mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating a storage controller which is configured to communicate with a host including a submission queue (SQ) and a completion queue (CQ), the method comprising: receiving (S122) a submission queue doorbell from the host ; fetching (S123) a first command (CMD) from the submission queue (SQ) of the host in response to the received submission queue doorbell, wherein the first command (CMD) includes latency information; processing (S124) the fetched first command (CMD); determining (S125) a timing to write a first completion (COMP) into the completion queue (CQ), the timing being based on the latency information, and writing (S126) the first completion (COMP), which indicates that the first command (CMD) is completely processed, into the completion queue (CQ) of the host based on the determined timing. receiving (S122) a submission queue doorbell from the host ; fetching (S123) a first command (CMD) from the submission queue (SQ) of the host in response to the received submission queue doorbell, wherein the first command (CMD) includes latency information; processing (S124) the fetched first command (CMD); determining (S125) a timing to write a first completion (COMP) into the completion queue (CQ), the timing being based on the latency information, and writing (S126) the first completion (COMP), which indicates that the first command (CMD) is completely processed, into the completion queue (CQ) of the host based on the determined timing.
A method for a first User Equipment, in the following also referred to as UE, to perform a procedure for updating Layer-2 Identities, in the following also referred to as IDs, comprising: establishing a unicast link with a second UE, wherein a first Layer-2 ID of the first UE and a second Layer-2 ID of the second UE are used for data transmission and reception on the unicast link ; generating a first Link Identifier Update Request message of the procedure for updating Layer-2 IDs for the unicast link; starting a timer corresponding to the procedure for updating Layer-2 IDs after the first Link Identifier Update Request message is generated; transmitting the first Link Identifier Update Request message to the second UE, wherein the first Link Identifier Update Request message includes a new first Layer-2 ID of the first UE ; characterized by aborting the procedure for updating Layer-2 IDs and stopping the timer if the first UE receives a second Link Identifier Update Request message from the second UE when the timer is running. establishing a unicast link with a second UE, wherein a first Layer-2 ID of the first UE and a second Layer-2 ID of the second UE are used for data transmission and reception on the unicast link ; generating a first Link Identifier Update Request message of the procedure for updating Layer-2 IDs for the unicast link; starting a timer corresponding to the procedure for updating Layer-2 IDs after the first Link Identifier Update Request message is generated; transmitting the first Link Identifier Update Request message to the second UE, wherein the first Link Identifier Update Request message includes a new first Layer-2 ID of the first UE ; characterized by aborting the procedure for updating Layer-2 IDs and stopping the timer if the first UE receives a second Link Identifier Update Request message from the second UE when the timer is running.
A cooling eye mask , comprising: an exterior material layer ; an interior material layer ; an absorbent material layer maintained between the exterior material layer and the interior material layer , wherein water absorbed by the absorbent material layer may evaporate from the cooling eye mask ; a left eye opening extending through the exterior material layer , the interior material layer , and the absorbent material layer at a left face portion of the cooling mask ; a right eye opening extending through the exterior material layer , the interior material layer , and the absorbent material layer at a right face portion of the cooling mask ; characterized by a first strap system extending laterally away from the left face portion , including a left superior strap , which extends from the left face portion over the user's ear and around the user's head, and a left inferior strap , which extends from the left face portion under the user's ear and around the user's head; and a second strap system extending laterally from the right face portion , including a right superior strap and a right inferior strap , wherein the first strap system is configured to be releasably coupled to the second strap system, Wherein the left and right eye openings are proximate a nose opening in the centre of the mask , and the nose opening accommodates the user's nose and centres the mask on the user's face. an exterior material layer ; an interior material layer ; an absorbent material layer maintained between the exterior material layer and the interior material layer , wherein water absorbed by the absorbent material layer may evaporate from the cooling eye mask ; a left eye opening extending through the exterior material layer , the interior material layer , and the absorbent material layer at a left face portion of the cooling mask ; a right eye opening extending through the exterior material layer , the interior material layer , and the absorbent material layer at a right face portion of the cooling mask ; characterized by a first strap system extending laterally away from the left face portion , including a left superior strap , which extends from the left face portion over the user's ear and around the user's head, and a left inferior strap , which extends from the left face portion under the user's ear and around the user's head; and a second strap system extending laterally from the right face portion , including a right superior strap and a right inferior strap , wherein the first strap system is configured to be releasably coupled to the second strap system,
A method of manufacturing a hot-dip galvanized steel sheet, the method comprising: preparing a base steel sheet; forming an iron Fe-plated layer on the prepared base steel sheet wherein a coating weight of the Fe-plated layer is in a range of 0.25 g/m 2 to 2 g/m 2 ; oxidation heating the steel sheet having the Fe-plated layer formed thereon at a temperature ranging from 640°C to 750°C, wherein the heating is performed in a direct flame furnace by controlling an air-fuel ratio as defined herein, and the air-fuel ratio is controlled to be between 1.08 and 1.35; maintaining the heated steel sheet at a temperature ranging from 780°C to 850°C for 10-60 seconds in a reducing atmosphere with a dew point of between -10°C to 5°C including 20 ppm or less of oxygen, 2 vol% to 20 vol% of H 2 , and N 2 as well as unavoidable gases as a remainder; cooling the maintained steel sheet; and plating the cooled steel sheet by dipping in a hot-dip galvanizing bath, wherein a temperature of the hot-dip galvanizing bath is in a range of 445°C to 470°C, wherein the base steel sheet comprises 0.3 wt% or less of carbon (C), 1.0 wt% to 6.0 wt% of one or more of silicon (Si), manganese (Mn), and aluminum (Al), and 0.5 wt% or less of one or more of chromium (Cr), nickel (Ni), copper (Cu), molybdenum (Mo), phosphorous (P), sulfur (S), antimony (Sb), titanium (Ti), niobium (Nb), and nitrogen (N). preparing a base steel sheet; forming an iron Fe-plated layer on the prepared base steel sheet wherein a coating weight of the Fe-plated layer is in a range of 0.25 g/m 2 to 2 g/m 2 ; oxidation heating the steel sheet having the Fe-plated layer formed thereon at a temperature ranging from 640°C to 750°C, wherein the heating is performed in a direct flame furnace by controlling an air-fuel ratio as defined herein, and the air-fuel ratio is controlled to be between 1.08 and 1.35; maintaining the heated steel sheet at a temperature ranging from 780°C to 850°C for 10-60 seconds in a reducing atmosphere with a dew point of between -10°C to 5°C including 20 ppm or less of oxygen, 2 vol% to 20 vol% of H 2 , and N 2 as well as unavoidable gases as a remainder; cooling the maintained steel sheet; and plating the cooled steel sheet by dipping in a hot-dip galvanizing bath, wherein a temperature of the hot-dip galvanizing bath is in a range of 445°C to 470°C, wherein the base steel sheet comprises 0.3 wt% or less of carbon (C), 1.0 wt% to 6.0 wt% of one or more of silicon (Si), manganese (Mn), and aluminum (Al), and 0.5 wt% or less of one or more of chromium (Cr), nickel (Ni), copper (Cu), molybdenum (Mo), phosphorous (P), sulfur (S), antimony (Sb), titanium (Ti), niobium (Nb), and nitrogen (N).
Device for detecting strains and transmitting detected data, comprising an electrically insulating matrix in which there are embedded at least: - one or more strain sensors , made as resistive conductive elements, the dimensional variations of which bring about variations of electrical resistance; - an electronic circuit electrically connected to said one or more sensors at corresponding contacts or pads and adapted to detect said electrical resistance variations; - an antenna electrically connected to said electronic circuit at corresponding contacts or pads and adapted to transmit said electrical resistance variations detected by said electronic circuit to an external instrument, wherein said one or more strain sensors are made of a material selected from the group comprising electrically conductive resins and electrically conductive inks, characterized in that a shielding layer made of ferritic material coupled to said electronic circuit and to said antenna is further embedded in said electrically insulating matrix . - one or more strain sensors , made as resistive conductive elements, the dimensional variations of which bring about variations of electrical resistance; - an electronic circuit electrically connected to said one or more sensors at corresponding contacts or pads and adapted to detect said electrical resistance variations; - an antenna electrically connected to said electronic circuit at corresponding contacts or pads and adapted to transmit said electrical resistance variations detected by said electronic circuit to an external instrument, wherein said one or more strain sensors are made of a material selected from the group comprising electrically conductive resins and electrically conductive inks, characterized in that a shielding layer made of ferritic material coupled to said electronic circuit and to said antenna is further embedded in said electrically insulating matrix .
A wearable system for detecting an anomalous biologic event in a person, comprising: a body having a first surface opposite a second surface in contact with a skin surface of a person; a stimulus source in communication with the skin surface, wherein the stimulus source is configured to apply a stimulus to the skin surface; a blood volume sensor positioned on the second surface and configured to measure a blood volume of the skin surface; and a hardware processor communicatively coupled to the stimulus source and the blood volume sensor , wherein the hardware processor is configured to: receive a baseline blood volume signal from the blood volume sensor , output a stimulus signal to the stimulus source to initiate a stimulus cycle, receive a second blood volume signal from the blood volume sensor in response to the initiation of the stimulus cycle, compare the second blood volume signal to the baseline blood volume signal, and determine whether an anomalous biologic event has occurred based on the comparison; and characterized in that the stimulus source is positioned concentrically about the blood volume sensor . a body having a first surface opposite a second surface in contact with a skin surface of a person; a stimulus source in communication with the skin surface, wherein the stimulus source is configured to apply a stimulus to the skin surface; a blood volume sensor positioned on the second surface and configured to measure a blood volume of the skin surface; and a hardware processor communicatively coupled to the stimulus source and the blood volume sensor , wherein the hardware processor is configured to: receive a baseline blood volume signal from the blood volume sensor , output a stimulus signal to the stimulus source to initiate a stimulus cycle, receive a second blood volume signal from the blood volume sensor in response to the initiation of the stimulus cycle, compare the second blood volume signal to the baseline blood volume signal, and determine whether an anomalous biologic event has occurred based on the comparison; receive a baseline blood volume signal from the blood volume sensor , output a stimulus signal to the stimulus source to initiate a stimulus cycle, receive a second blood volume signal from the blood volume sensor in response to the initiation of the stimulus cycle, compare the second blood volume signal to the baseline blood volume signal, and determine whether an anomalous biologic event has occurred based on the comparison;
A method for an in-vehicle computing system , comprising: receiving aggregated input from a wearable device , the aggregated input regarding a physical condition and an environment of a user of the wearable device; automatically selecting settings for one or more components of the in-vehicle computing system , before receiving input from the user via a user interface, based on the aggregated input, the settings adjusted for the user based on a change in the physical condition and environment of the user; and transmitting control instructions to the one or more components of the in-vehicle computing system based on the automatically selected settings, wherein the wearable device is worn by the user; and the aggregated input from the wearable device is received while the user is outside the vehicle. receiving aggregated input from a wearable device , the aggregated input regarding a physical condition and an environment of a user of the wearable device; automatically selecting settings for one or more components of the in-vehicle computing system , before receiving input from the user via a user interface, based on the aggregated input, the settings adjusted for the user based on a change in the physical condition and environment of the user; and transmitting control instructions to the one or more components of the in-vehicle computing system based on the automatically selected settings, wherein the wearable device is worn by the user; and the aggregated input from the wearable device is received while the user is outside the vehicle.
A ground covering comprising: a base panel including a sheet with an array of protrusions extending therefrom; a top panel including an array of receptacles for mating with at least a number of said protrusions ; one or more drainage conduits formed through each of the protrusions , each drainage conduit being at least partially occluded by a baffle ; complementary engagement formations on peripheries of the protrusions and of the receptacles for fastening the top panel to the base panel; characterized in that each protrusion comprises a plate with a skirt thereabout and the sheet is formed with openings therethrough, wherein each plate is located over one of the openings and held fast by one or more support members extending from the sheet to the skirt . a base panel including a sheet with an array of protrusions extending therefrom; a top panel including an array of receptacles for mating with at least a number of said protrusions ; one or more drainage conduits formed through each of the protrusions , each drainage conduit being at least partially occluded by a baffle ; complementary engagement formations on peripheries of the protrusions and of the receptacles for fastening the top panel to the base panel; characterized in that each protrusion comprises a plate with a skirt thereabout and the sheet is formed with openings therethrough, wherein each plate is located over one of the openings and held fast by one or more support members extending from the sheet to the skirt .
A cache system, comprising: a cache core server , configured to send information about a Transmission Control Protocol flow; and a cache edge server , configured to receive the information from the cache core server to determine, according to the information, whether the cache edge server stores a content corresponding to the information, and send a migrate-out request to the cache core server based on that the cache edge server stores the content corresponding to the information; wherein the cache core server is further configured to: based on the migrate-out request, disable a Transmission Control Protocol connection to user equipment, and transfer a migrate-out response to the cache edge server; and the cache edge server is further configured to perform a Transmission Control Protocol connection to the user equipment according to the migrate-out response, to transfer content to the user equipment by using the Transmission Control Protocol connection. a cache core server , configured to send information about a Transmission Control Protocol flow; and a cache edge server , configured to receive the information from the cache core server to determine, according to the information, whether the cache edge server stores a content corresponding to the information, and send a migrate-out request to the cache core server based on that the cache edge server stores the content corresponding to the information; wherein the cache core server is further configured to: based on the migrate-out request, disable a Transmission Control Protocol connection to user equipment, and transfer a migrate-out response to the cache edge server; and the cache edge server is further configured to perform a Transmission Control Protocol connection to the user equipment according to the migrate-out response, to transfer content to the user equipment by using the Transmission Control Protocol connection.
Endoscopic device (16a-j) having at least one shaft (26a; 26b; 26c; 26d; 26i; 26j), which has at least one portion deflectable in at least one plane , and having at least one deflection mechanism (46a-j), which is configured to deflect the deflectable portion and comprises, arranged in series, at least one first connection member (48a; 48c; 48e; 48i) and at least one second connection member (50a; 50c; 50e; 50f; 50g; 50h; 50i) interacting for a deflection with the first connection member (48a; 48c; 48e; 48i), and at least one control train (80a; 80d; 80e) which, in order to adjust a deflection of the deflectable portion , is coupled to the connection members (48a; 48c; 48e; 48i; 50a; 50c; 50e; 50f; 50g; 50h; 50i) and is connected to an end portion (28a; 28d; 28j) of the shaft (26a; 26b; 26c; 26d, 26i; 26j), characterized in that at least one part of the control train (80a; 80d; 80e) in the region of the end portion (28a; 28d; 28j) of the shaft (26a; 26b; 26c; 26d; 26i; 26j) is arranged to form a loop-back (84a; 84d), the end portion (28a; 28d; 28j) of the shaft (26a; 26b; 26c; 26d; 26i; 26j) has at least one train receptacle in which at least one part of the control train (80a; 80d; 80e) forming the loop-back (84a; 84d) is arranged, and the train receptacle has a horseshoe-shaped and/or keyhole-shaped contour.
Method for collecting in reels at least one elongated element for building a tyre, comprising: - associating, with a production station of said at least one elongated element , at least one storage station for said at least one elongated element including a first support for a first reel and a second support for a second reel which can be independently caused to rotate about respective rotation axes (X; X'), - evaluating whether said at least one elongated element has to be coupled to a service film before being wound on a reel, wherein: - if said at least one elongated element does not have to be coupled to a service film before being wound on a reel, winding two of said elongated elements on said first reel and on said second reel , respectively; - if said at least one elongated element has to be coupled to a service film before being wound on a reel: a) providing on said second support a second reel on which said service film is wound, b) guiding said service film through an auxiliary storage unit which is provided on said storage station, c) coupling said service film to said elongated element , d) winding said elongated element coupled to said service film on said first reel which is positioned on said first support . - associating, with a production station of said at least one elongated element , at least one storage station for said at least one elongated element including a first support for a first reel and a second support for a second reel which can be independently caused to rotate about respective rotation axes (X; X'), - evaluating whether said at least one elongated element has to be coupled to a service film before being wound on a reel, wherein: - if said at least one elongated element does not have to be coupled to a service film before being wound on a reel, winding two of said elongated elements on said first reel and on said second reel , respectively; - if said at least one elongated element has to be coupled to a service film before being wound on a reel: a) providing on said second support a second reel on which said service film is wound, b) guiding said service film through an auxiliary storage unit which is provided on said storage station, c) coupling said service film to said elongated element , d) winding said elongated element coupled to said service film on said first reel which is positioned on said first support . a) providing on said second support a second reel on which said service film is wound, b) guiding said service film through an auxiliary storage unit which is provided on said storage station, c) coupling said service film to said elongated element , d) winding said elongated element coupled to said service film on said first reel which is positioned on said first support .