mhurhangee/ep-ind-claims huggingface dataset:
An electronic control unit, ECU, semiconductor integrated circuit device (1, 1a, 1b) comprising a controller arranged to receive a message of a CAN protocol transferred via a communication bus (Bc) from a second ECU semiconductor integrated circuit device (1a, 1b), wherein the controller includes a communication controlling unit arranged to control a communication in accordance with the CAN protocol via the communication bus (Bc) and arranged to generate a CAN protocol message, which includes an ACK slot for receiving an ACK signal from said second ECU semiconductor integrated circuit device (1a, 1b), wherein the communication controlling unit is arranged to: send an inquiry to the second ECU semiconductor integrated circuit device (la, 1b) about the maximum communication speed of the second ECU semiconductor integrated circuit device (1a, 1b); receive a reply from the second ECU semiconductor integrated circuit device (1a, 1b) about a maximum communication speed; calculate an ACK slot length of the ACK slot based on the received maximum communication speed of the second ECU semiconductor integrated circuit device (1a, 1b), and notify said calculated result as the ACK slot length of the ACK slot to the second ECU semiconductor integrated circuit device (1a, 1b), so that a communication is performed at the communication speed corresponding to the maximum communication speed replied from the second ECU semiconductor integrated circuit device, wherein when the communication speed is a first communication speed, the calculated ACK slot length of the ACK slot is 1 bit as a default value, and wherein when the communication speed is twice the first communication speed, the calculated ACK slot length of the ACK slot is 2 bits. send an inquiry to the second ECU semiconductor integrated circuit device (la, 1b) about the maximum communication speed of the second ECU semiconductor integrated circuit device (1a, 1b); receive a reply from the second ECU semiconductor integrated circuit device (1a, 1b) about a maximum communication speed; calculate an ACK slot length of the ACK slot based on the received maximum communication speed of the second ECU semiconductor integrated circuit device (1a, 1b), and notify said calculated result as the ACK slot length of the ACK slot to the second ECU semiconductor integrated circuit device (1a, 1b), so that a communication is performed at the communication speed corresponding to the maximum communication speed replied from the second ECU semiconductor integrated circuit device,
A method for determining a fertility period for a female human individual, carried out in a system comprising a controller, one or more non-invasive sensor(s) configured to sense heart pulse signals of the individual, at least during the sleep of the individual, the method comprising the steps: /a1/ receiving the heart pulse signals and determine a heart rate, /b1/ extracting, at the controller, minimal heart rate MSHR(i), over a daily time period of interest T(i), said time period of interest being comprised within a 24-hour period, i denoting a daily index, /c1/ determine, with values over the past days, a minimal heart rate curve, /d1/ calculate a characteristic feature in the minimal heart rate curve, /e/ deducing a current ovulation probability index, according at least to the characteristic feature in minimal heart rate curve, /f/ if the ovulation probability index is higher than a predefined threshold denoted PTH, notify the individual with a fertility time window. /a1/ receiving the heart pulse signals and determine a heart rate, /b1/ extracting, at the controller, minimal heart rate MSHR(i), over a daily time period of interest T(i), said time period of interest being comprised within a 24-hour period, i denoting a daily index, /c1/ determine, with values over the past days, a minimal heart rate curve, /d1/ calculate a characteristic feature in the minimal heart rate curve, /e/ deducing a current ovulation probability index, according at least to the characteristic feature in minimal heart rate curve, /f/ if the ovulation probability index is higher than a predefined threshold denoted PTH, notify the individual with a fertility time window.
Optical system for a video endoscope comprising at least one miniaturized electronic image sensor, wherein the image sensor is an active pixel sensor with a progressive offset of a micro-lens array, and a lens system with a first lens, a second lens, a third lens and optionally further lenses in order from an object side to receive an image light from an object field and to direct the image light to the at least one image sensor arranged in an image plane of the optical system, characterized in that at least one filter coating is located at and/or on a support element for forming an interference filter at a position in or adjacent to the lens system such, that an angle of incidence of the image light on the filter coating is minimized, the transmitted image light is collected by the image sensor and fluorescence imaging is enabled.
A reference signal sequence configuration method, comprising: receiving, by a terminal, a reference signal initialization sequence generation indication from a base station; selecting, by the terminal from candidate identifiers, IDs, according to the received indication, an ID used for generating an initialization sequence, wherein the candidate IDs comprise a cell ID and more than one ID with a constant value; generating, by the terminal, a reference signal initialization sequence according to the selected ID and a scrambling ID; wherein the reference signal initialization sequence generation indication is a signaling, each of the candidate IDs corresponds to one of scrambling IDs including the scrambling ID, and the selecting process comprises: determining, by the terminal, the scrambling ID according to the received signaling and a correspondence between scrambling IDs and signaling; and selecting, by the terminal, the ID from the candidate IDs according to the scrambling ID. receiving, by a terminal, a reference signal initialization sequence generation indication from a base station; selecting, by the terminal from candidate identifiers, IDs, according to the received indication, an ID used for generating an initialization sequence, wherein the candidate IDs comprise a cell ID and more than one ID with a constant value; generating, by the terminal, a reference signal initialization sequence according to the selected ID and a scrambling ID; wherein the reference signal initialization sequence generation indication is a signaling, each of the candidate IDs corresponds to one of scrambling IDs including the scrambling ID, and the selecting process comprises: determining, by the terminal, the scrambling ID according to the received signaling and a correspondence between scrambling IDs and signaling; and selecting, by the terminal, the ID from the candidate IDs according to the scrambling ID. determining, by the terminal, the scrambling ID according to the received signaling and a correspondence between scrambling IDs and signaling; and selecting, by the terminal, the ID from the candidate IDs according to the scrambling ID.
A method of preparing unagglomerated, dispersed core/shell nanocomposite particles in suspension, comprising: preparing a reverse micelle microemulsion containing nanocomposite particles; treating the reverse micelle microemulsion with a dispersing agent; breaking the microemulsion to form a suspension of nanocomposite particles by adding a breaking agent to the microemulsion, wherein the breaking agent is an acid/alcohol solution that maintains the suspension of nanocomposite particles at a pH of between 5 and 9; and washing and dispersing the suspension of nanocomposite particles by using a size-exclusion HPLC system. preparing a reverse micelle microemulsion containing nanocomposite particles; treating the reverse micelle microemulsion with a dispersing agent; breaking the microemulsion to form a suspension of nanocomposite particles by adding a breaking agent to the microemulsion, wherein the breaking agent is an acid/alcohol solution that maintains the suspension of nanocomposite particles at a pH of between 5 and 9; and washing and dispersing the suspension of nanocomposite particles by using a size-exclusion HPLC system.
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.
A component for a vehicle interior configured to support an airbag module providing an airbag configured to be deployed into the vehicle interior comprising: - a structural substrate; - an airbag chute (100, 100x); and - a structure between the structural substrate and the airbag chute (100, 100x); wherein the structure is configured to couple the airbag chute (100, 100x) to the structural substrate; wherein the structural substrate comprises a first material; wherein the airbag chute (100, 100x) comprises a second material; wherein the structure comprises a third material; wherein the third material is different than the first material and the second material; wherein the structure comprises a rib, wherein the rib is injection molded onto the structural substrate; wherein the airbag chute (100, 100x) is welded to the structure; and wherein the structure is bonded to the structural substrate. - a structural substrate; - an airbag chute (100, 100x); and - a structure between the structural substrate and the airbag chute (100, 100x); wherein the structure is configured to couple the airbag chute (100, 100x) to the structural substrate; wherein the structural substrate comprises a first material; wherein the airbag chute (100, 100x) comprises a second material; wherein the structure comprises a third material; wherein the third material is different than the first material and the second material; wherein the structure comprises a rib, wherein the rib is injection molded onto the structural substrate; wherein the airbag chute (100, 100x) is welded to the structure; and wherein the structure is bonded to the structural substrate.
A method for IP address management at a wireless network port, such as WLAN, in which IP addresses are assigned using the Dynamic Host Configuration Protocol, DHCP, the method comprising at least the following steps: • logging a wireless terminal into the wireless network port and requesting an IP address; • providing and communicating the IP address with a default lease time from the wireless network port to the wireless terminal - hereinafter referred to as IP address lease; characterised in that upon a subsequent renewal of the previously provided IP address lease, the new lease time depends on whether or not the wireless terminal has been logged in for using certain protected services; wherein upon a successful login via a login service, the lease time of the previously provided IP address lease of the wireless terminal is changed from the default lease time to a long lease time that is longer than the default lease time and, if the login is not successful, the previously provided IP address lease is continued to be renewed with the default lease time. • logging a wireless terminal into the wireless network port and requesting an IP address; • providing and communicating the IP address with a default lease time from the wireless network port to the wireless terminal - hereinafter referred to as IP address lease; upon a subsequent renewal of the previously provided IP address lease, the new lease time depends on whether or not the wireless terminal has been logged in for using certain protected services; wherein upon a successful login via a login service, the lease time of the previously provided IP address lease of the wireless terminal is changed from the default lease time to a long lease time that is longer than the default lease time and, if the login is not successful, the previously provided IP address lease is continued to be renewed with the default lease time.
An infrared reflecting film comprising: a first metal oxide layer; an infrared reflecting layer mainly made of silver; and a light absorptive metal layer, in this order on a transparent film substrate, wherein the transparent film substrate includes a cured resin layer on a surface at a side where the first metal oxide layer is provided, the cured resin layer of the transparent film substrate and the first metal oxide layer are in direct contact with each other the first metal oxide layer is formed of a composite metal oxide containing zinc oxide and tin oxide, the light absorptive metal layer has a thickness of 2 nm to 10 nm, and contains at least one selected from the group consisting of nickel, chromium, niobium, tantalum and titanium, and no metal layer is deposited between the transparent film substrate and the infrared reflecting layer.
A porous heating body, comprising a porous body for conducting liquid tobacco, wherein the porous body comprises a first porous portion, a second porous portion and a third porous portion successively disposed in the porous body along a lengthwise direction of the porous body, an outer diameter of the first porous portion and an outer diameter of the third porous portion are both larger than an outer diameter of the second porous portion along a widthwise direction of the porous body, a heating element extending along the lengthwise direction of the porous body is disposed on the porous body, the heating element comprises a heating portion for atomizing the liquid tobacco to generate aerosol, at least one portion of an extension length of the heating portion along the lengthwise direction of the porous body is overlapped with an extension length of the second porous portion; wherein the porous body further comprises a through hole disposed therein and successively penetrating the first porous portion, the second porous portion and the third porous portion along the lengthwise direction of the porous body; and characterized in that the heating portion is arranged on an inner wall of the through hole. wherein the porous body further comprises a through hole disposed therein and successively penetrating the first porous portion, the second porous portion and the third porous portion along the lengthwise direction of the porous body; and characterized in that the heating portion is arranged on an inner wall of the through hole.
Actuator for use in a test bench, having: a shaft (10, 20), which extends at least sectionally through a hydraulic actuating portion, which hydraulic actuating portion is configured to move the shaft (10, 20) axially, wherein the shaft (10, 20) furthermore extends at least sectionally through a rotary actuator portion, which rotary actuator portion has a stator, wherein in the rotary actuator portion a rotor is provided, which is fastened to the shaft (10, 20), characterised in that in the hydraulic actuating portion two hydrostatic bearings (130, 140) are provided, in order to support the shaft (10, 20). a shaft (10, 20), which extends at least sectionally through a hydraulic actuating portion, which hydraulic actuating portion is configured to move the shaft (10, 20) axially, wherein the shaft (10, 20) furthermore extends at least sectionally through a rotary actuator portion, which rotary actuator portion has a stator, wherein in the rotary actuator portion a rotor is provided, which is fastened to the shaft (10, 20), characterised in that in the hydraulic actuating portion two hydrostatic bearings (130, 140) are provided, in order to support the shaft (10, 20).
A crankshaft for a reciprocating internal combustion piston engine, comprising a counterweight having a body with a proximal side at which the counterweight is attached to the crankshaft, and a freely extending distal side opposite to the proximal side, wherein the body comprises a cavity housing a solid insert, and wherein the body is of a monolithic structure defining the cavity, and wherein the cavity has a single opening towards the proximal side, through which opening the solid insert has been introduced into the cavity by casting, characterized in that a mating surface of the crankshaft, at which the counterweight is attached, covers the opening. wherein the body comprises a cavity housing a solid insert, and wherein the body is of a monolithic structure defining the cavity, and wherein the cavity has a single opening towards the proximal side, through which opening the solid insert has been introduced into the cavity by casting, characterized in that a mating surface of the crankshaft, at which the counterweight is attached, covers the opening.
An electrical connector comprising; an insulated housing on which a first engaging portion is provided for engaging with a second engaging portion provided in a mating electrical connector, a plurality of first conductive contacts provided on the insulated housing with portions thereof arranged on the first engaging portion and operative to come into contact with a plurality of second conductive contacts provided in the mating electrical connector when the first engaging portion is put in engagement with the second engaging portion, a conductive shell for covering partially the insulated housing, and a manipulative lever (16; 56; 76) having a body portion (21; 61; 81) and a pair of end portions (22a, 22b; 62a, 62b; 82a, 82b) extending respectively from both ends of the body portion (21; 61; 81), in which the end portions (22a, 22b; 62a, 62b; 82a, 82b) are supported respectively by a pair of supporting structures (30a, 30b) provided in the conductive shell to be rotatable in regard to the insulated housing and which is operative to be manipulated to rotate so as to cause the body portion (21: 61; 81) to engage with the mating connector when the first engaging portion is put in engagement with the second engaging portion, characterized in that each of the end portions (22a, 22b; 62a, 62b: 82a, 82b) of the manipulative lever (16; 56; 76) comprises an elongated portion (23a; 23b: 63a; 63b: 83a; 83b) stretching to be bent from the body portion (21; 61; 81) and a top end portion (24a; 24b: 64a; 64b; 84a: 84b) stretching further from the elongated portion (23a; 23b; 63a; 63b; 83a; 83b) so as to extend as a whole in a first direction from an end portion to a central portion of the insulated housing, the top end portion (24a; 24b; 64a; 64b; 84a; 84b) protrudes from the elongated portion (23a; 23b; 63a; 63b; 83a; 83b) in a direction perpendicular to an imaginary central axis of the elongated portion (23a; 23b; 63a; 63b; 83a; 83b), and a stopper member (32a; 32b) provided in the supporting structure (30a; 30b) engages with the top end portion (24a; 24b; 64a; 64b; 84a; 84b) so as to prevent the end portion (22a; 22b; 62a; 62b; 82a; 82b) of the manipulative lever (16; 56; 76) from getting out of the supporting structure (30a; 30b) when the end portion (22a; 22b; 62a; 62b; 82a; 82b) of the manipulative lever (16; 56; 76) is shifted in a second direction opposite to the first direction under a condition wherein the end portion (22a; 22b; 62a; 62b; 82a; 82b) of the manipulative lever (16; 56; 76) is supported by the supporting structure (30a; 30b).
A non-uniform axial-stiffness ureteral access sheath, comprising: an inner liner defining a longitudinally extending and generally uniform bore; a non-uniform axial-stiffness outer jacket defining a longitudinally tapered outer surface; and a reinforcement layer encapsulated between the inner liner and the non-uniform axial-stiffness outer jacket, characterized in that the reinforcement layer comprises a tapered coil, and the non-uniform axial-stiffness outer jacket defines a longitudinally tapered inner surface of the outer jacket. an inner liner defining a longitudinally extending and generally uniform bore; a non-uniform axial-stiffness outer jacket defining a longitudinally tapered outer surface; and a reinforcement layer encapsulated between the inner liner and the non-uniform axial-stiffness outer jacket, characterized in that the reinforcement layer comprises a tapered coil, and the non-uniform axial-stiffness outer jacket defines a longitudinally tapered inner surface of the outer jacket.