree topology; marking each of the plurality of partitions with a policy parameter of a plurality of policy parameters; assigning each node of the plurality of nodes a partitioning order, wherein the partitioning order is at least based on the policy parameter marked on the respective partition associated with said each node; and based at least upon the marking of the partition of the plurality of partitions, generating one or more linear forwarding tables in all switches for local identifiers associated with each end node among the plurality of nodes, for use in the multi-tenant cluster environment. supporting one or more tenants within the multi-tenant cluster environment; associating each of the one or more tenants with a partition of a plurality of partitions; associating each of the plurality of partitions which have been associated with a tenant with one or more nodes of a plurality of nodes, each of the plurality of nodes being associated with a leaf switch of a plurality of switches, the plurality of switches comprising a plurality of leaf switches and at least one switch at another level within a fat-tree topology; marking each of the plurality of partitions with a policy parameter of a plurality of policy parameters; assigning each node of the plurality of nodes a partitioning order, wherein the partitioning order is at least based on the policy parameter marked on the respective partition associated with said each node; and based at least upon the marking of the partition of the plurality of partitions, generating one or more linear forwarding tables in all switches for local identifiers associated with each end node among the plurality of nodes, for use in the multi-tenant cluster environment.
An image display device comprising: a main body ; an image display component ; a projection component configured to form an optical image corresponding to an image displayed by the image display component ; a distance measurement component having a detector that is configured to detect an indicator for performing a touch operation relative to the optical image to acquire distance information from the detector to the indicator; a controller configured to determine whether or not the indicator has performed the touch operation relative to the optical image based on the distance information and movement information of at least one of the image display component and the projection component ; and a display unit including a display unit housing that supports the image display component , the projection component , and the distance measurement component ; wherein the display unit is provided with a rotation mechanism and a rotation driver ; characterized in that the display unit housing is disposed inside the main body ; the distance measurement component , the display unit and the projection component are integrally movable together; and the rotation mechanism is attached to the main body , and is configured so that the projection component , the distance measurement component and the image display component are integrally rotated by the rotation driver with respect to the main body . a main body ; an image display component ; a projection component configured to form an optical image corresponding to an image displayed by the image display component ; a distance measurement component having a detector that is configured to detect an indicator for performing a touch operation relative to the optical image to acquire distance information from the detector to the indicator; a controller configured to determine whether or not the indicator has performed the touch operation relative to the optical image based on the distance information and movement information of at least one of the image display component and the projection component ; and a display unit including a display unit housing that supports the image display component , the projection component , and the distance measurement component ; wherein the display unit is provided with a rotation mechanism and a rotation driver ; characterized in that the display unit housing is disposed inside the main body ; the distance measurement component , the display unit and the projection component are integrally movable together; and the rotation mechanism is attached to the main body , and is configured so that the projection component , the distance measurement component and the image display component are integrally rotated by the rotation driver with respect to the main body .
Arrangement for cells for storing electrical energy, - with at least two cells , - wherein the at least two cells each have an axial direction , a peripheral region and two end faces , - wherein the end faces are arranged opposite one another in the axial direction and at least one pole region is provided on an end face , - with at least one connecting plate , - wherein the at least two cells are arranged on the at least one connecting plate , - wherein contact elements are provided between the at least one connecting plate and the pole regions of the at least two cells for an electrical contact, - wherein at least one of the contact elements , which is in contact with a cell , is designed as a spring contact element which, in a deformed state, provides a spring force for bearing against the respective pole region of the at least two cells for forming the electrical contact between the at least one connecting plate and pole region , wherein at least one retaining element is provided adjacent to the at least one connecting plate , wherein the at least one retaining element positions at least one of the at least two cells in the axial direction , characterized in that a spring constant of the spring contact element is predetermined which is at least dependent on: - the height of the spring contact element in the relaxed state relative to the connecting plate and - the height of the retaining element relative to the connecting plate . - with at least two cells , - wherein the at least two cells each have an axial direction , a peripheral region and two end faces , - wherein the end faces are arranged opposite one another in the axial direction and at least one pole region is provided on an end face , - wherein the at least two cells each have an axial direction , a peripheral region and two end faces , - wherein the end faces are arranged opposite one another in the axial direction and at least one pole region is provided on an end face , - with at least one connecting plate , - wherein the at least two cells are arranged on the at least one connecting plate , - wherein contact elements are provided between the at least one connecting plate and the pole regions of the at least two cells for an electrical contact, - wherein at least one of the contact elements , which is in contact with a cell , is designed as a spring contact element which, in a deformed state, provides a spring force for bearing against the respective pole region of the at least two cells for forming the electrical contact between the at least one connecting plate and pole region , wherein at least one retaining element is provided adjacent to the at least one connecting plate , wherein the at least one retaining element positions at least one of the at least two cells in the axial direction , - the height of the spring contact element in the relaxed state relative to the connecting plate and - the height of the retaining element relative to the connecting plate .
A turbine blade repair method using an additive manufacturing, the method comprising: setting (S100) an imaginary area in which a secondary structure is formed in a single-crystal structure; forming (S110) a heat dissipating structure in the single-crystal structure, wherein the heat dissipating structure ) comprises a plurality of heat dissipating fins extending radially from the set imaginary area; forming (S120) the secondary structure in the imaginary area, after forming the heat dissipating structure ; and removing (S130) the heat dissipating structure, after the secondary structure is formed. setting (S100) an imaginary area in which a secondary structure is formed in a single-crystal structure; forming (S110) a heat dissipating structure in the single-crystal structure, wherein the heat dissipating structure ) comprises a plurality of heat dissipating fins extending radially from the set imaginary area; forming (S120) the secondary structure in the imaginary area, after forming the heat dissipating structure ; and removing (S130) the heat dissipating structure, after the secondary structure is formed.
A method for controlling an autonomously driven vehicle in which a position of a host vehicle in a lane being traveled in is controlled using barrier lines demarcating a lane as a reference, comprising: recognizing the barrier lines ahead of the host vehicle; and executing autonomous driving by either a both-side recognition control (S105) in which the position of the host vehicle is controlled based on the barrier lines on both the left and right sides of the host vehicle, or a one-side recognition control (S106) in which the position of the host vehicle is controlled based on the barrier line on either one of the left and right sides of the host vehicle; characterized by storing (S108, S206) a region currently being traveled in as a steering-wheel-turned region when a steering wheel is turned in one direction and subsequently turned in a returning direction due to a switching of control between the both-side recognition control and the one-side recognition control; and continuing (S103) autonomous driving under the control preceding the steering-wheel-turned region when the steering-wheel-turned region is subsequently traveled in. recognizing the barrier lines ahead of the host vehicle; and executing autonomous driving by either a both-side recognition control (S105) in which the position of the host vehicle is controlled based on the barrier lines on both the left and right sides of the host vehicle, or a one-side recognition control (S106) in which the position of the host vehicle is controlled based on the barrier line on either one of the left and right sides of the host vehicle; characterized by storing (S108, S206) a region currently being traveled in as a steering-wheel-turned region when a steering wheel is turned in one direction and subsequently turned in a returning direction due to a switching of control between the both-side recognition control and the one-side recognition control; and continuing (S103) autonomous driving under the control preceding the steering-wheel-turned region when the steering-wheel-turned region is subsequently traveled in.
Method for pretensioning a chain conveyor using a chain link which is diverted over at least one sprocket wheel wherein in the chain link is integrated at least one measurement module which transmits data wirelessly to a communication device arranged externally to the chain link , wherein the pretensioning force is set as a function of the data collected by the measurement module and transmitted wirelessly, characterised in that the measurement module is a strain gauge, the values of which are transmitted wirelessly to the communication device , wherein the measurement module is in a deep sleep mode and is activatable by means of a signal into a recording mode or measuring mode, and the recording mode is deactivated after an ending of the activating signal or after a period of time for by means of a deactivating signal and the measurement module switches back into the deep sleep mode.
A method for providing predictive energy consumption feedback for powering a transport climate control system , comprising: obtaining one or more route parameters, wherein the route parameters include a duration of a route; obtaining a pre-route energy level of an energy storage source supplying power to the transport climate control system ; determining, using a processor, an expected energy consumption of the transport climate control system for the route based on the one or more route parameters; comparing, using a processor, the expected energy consumption for the route to the pre-route energy level of the energy storage source ; and when the expected energy consumption is greater than the pre-route energy level of the energy storage source , displaying an alert via a human-machine interface. obtaining one or more route parameters, wherein the route parameters include a duration of a route; obtaining a pre-route energy level of an energy storage source supplying power to the transport climate control system ; determining, using a processor, an expected energy consumption of the transport climate control system for the route based on the one or more route parameters; comparing, using a processor, the expected energy consumption for the route to the pre-route energy level of the energy storage source ; and when the expected energy consumption is greater than the pre-route energy level of the energy storage source , displaying an alert via a human-machine interface.
A target object detection system, comprising: a plurality of sensing nodes for positioning at respective detection locations with respect to a detection area that is situated within a field generated by an ambient AC source of excitation, each sensing node having at least one electric potential sensor designed to detect perturbations in said field caused by a target object, wherein the target object is not the ambient AC source of excitation, said one sensor including an electrode responsive to the AC excitation field for generating detection signals, an amplifier connected to the electrode for receiving and amplifying the detection signals to produce AC measurement signals as output, and at least one feedback circuit from an output of the amplifier to an input thereof for enhancing the input impedance of the amplifier; and a signal processing arrangement associated with each sensing node and comprising a filter circuit adapted to filter out frequencies that are outside a pre-defined pass band, wherein the AC source has a frequency or a band of frequencies within the pass band, and a level detector responsive to the AC measurement signals for monitoring signal amplitude and generating amplitude information for use in producing target object data. a plurality of sensing nodes for positioning at respective detection locations with respect to a detection area that is situated within a field generated by an ambient AC source of excitation, each sensing node having at least one electric potential sensor designed to detect perturbations in said field caused by a target object, wherein the target object is not the ambient AC source of excitation, said one sensor including an electrode responsive to the AC excitation field for generating detection signals, an amplifier connected to the electrode for receiving and amplifying the detection signals to produce AC measurement signals as output, and at least one feedback circuit from an output of the amplifier to an input thereof for enhancing the input impedance of the amplifier; and a signal processing arrangement associated with each sensing node and comprising a filter circuit adapted to filter out frequencies that are outside a pre-defined pass band, wherein the AC source has a frequency or a band of frequencies within the pass band, and a level detector responsive to the AC measurement signals for monitoring signal amplitude and generating amplitude information for use in producing target object data.
A laminated log structure comprising a number of horizontal superposed laminated logs , wherein the laminated logs include one or more vertical-grain-direction lamellas , in which the wood grain runs substantially vertically when the laminated log lies in a horizontal plane, for limiting the settling of the laminated log structure , and at least one horizontal-grain-direction lamella , in which the wood grain runs substantially horizontally when the laminated log lies in a horizontal plane, on both sides of the one or more vertical-grain-direction lamellas , characterized in that the laminated logs are fastened to each other by first screws which, together with the vertical-grain-direction lamellas , are arranged to bear the load of the laminated log structure , wherein said first screws are arranged to fasten to one another said at least one horizontal-grain-direction lamella of the superposed laminated logs on both sides of the one or more vertical-grain-direction lamellas . at least one horizontal-grain-direction lamella , in which the wood grain runs substantially horizontally when the laminated log lies in a horizontal plane, on both sides of the one or more vertical-grain-direction lamellas , characterized in that the laminated logs are fastened to each other by first screws which, together with the vertical-grain-direction lamellas , are arranged to bear the load of the laminated log structure , wherein said first screws are arranged to fasten to one another said at least one horizontal-grain-direction lamella of the superposed laminated logs on both sides of the one or more vertical-grain-direction lamellas .
Heat transport material having a flow resistance of 60 Pa*s/m to 400 Pa*s/m, more preferably from 100 Pa*s/m to 300 Pa*s/m, more preferably still from 120 Pa*s/m to 250 Pa*s/m, which comprises a sheetlike textile structure and a graphite-containing heat-conducting coating, wherein the graphite is contained in a fraction of 5% to 50%, by weight, based on the total weight of the heat transport material, wherein the fraction of graphite in relation to the heat-conducting coating is more than 50% by weight, characterized in that the heat-conducting coating has at least partly penetrated into the sheetlike textile structure.