mhurhangee/ep-ind-claims huggingface dataset:
A method for receiving control information for device-to-device, D2D, communication with a second user equipment, UE, by a first UE in a wireless communication system, the method comprising: receiving downlink control information, DCI, comprising a link indicator informing of a link direction for the D2D communication between the first UE and the second UE, downlink allocation information, and uplink grant information; determining the link direction based on whether the first UE is a source station or a destination station and a value of the link indicator; and selectively acquiring any one of the downlink allocation information and the uplink grant information based on the link indicator, wherein the DCI for the first UE and the second UE are identical and transmitted at the same time, and the downlink allocation information informs of a resource region in which data is received from the second UE when the first UE is a destination station, and the uplink grant information informs of a resource region for transmitting data to the second UE when the first UE is a source station. receiving downlink control information, DCI, comprising a link indicator informing of a link direction for the D2D communication between the first UE and the second UE, downlink allocation information, and uplink grant information; determining the link direction based on whether the first UE is a source station or a destination station and a value of the link indicator; and selectively acquiring any one of the downlink allocation information and the uplink grant information based on the link indicator, wherein the DCI for the first UE and the second UE are identical and transmitted at the same time, and the downlink allocation information informs of a resource region in which data is received from the second UE when the first UE is a destination station, and the uplink grant information informs of a resource region for transmitting data to the second UE when the first UE is a source station.
A compression garment formed as a single fabric layer, including: a moisture absorbent material, composed of fibres having a hydrophilic core and a hydrophobic surface, forming at least predominantly an inner surface of the single fabric layer; and a wicking material, composed of fibres having a hydrophilic surface and low moisture absorption, forming at least predominantly an outer surface of the single fabric layer; wherein the single fabric layer is knitted from threads of at least the first and second materials. a moisture absorbent material, composed of fibres having a hydrophilic core and a hydrophobic surface, forming at least predominantly an inner surface of the single fabric layer; and a wicking material, composed of fibres having a hydrophilic surface and low moisture absorption, forming at least predominantly an outer surface of the single fabric layer; wherein the single fabric layer is knitted from threads of at least the first and second materials.
A method for performing NAV control on a node, characterized by comprising: updating a local NAV value to a preset first value when it is determined that a preset first field of a monitored MAC frame carries a first identity, wherein the first value is smaller than a current local NAV value; and the MAC frame of which the preset first field carriers the first identity is transmitted by a TXOP responder after receiving a last MAC frame transmitted by a TXOP holder. updating a local NAV value to a preset first value when it is determined that a preset first field of a monitored MAC frame carries a first identity, wherein the first value is smaller than a current local NAV value; and the MAC frame of which the preset first field carriers the first identity is transmitted by a TXOP responder after receiving a last MAC frame transmitted by a TXOP holder.
A risk evaluation system for a host vehicle for assessing the risk of a collision with a pedestrian when overtaking a target vehicle on a pedestrian crossing comprising, a) object detector means configured to detect a pedestrian crossing and to detect a target vehicle in the front field of view of the host vehicle; b) a controller in communication with the object detector means, wherein the controller is configured to determine the pedestrian crossing location and to determine the location, speed and direction of the target vehicle; wherein the controller is further configured to c) monitor the speed of the target vehicle d) detect a deceleration of the target vehicle; e) evaluate a target vehicle stop distance (SD_t) between the target vehicle and the pedestrian crossing based on the target vehicle speed; f) compare the evaluated target vehicle stop distance (SD_t) with a predetermined target stop distance threshold (TSD _th); and g) estimate a risk for the host vehicle of a collision with a pedestrian when overtaking the target vehicle on the pedestrian crossing based on the comparison step result of the target vehicle stop distance (SD_t); and h) based on the risk estimation, advise the driver or control the host vehicle in order to stop the host vehicle, to adjust the speed of the host vehicle and/or to adjust the direction of the host vehicle (10. a) object detector means configured to detect a pedestrian crossing and to detect a target vehicle in the front field of view of the host vehicle; b) a controller in communication with the object detector means, wherein the controller is configured to determine the pedestrian crossing location and to determine the location, speed and direction of the target vehicle; wherein the controller is further configured to c) monitor the speed of the target vehicle d) detect a deceleration of the target vehicle; e) evaluate a target vehicle stop distance (SD_t) between the target vehicle and the pedestrian crossing based on the target vehicle speed; f) compare the evaluated target vehicle stop distance (SD_t) with a predetermined target stop distance threshold (TSD _th); and g) estimate a risk for the host vehicle of a collision with a pedestrian when overtaking the target vehicle on the pedestrian crossing based on the comparison step result of the target vehicle stop distance (SD_t); and h) based on the risk estimation, advise the driver or control the host vehicle in order to stop the host vehicle, to adjust the speed of the host vehicle and/or to adjust the direction of the host vehicle (10.
Method for continuously laying a fibrous strip comprising a small quantity of binder along the length of an elongate form to constitute what is referred to as a dry preform the section of which comprises at least two non-coplanar flanges, characterized in that it comprises steps which, sequentially and in this order, involve: a) heating a portion of the strip so as to activate the small amount of binder; b) pressing the said portion firmly against one of the faces of the preform; c) hot-preforming the portion to the section of the preform; d) hot-taping the portion to the faces of the preform; e) as it cools, calibrating the stack comprising the portion thus laid by applying pressure to all the corresponding faces of the preform; steps a to e being applied simultaneously to various and successive portions of the fibrous strip so as to obtain progressive and continuous laying of the strip. a) heating a portion of the strip so as to activate the small amount of binder; b) pressing the said portion firmly against one of the faces of the preform; c) hot-preforming the portion to the section of the preform; d) hot-taping the portion to the faces of the preform; e) as it cools, calibrating the stack comprising the portion thus laid by applying pressure to all the corresponding faces of the preform;
Direct plug-in connector for making electrical contact with printed circuit boards, comprising a housing and at least one contact, which is connected to the housing, for insertion into a first passage opening of a printed circuit board, which first passage opening is electrically conductive on the inner wall, having at least one latching device for securing the housing on the printed circuit board, wherein the latching device has at least one elastically resilient latching arm (60a, 60b) which is integrally connected to the housing and has a latching projection (64a, 64b) in the region of its free end, wherein the latching arm (60a, 60b) and the housing are separated by means of an intermediate space (66a, 66b), and wherein the housing has at least one further positioning projection (56, 58) which is rigidly and integrally connected to the housing and protrudes beyond the supporting face of the housing, characterized in that the housing is of two-part design, wherein a first housing part is provided with the at least one latching arm (60a, 60b) and a second housing part is provided with the contact (14a, 14b, 14c, 14d), in that the first housing part is designed in general in a u-shape with two limbs and a base connecting the two limbs, and the second housing part is accommodated between the limbs of the first housing part, and in that the first housing part engages over the second housing part.
Double stream motor vehicle air conditioning device including an enclosure enclosing an evaporator and a radiator and arranged so that a lower air stream admitted via a lower inlet of the enclosure passes successively through a lower portion of the evaporator and of the radiator before being discharged via a lower outlet of the enclosure and an upper air stream admitted via an upper air inlet of the enclosure passes successively through an upper portion of the evaporator and of the radiator before being discharged via at least one upper outlet (12, 13, 14) of the enclosure, this device including a first distribution flap situated between the evaporator and the radiator and a second distribution flap situated between the radiator and at least one air outlet (12, 13, 14), each distribution flap (17, 18) being a rotary flap separating the lower stream from the upper stream by virtue of having an edge extending along a face of the radiator whilst being mobile between an upper position and a lower position to adjust the distribution of the flow sections of the lower stream and the upper stream through the radiator.
A computer-implemented method for creating a configuration for a plurality of devices (105, 105a-105e), comprising: in response to user input, monitoring user interaction with a control device to control each of the plurality of devices (105, 105a-105e), the plurality of devices (105, 105a-105e) comprising at least one first device (105a-105e) and at least one second device (105a-105e); recording, while monitoring the user interaction with the control device, at least one configuration setting based on at least one user input provided to the control device; in response to further user input, storing, with the control device, the at least one configuration setting in at least one memory of the control device; associating a plurality of configuration settings with a scene object (1115, 1115a-1115d), the plurality of configuration settings based on a plurality of user inputs and comprising the at least one configuration setting; creating, on a mobile device separate from the control device, an identifier for the plurality of configuration settings; in response to creating the identifier, automatically activating a user interface (402, 402a-402c) on the control device; and in response to activation of the scene object (1115, 1115a-1115d) via the control device, transmitting a plurality of control signals, the plurality of control signals based on the plurality of configuration settings and configured to control the plurality of devices (105, 105a-105e). in response to user input, monitoring user interaction with a control device to control each of the plurality of devices (105, 105a-105e), the plurality of devices (105, 105a-105e) comprising at least one first device (105a-105e) and at least one second device (105a-105e); recording, while monitoring the user interaction with the control device, at least one configuration setting based on at least one user input provided to the control device; in response to further user input, storing, with the control device, the at least one configuration setting in at least one memory of the control device; associating a plurality of configuration settings with a scene object (1115, 1115a-1115d), the plurality of configuration settings based on a plurality of user inputs and comprising the at least one configuration setting; creating, on a mobile device separate from the control device, an identifier for the plurality of configuration settings; in response to creating the identifier, automatically activating a user interface (402, 402a-402c) on the control device; and in response to activation of the scene object (1115, 1115a-1115d) via the control device, transmitting a plurality of control signals, the plurality of control signals based on the plurality of configuration settings and configured to control the plurality of devices (105, 105a-105e).
A production process for obtaining a porous silicon dioxide material comprising the process steps (101 to 105) of: a) Feeding a feed material composition into a reaction zone at a feeding position, wherein the feed material composition is liquid or gaseous or both; b) Reacting the feed material composition in the reaction zone into a first plurality of particles by a chemical reaction; c) Depositing the first plurality of particles onto a substrate surface of a substrate, thereby obtaining the porous silicon dioxide material, having a pore structure, in the form of 1 layer superimposing the substrate surface; d) At least partial removal of the porous silicon dioxide material from the substrate surface; and e) Modification of the pore structure of the porous silicon dioxide material, thereby obtaining the porous silicon dioxide material having a further pore structure. a) Feeding a feed material composition into a reaction zone at a feeding position, wherein the feed material composition is liquid or gaseous or both; b) Reacting the feed material composition in the reaction zone into a first plurality of particles by a chemical reaction; c) Depositing the first plurality of particles onto a substrate surface of a substrate, thereby obtaining the porous silicon dioxide material, having a pore structure, in the form of 1 layer superimposing the substrate surface; d) At least partial removal of the porous silicon dioxide material from the substrate surface; and e) Modification of the pore structure of the porous silicon dioxide material, thereby obtaining the porous silicon dioxide material having a further pore structure.
A water cooling system at single board module level, comprising: a device subrack having a backplate; a plurality of single board modules located on one side of the backplate; a single board water cooling module installed on each of the single board modules, each single board water cooling module having liquid that cools a heating element of the single board module; a plurality of pairs of sealing plug-connection units installed on the backplate, each pair of sealing plug-connection units being connected with the single board water cooling module on a corresponding single board module; a plurality of water pump modules located on the other side of the backplate, each of the water pump modules being connected with a corresponding single board water cooling module via a corresponding pair of sealing plug-connection units, wherein each sealing plug-connection unit in each pair of sealing plug-connection units comprises two parts which are plug-connected, wherein a first part of the two parts is installed on a corresponding single board module and is connected with the single board water cooling module on the corresponding single board module, and a second part of the two parts is installed on the backplate and is connected with a corresponding water pump module. a device subrack having a backplate; a plurality of single board modules located on one side of the backplate; a single board water cooling module installed on each of the single board modules, each single board water cooling module having liquid that cools a heating element of the single board module; a plurality of pairs of sealing plug-connection units installed on the backplate, each pair of sealing plug-connection units being connected with the single board water cooling module on a corresponding single board module; a plurality of water pump modules located on the other side of the backplate, each of the water pump modules being connected with a corresponding single board water cooling module via a corresponding pair of sealing plug-connection units, wherein each sealing plug-connection unit in each pair of sealing plug-connection units comprises two parts which are plug-connected, wherein a first part of the two parts is installed on a corresponding single board module and is connected with the single board water cooling module on the corresponding single board module, and a second part of the two parts is installed on the backplate and is connected with a corresponding water pump module.
Vacuum insulation board comprising: - a hermetically closed covering in which the pressure is lower than atmospheric pressure, - a core material made of organic aerogel placed inside said covering, characterized in that said organic aerogel is based on a resin resulting at least in part from polyhydroxybenzene(s) R and formaldehyde(s) F, said organic aerogel being a polymeric monolithic organic gel comprising at least one water-soluble cationic polyelectrolyte, or said organic aerogel being a pyrolysate of said gel in the form of a porous carbon monolith comprising the product of the pyrolysis of said at least one water-soluble cationic polyelectrolyte P, said organic aerogel exhibiting a specific thermal conductivity of between 10 and 40 mW.m -1.K -1 at atmospheric pressure. - a hermetically closed covering in which the pressure is lower than atmospheric pressure, - a core material made of organic aerogel placed inside said covering,
A method of producing at least one compound comprising an alkenyl group from at least one compound comprising an alkyl group having two or more carbon atoms, the method comprising: (i) Providing a mixture comprising carbon dioxide and at least one compound comprising an alkyl group having two or more carbon atoms, the mixture comprising at least 5mol% carbon dioxide; and (ii) Contacting said mixture with a catalyst comprising (a) one or both of palladium and platinum, and (b) one or more lanthanide, thereby converting at least a portion of the at least one compound comprising an alkyl group having two or more carbon atoms into a compound comprising an alkenyl group, the total weight of the palladium and/or platinum being more than 0.1wt% of the catalyst, the catalyst comprising at least 0.5mol% palladium and/or platinum (based on the total for palladium and platinum), and at least 1.0mol% of the one or more lanthanide; step (ii) being performed at a temperature of at least 300°C and up to 600°C. (i) Providing a mixture comprising carbon dioxide and at least one compound comprising an alkyl group having two or more carbon atoms, the mixture comprising at least 5mol% carbon dioxide; and (ii) Contacting said mixture with a catalyst comprising (a) one or both of palladium and platinum, and (b) one or more lanthanide, thereby converting at least a portion of the at least one compound comprising an alkyl group having two or more carbon atoms into a compound comprising an alkenyl group, the total weight of the palladium and/or platinum being more than 0.1wt% of the catalyst, the catalyst comprising at least 0.5mol% palladium and/or platinum (based on the total for palladium and platinum), and at least 1.0mol% of the one or more lanthanide;
A navigation system that is configured to perform route guidance according to input information, the navigation system comprising: an input section to which information including an objective is inputted by a user; an objective recognition section configured to recognize the objective representing an action of the user based on the information inputted to the input section; a destination setting section configured to set, as a destination, a place at which the objective recognized by the objective recognition section can be achieved; and a guidance processing section configured to perform guidance so as to reach the destination having been set by the destination setting section, wherein the destination setting section is configured to indicate a substitute destination at which the objective can be achieved, during movement based on the guidance, when it is determined that the objective is difficult to achieve within a predetermined time, and characterized in that the destination setting section is configured to indicate a substitute destination at which another objective similar to the objective can be achieved, when there is not a substitute destination at which the objective can be achieved. an input section to which information including an objective is inputted by a user; an objective recognition section configured to recognize the objective representing an action of the user based on the information inputted to the input section; a destination setting section configured to set, as a destination, a place at which the objective recognized by the objective recognition section can be achieved; and a guidance processing section configured to perform guidance so as to reach the destination having been set by the destination setting section, wherein the destination setting section is configured to indicate a substitute destination at which the objective can be achieved, during movement based on the guidance, when it is determined that the objective is difficult to achieve within a predetermined time, and characterized in that the destination setting section is configured to indicate a substitute destination at which another objective similar to the objective can be achieved, when there is not a substitute destination at which the objective can be achieved.