mhurhangee/ep-ind-claims huggingface dataset:
A gasket comprising: a rubber only type gasket main body; a carrier sheet which is made of a resin film retaining the gasket main body in a non-bonded state; and an adhesive part or a bonding part for adhering or bonding the gasket main body to an assembled position when the gasket main body is assembled in the assembled position, the adhesive part or the bonding part being provided on a surface of the gasket main body, characterized in that the adhesive part or the bonding part is provided in an outside portion in the mounting surface of the gasket main body, and an inside portion in the mounting surface of the gasket main body is provided with a contact portion where the gasket main body directly comes into contact with the assembled position without interposition of the adhesive agent or the bonding agent. a rubber only type gasket main body; a carrier sheet which is made of a resin film retaining the gasket main body in a non-bonded state; and an adhesive part or a bonding part for adhering or bonding the gasket main body to an assembled position when the gasket main body is assembled in the assembled position, the adhesive part or the bonding part being provided on a surface of the gasket main body, characterized in that the adhesive part or the bonding part is provided in an outside portion in the mounting surface of the gasket main body, and an inside portion in the mounting surface of the gasket main body is provided with a contact portion where the gasket main body directly comes into contact with the assembled position without interposition of the adhesive agent or the bonding agent.
Method for secure data transmission between an input device connected to a network computer and a remote network station connected to the network computer via a data network, wherein the input device comprises encryption means arranged between reading and/or input means of the Input device and an interface of the input device by which the input device is connectable to the network computer, wherein the network computer comprises translation means having software means comprising a protocol translator, preferably a translating proxy, and by which the data transmitted from the input device, preferably via a USB interface, are translatable preferably into a TCP/IP protocol, wherein the method comprises the steps of; - handing over data of the reading and/or input means of the input device to the encryption means of the input device; - encrypting the data by the means of the input device; - transmitting the data to the network computer; - translating the data into a network protocol by the translation means of the network computer; - decrypting the encrypted data by decryption means of the remote network station, wherein the method is an authentication method, characterised in that the data transmission between the input device and the remote network station is bidirectional, with the encryption means of the input device being encryption and decryption means and the decryption means of the remote network station being encryption and decryption means. - handing over data of the reading and/or input means of the input device to the encryption means of the input device; - encrypting the data by the means of the input device; - transmitting the data to the network computer; - translating the data into a network protocol by the translation means of the network computer; - decrypting the encrypted data by decryption means of the remote network station, wherein the method is an authentication method, characterised in that the data transmission between the input device and the remote network station is bidirectional, with the encryption means of the input device being encryption and decryption means and the decryption means of the remote network station being encryption and decryption means.
Method for access to a content data stream by a telecommunications terminal, said stream being transmitted through a communication network to which is connected an access entity responsible for the final distributing of the stream, comprising the following steps, implemented by the terminal: - dispatching of a first request to an entity for managing access to a service, this first request being aimed at identifying the terminal to the entity for managing access to the service, - after identification of the terminal by the entity for managing access to the service, reception (S202, S303) of authentication means (K1, Cert) provided by the entity for managing access to the service, - dispatching (S204, S304, S405) of a second request to the access entity, this second request being aimed at access by the terminal to the content data stream, and this second request being generated by using the authentication means provided by the entity for managing access to the service, and - reception from the access entity of a content data stream, subsequent to a positive authentication of the terminal to the access entity. - dispatching of a first request to an entity for managing access to a service, this first request being aimed at identifying the terminal to the entity for managing access to the service, - after identification of the terminal by the entity for managing access to the service, reception (S202, S303) of authentication means (K1, Cert) provided by the entity for managing access to the service, - dispatching (S204, S304, S405) of a second request to the access entity, this second request being aimed at access by the terminal to the content data stream, and this second request being generated by using the authentication means provided by the entity for managing access to the service, and - reception from the access entity of a content data stream, subsequent to a positive authentication of the terminal to the access entity.
A hybrid access gateway, HAG, apparatus for natively bridged communication in a communication network, the HAG apparatus comprising: - an upstream interface configured for receiving downlink Open Systems Interconnection, OSI, layer 2 traffic in said communication network; - at least one downstream cellular coupling interface configured to be communicatively coupled to a user equipment, UE, wherein the UE is configured to connect to a cellular access network and be identified by a first OSI layer 2 MAC address, wherein the first OSI layer 2 address is derivable from a temporary identifier for said UE, wherein the UE is also configured to connect to a non-cellular access network of said communication network and be identified by a second OSI layer 2 address; - an inspection module configured for inspecting an OSI layer 2 header of said received OSI layer 2 traffic; and - a direction module configured for, based on said inspected OSI layer 2 header, directing said received OSI layer 2 traffic to said UE via said at least one downstream cellular coupling interface, wherein said direction module is configured for directing said received OSI layer 2 traffic to the first OSI layer 2 MAC address and optionally also to the second OSI layer 2 address according to a distribution algorithm which is configured to prevent out-of-sequence delivery of said received OSI layer 2 traffic at said UE. - an upstream interface configured for receiving downlink Open Systems Interconnection, OSI, layer 2 traffic in said communication network; - at least one downstream cellular coupling interface configured to be communicatively coupled to a user equipment, UE, wherein the UE is configured to connect to a cellular access network and be identified by a first OSI layer 2 MAC address, wherein the first OSI layer 2 address is derivable from a temporary identifier for said UE, wherein the UE is also configured to connect to a non-cellular access network of said communication network and be identified by a second OSI layer 2 address; - an inspection module configured for inspecting an OSI layer 2 header of said received OSI layer 2 traffic; and - a direction module configured for, based on said inspected OSI layer 2 header, directing said received OSI layer 2 traffic to said UE via said at least one downstream cellular coupling interface, wherein said direction module is configured for directing said received OSI layer 2 traffic to the first OSI layer 2 MAC address and optionally also to the second OSI layer 2 address according to a distribution algorithm which is configured to prevent out-of-sequence delivery of said received OSI layer 2 traffic at said UE.
A method for wireless communications, comprising: generating a time stamp with a first value of a first portion of a counter; generating a frame including a first field with the time stamp and a second field having one or more bits with a second value of the first portion of the counter, wherein the first portion of the counter comprises a least significant portion of the counter; and the one or more bits comprise: one or more most significant bits of the least significant portion of the counter; and outputting the frame for transmission to a receiving device. generating a time stamp with a first value of a first portion of a counter; generating a frame including a first field with the time stamp and a second field having one or more bits with a second value of the first portion of the counter, wherein the first portion of the counter comprises a least significant portion of the counter; and the one or more bits comprise: one or more most significant bits of the least significant portion of the counter; and outputting the frame for transmission to a receiving device. one or more most significant bits of the least significant portion of the counter; and outputting the frame for transmission to a receiving device.
A motor vehicle devoid of a mechanical key to trigger its ignition, the motor vehicle comprising: an internal combustion engine; an On/Off ignition switch and an electronic ignition control module for selectably turning the ignition on or off of the internal combustion engine in response to activity of On/Off ignition switch; a transmission having a number of operating modes, at least one of the operating modes being Park mode; a transmission control unit which, in use, controls the ratio of the transmission; a selector which is operable by the driver of the vehicle to select a respective one of the operating modes of the transmission; an electronic transmission selector for sensing the selected mode position of the transmission; and an electric park brake control system, the electric park brake control system comprising an electric park brake mechanism for applying a park brake force via an electric motor to the vehicle and an electric park brake control module; characterised in that the electric park brake control module applies the park brake force through the electric park brake mechanism on receipt of both of signals from the electronic transmission selector indicating that the transmission is in "park mode" and from the electronic ignition control module indicating that ignition has been turned off by the On/Off ignition switch. an internal combustion engine; an On/Off ignition switch and an electronic ignition control module for selectably turning the ignition on or off of the internal combustion engine in response to activity of On/Off ignition switch; a transmission having a number of operating modes, at least one of the operating modes being Park mode; a transmission control unit which, in use, controls the ratio of the transmission; a selector which is operable by the driver of the vehicle to select a respective one of the operating modes of the transmission; an electronic transmission selector for sensing the selected mode position of the transmission; and an electric park brake control system, the electric park brake control system comprising an electric park brake mechanism for applying a park brake force via an electric motor to the vehicle and an electric park brake control module; characterised in that the electric park brake control module applies the park brake force through the electric park brake mechanism on receipt of both of signals from the electronic transmission selector indicating that the transmission is in "park mode" and from the electronic ignition control module indicating that ignition has been turned off by the On/Off ignition switch.
A method of producing a food composition, the method comprising the steps of: - gelling a non-starch hydrocolloid polymer in an aqueous food matrix; - adding a non-sodium metal salt to the food matrix before and/or during gelling of the non-starch hydrocolloid polymer in an amount of 0.01 to 5 wt% based on the food composition; - cooling the food matrix comprising the jellified hydrocolloid polymer; and - adding sodium to the cooled food matrix to form the food composition. - gelling a non-starch hydrocolloid polymer in an aqueous food matrix; - adding a non-sodium metal salt to the food matrix before and/or during gelling of the non-starch hydrocolloid polymer in an amount of 0.01 to 5 wt% based on the food composition; - cooling the food matrix comprising the jellified hydrocolloid polymer; and - adding sodium to the cooled food matrix to form the food composition.
A method of generating two-dimensional scanning videokymography (2D VKG) images using real-time or pre-stored laryngeal endoscopy images in a 2D VKG image generation server, the method comprising: (a) acquiring monochromatic or color laryngeal endoscopy images; (b) setting a target region and a pixel unit for generating 2D VKG images from the laryngeal endoscopy images, the pixel unit corresponding to one pixel line or a predetermined number of pixel lines of the target region or corresponding to at least one pixel of a pixel line of the target region; (c) extracting pixel information of each frame of the laryngeal endoscopy images from the pixel unit in the target region; (d) generating frames of 2D VKG images by combining the extracted pixel information of each frame; and (e) generating a 2D VKG video by combining the frames of the 2D VKG images, wherein step (a) comprises receiving the laryngeal endoscopy images in real time from a camera connected to the 2D VKG image generation server or loading laryngeal endoscopy images pre-stored in the 2D VKG image generation server. (a) acquiring monochromatic or color laryngeal endoscopy images; (b) setting a target region and a pixel unit for generating 2D VKG images from the laryngeal endoscopy images, the pixel unit corresponding to one pixel line or a predetermined number of pixel lines of the target region or corresponding to at least one pixel of a pixel line of the target region; (c) extracting pixel information of each frame of the laryngeal endoscopy images from the pixel unit in the target region; (d) generating frames of 2D VKG images by combining the extracted pixel information of each frame; and (e) generating a 2D VKG video by combining the frames of the 2D VKG images,
Shaped abrasive particles comprising alpha alumina, comprising a first face and a second face connected to each other by a sidewall, the first face and the second face being separated by a thickness t ranging between 25 micrometers to 500 micrometers, and having a cross-sectional shape along a longitudinal axis of the shaped abrasive particles, the cross-sectional shape comprising a polygonal cross-sectional plane, wherein the shaped abrasive particles comprise an Average Roundness Factor of between about 15% to 0%, wherein the Average Roundness Factor is determined by averaging the Roundness Factors of 10 individual shaped abrasive particles, wherein the Roundness Factor expressed as a percentage is calculated by dividing the Missing Area by the Actual Area and multiplying by 100, that is Roundness Factor % = Missing Area / Actual Area ∗ 100, wherein the Actual Area represents the cross-sectional plane of a transverse cut located as close as possible to the midpoint of the longitudinal axis of the shaped abrasive particle, wherein each face of sidewalls, first face and second face of the cross-sectional plane is bounded by a line drawn tangent to the two highest points located anywhere along that face, thereby enclosing a Maximum Area having a polygonal shape, and wherein the Missing Area represents the amount of area present due to rounded corners and uneven edges of the shaped abrasive particle, wherein the Actual Area of the cross-sectional plane is subtracted from the Maximum Area bounded by the polygon to determine the Missing Area, wherein Actual Area, Maximum Area and Missing Area are determined by the Roundness Factor Determination.
A composition comprising: at least 20 wt.% of block copolymer comprising polyvinyl aromatic end blocks and a polyisoprene midblock; and at least one ethylenically unsaturated monomer comprising one or more groups selected from (meth)acryl or vinyl ether, wherein the monomer has a Log P according to Moriguchi's method of at least 2.2 and the monomer is present is an amount no greater than 20 wt.-% of the composition. at least 20 wt.% of block copolymer comprising polyvinyl aromatic end blocks and a polyisoprene midblock; and at least one ethylenically unsaturated monomer comprising one or more groups selected from (meth)acryl or vinyl ether, wherein the monomer has a Log P according to Moriguchi's method of at least 2.2 and the monomer is present is an amount no greater than 20 wt.-% of the composition.
A method in a user equipment, UE, of a wireless communication system selecting a timing synchronizing source from a plurality of asynchronous nodes as a synchronization source for the UE, comprising: selecting a first asynchronous timing reference node (106, 502B) as said synchronizing source when the UE is in a first coverage region of the first asynchronous source; entering into a second region (504C, 504D) having a plurality of nodes (502C, 502D), wherein each of said plurality of nodes from said second region sends a timing reference signal having at least one downlink frame; and selecting, when the UE has moved out of said first coverage region, a second asynchronous timing reference node from said plurality of nodes from said second region as said timing synchronizing source for which the first multipath arrival of the start of said at least one downlink frame from said second node is closest in time to the start of the first multipath arrival of the corresponding downlink frame received from said first reference node. selecting a first asynchronous timing reference node (106, 502B) as said synchronizing source when the UE is in a first coverage region of the first asynchronous source; entering into a second region (504C, 504D) having a plurality of nodes (502C, 502D), wherein each of said plurality of nodes from said second region sends a timing reference signal having at least one downlink frame; and selecting, when the UE has moved out of said first coverage region, a second asynchronous timing reference node from said plurality of nodes from said second region as said timing synchronizing source for which the first multipath arrival of the start of said at least one downlink frame from said second node is closest in time to the start of the first multipath arrival of the corresponding downlink frame received from said first reference node.
Pneumatic tyre (10A-10B) comprising an internal sealing layer partially delimiting the internal volume of the pneumatic tyre, characterized in that it comprises a layer of at least one self-sealing product (O1, 02), known as the self-sealing layer, positioned radially on the inside with respect to the internal sealing layer, the self-sealing layer having a resistance-to-flow indicator (I1, I2) that increases axially from the median plane towards the outside of the pneumatic tyre (10A-10B).
A neuromorphic chip, comprising: - a plurality of neurons, configured to generate a spike event based on an amount of current received through a synapse; and - a spike event detection unit (120, 220) configured to detect whether a spike event occurred in the plurality of neurons, - wherein the plurality of neurons are grouped in a plurality of neuron groups and neurons in each of the neuron groups are grouped in a plurality of neuron subgroups, and - wherein the spike event detection unit (120, 220) is configured to: * determine, by means of a circuit, a neuron group among the plurality of neuron groups in the neuromorphic chip in which neuron group a spike event occurred; * determine, by means of a circuit, only for the neuron groups in which a spike event is determined to have occurred, a neuron subgroup among the plurality of neuron subgroups in the neuron group, in which the spike event occurred, and * identify, only for the neuron subgroups in which a spike event is determined to have occurred, an address of a neuron within the neuron subgroup, in which the spike event occurred; and a spike event information transmission unit comprising a transmitter configured to transmit address information of the neuron in the neuron subgroup, in which the spike event is determined to have occurred, the address information comprising an address identified for the determined subgroup and the identified address of the neuron within the subgroup out of the neuromorphic chip via the transmitter to a receiver. - a plurality of neurons, configured to generate a spike event based on an amount of current received through a synapse; and - a spike event detection unit (120, 220) configured to detect whether a spike event occurred in the plurality of neurons, - wherein the plurality of neurons are grouped in a plurality of neuron groups and neurons in each of the neuron groups are grouped in a plurality of neuron subgroups, and - wherein the spike event detection unit (120, 220) is configured to: * determine, by means of a circuit, a neuron group among the plurality of neuron groups in the neuromorphic chip in which neuron group a spike event occurred; * determine, by means of a circuit, only for the neuron groups in which a spike event is determined to have occurred, a neuron subgroup among the plurality of neuron subgroups in the neuron group, in which the spike event occurred, and * identify, only for the neuron subgroups in which a spike event is determined to have occurred, an address of a neuron within the neuron subgroup, in which the spike event occurred; and * determine, by means of a circuit, a neuron group among the plurality of neuron groups in the neuromorphic chip in which neuron group a spike event occurred; * determine, by means of a circuit, only for the neuron groups in which a spike event is determined to have occurred, a neuron subgroup among the plurality of neuron subgroups in the neuron group, in which the spike event occurred, and * identify, only for the neuron subgroups in which a spike event is determined to have occurred, an address of a neuron within the neuron subgroup, in which the spike event occurred; and
Roof window, constructed out of a sash frame with glass unit, a frame and said sash frame with glass unit comprising a four stiles attached to one another, the glass unit comprising an external glass pane in the form of vacuum insulated multiple glazed unit and at least one internal glass pane (32, 33) located underneath vacuum insulated multiple glazed unit, characterised in that internal glass pane (32, 33) surface area is smaller than the surface area of vacuum insulated multiple glazed unit.
Anode for cathodic protection in form of a prefabricated composite strip comprising a conductive element coupled to an insulating polymer element continuously integral therewith, said conductive element comprising a metal substrate provided with a superficial catalytic coating.