mhurhangee/patent-ind-claim-en huggingface dataset:
A method, implemented at a computer system that includes a plurality of processing units , for preserving memory values during trace replay, the method comprising: identifying , from among a plurality of trace data streams , a plurality of trace sections that each represents one or more events executed by an executable entity (501a-501c) over a period of time; performing a parallel replay of two or more of the plurality of trace sections at the plurality of processing units, including concurrently replaying each trace of the two or more trace sections at a different processing unit of the plurality of processing units; and while concurrently replaying each trace section at a different processing unit, maintaining a different persistence data structure corresponding to each trace section, including, for each trace section: storing , in the trace section's corresponding persistence data structure , a record of each memory address consumed by the processing unit while replaying the trace section, and a most recent memory value stored at each memory address during replay of the trace section. identifying , from among a plurality of trace data streams , a plurality of trace sections that each represents one or more events executed by an executable entity (501a-501c) over a period of time; performing a parallel replay of two or more of the plurality of trace sections at the plurality of processing units, including concurrently replaying each trace of the two or more trace sections at a different processing unit of the plurality of processing units; and while concurrently replaying each trace section at a different processing unit, maintaining a different persistence data structure corresponding to each trace section, including, for each trace section: storing , in the trace section's corresponding persistence data structure , a record of each memory address consumed by the processing unit while replaying the trace section, and a most recent memory value stored at each memory address during replay of the trace section.
A bridge inspection vehicle traveling mechanism, comprising: a frame ; a traveling member; a link rod ; a linear telescopic mechanism, one end thereof being hinged to the frame and the other end thereof being hinged to the traveling member, and the linear telescopic mechanism for driving the traveling member to be retracted upwardly or to be grounded downwardly; a second cylinder , a cylinder barrel thereof being hinged to the frame and a cylinder rod thereof being hinged to one end of the link rod , and the other end of the link rod being hinged to an exterior of the linear telescopic mechanism, the second cylinder for driving the linear telescopic mechanism to be lifted upwards obliquely or to be perpendicular to the ground downwardly; a slide rail , being fixedly connected to a lower surface of the frame ; the cylinder rod of the second cylinder is arranged in the slide rail ; anda slider , being slidable in the slide rail , the cylinder rod of the second cylinder and one end of the link rod are hinged to the slider ; wherein the slide rail comprising: a top plate , being fixedly connected to the lower surface of the frame , and two side plates , being arranged at two sides of the top plate respectively for enclosing the slider , the bottom portions of the two side plates both extend inwardly to form two bottom plates for supporting the slider , and between the two bottom plates is formed a gap for allowing running of the link rod . a frame ; a traveling member; a link rod ; a linear telescopic mechanism, one end thereof being hinged to the frame and the other end thereof being hinged to the traveling member, and the linear telescopic mechanism for driving the traveling member to be retracted upwardly or to be grounded downwardly; a second cylinder , a cylinder barrel thereof being hinged to the frame and a cylinder rod thereof being hinged to one end of the link rod , and the other end of the link rod being hinged to an exterior of the linear telescopic mechanism, the second cylinder for driving the linear telescopic mechanism to be lifted upwards obliquely or to be perpendicular to the ground downwardly; a slide rail , being fixedly connected to a lower surface of the frame ; the cylinder rod of the second cylinder is arranged in the slide rail ; anda slider , being slidable in the slide rail , the cylinder rod of the second cylinder and one end of the link rod are hinged to the slider ; wherein the slide rail comprising: a top plate , being fixedly connected to the lower surface of the frame , and two side plates , being arranged at two sides of the top plate respectively for enclosing the slider , the bottom portions of the two side plates both extend inwardly to form two bottom plates for supporting the slider , and between the two bottom plates is formed a gap for allowing running of the link rod .
Nose bar for a conveyor element , for a conveyor belt , comprising: - a frame part , having a head end comprising a gutter with a circle segment shaped cross section; - a rod with a circular cross section, having a radius equal to the circle segment of the cross section, wherein the conveyor belt is configured to be tensioned around the rod ; and characterised in that , the circular surface of the rod is arranged directly against the gutter of the frame part , substantially over the length of the rod or the gutter , whichever is longer, so that the rod is received form fittingly in the gutter . - a frame part , having a head end comprising a gutter with a circle segment shaped cross section; - a rod with a circular cross section, having a radius equal to the circle segment of the cross section, wherein the conveyor belt is configured to be tensioned around the rod ; and
A polymer having a weight-average molecular weight (Mw) of 20,000 or more and a degree of dispersion (Mw/Mn) of 2.5 or less and comprising a repeating unit represented by the following general formula and a cross-linkable group: wherein Ar 11 to Ar 13 each independently represents a divalent aromatic group which may have a substituent, Ar 14 and Ar 15 each independently represents an aromatic group which may have a substituent, Ar 16 represents a divalent aromatic group which may have a substituent, Ar 17 represents a direct bond or a divalent aromatic group which may have a substituent, R 11 and R 12 each independently represents a hydrogen atom, an alkyl group which may have a substituent, an alkoxy group which may have a substituent, or an aromatic group which may have a substituent, r represents an integer of from 0 to 5, and R 11 and R 12 may be connected to each other to form a ring structure, the repeating unit represented by the above-described general formula may contain the cross-linkable group, and the cross-linkable group is at least one group selected from the group T of the following cross-linkable groups: wherein R 23 represents a hydrogen atom or an alkyl group which may have a substituent, Ar 21 represents an aromatic group which may have a substituent, and R 24 represents a hydrogen atom or a vinyl group, in which the benzocyclobutene ring may have substituent(s), and the substituents may be connected to each other to form a ring. Ar 11 to Ar 13 each independently represents a divalent aromatic group which may have a substituent, Ar 14 and Ar 15 each independently represents an aromatic group which may have a substituent, Ar 16 represents a divalent aromatic group which may have a substituent, Ar 17 represents a direct bond or a divalent aromatic group which may have a substituent, R 11 and R 12 each independently represents a hydrogen atom, an alkyl group which may have a substituent, an alkoxy group which may have a substituent, or an aromatic group which may have a substituent, r represents an integer of from 0 to 5, and R 11 and R 12 may be connected to each other to form a ring structure, the repeating unit represented by the above-described general formula may contain the cross-linkable group, and the cross-linkable group is at least one group selected from the group T of the following cross-linkable groups: the repeating unit represented by the above-described general formula may contain the cross-linkable group, and the cross-linkable group is at least one group selected from the group T of the following cross-linkable groups: R 23 represents a hydrogen atom or an alkyl group which may have a substituent, Ar 21 represents an aromatic group which may have a substituent, and R 24 represents a hydrogen atom or a vinyl group, in which the benzocyclobutene ring may have substituent(s), and the substituents may be connected to each other to form a ring.
A torch ignitor system comprising: a torch wall defining a combustion chamber therein with a flame outlet passing out of the torch wall downstream of the combustion chamber ; a fuel injector mounted to the torch wall to issue fuel into the combustion chamber ; at least one ignitor mounted to the torch wall , positioned to ignite fuel issued from the fuel injector ; and a film cooler defined through the torch wall and operative to issue a film of cooling air from outside the torch wall along an interior surface of the combustion chamber for cooling the torch wall , wherein the film cooler includes a circumferential pattern of cooling holes defined through the torch wall , wherein the cooling holes are tangential relative to a longitudinal axis of the torch wall , characterized in that the torch ignitor system further comprises a circumferentially extending louver radially inward from the circumferential pattern of cooling holes for impingement of air from the cooling holes on the louver , wherein the louver opens in a downstream direction. a torch wall defining a combustion chamber therein with a flame outlet passing out of the torch wall downstream of the combustion chamber ; a fuel injector mounted to the torch wall to issue fuel into the combustion chamber ; at least one ignitor mounted to the torch wall , positioned to ignite fuel issued from the fuel injector ; and a film cooler defined through the torch wall and operative to issue a film of cooling air from outside the torch wall along an interior surface of the combustion chamber for cooling the torch wall , wherein the film cooler includes a circumferential pattern of cooling holes defined through the torch wall , wherein the cooling holes are tangential relative to a longitudinal axis of the torch wall ,
A system comprising: an implant comprising a nickel titanium alloy and having a proximal end and a distal end , the implant having an Austenite finish temperature of 22 °C or negative (-)15°C to negative (-)20°C, wherein the implant is shape set to a first substantially longitudinal configuration, and has a kink radius of no greater than 4.953 millimeters (0.195 inches), the kink radius being half the distance between the proximal and distal unkinked ends held parallel to each other when the implant is kinked by bending, and wherein the implant is configured to self-expand from a collapsed condition to an expanded condition; and a catheter configured to deliver the implant to a delivery site, the catheter being configured to maintain the implant in the collapsed condition, whereby upon release of the implant from the catheter, the implant moves to the expanded condition. an implant comprising a nickel titanium alloy and having a proximal end and a distal end , the implant having an Austenite finish temperature of 22 °C or negative (-)15°C to negative (-)20°C, wherein the implant is shape set to a first substantially longitudinal configuration, and has a kink radius of no greater than 4.953 millimeters (0.195 inches), the kink radius being half the distance between the proximal and distal unkinked ends held parallel to each other when the implant is kinked by bending, and wherein the implant is configured to self-expand from a collapsed condition to an expanded condition; and a catheter configured to deliver the implant to a delivery site, the catheter being configured to maintain the implant in the collapsed condition, whereby upon release of the implant from the catheter, the implant moves to the expanded condition.
A blow molding device , comprising: a blow mold inside which a cavity is provided for accommodating therein a preform , except for a mouth portion which is an orifice end of the preform , the preform being preformed in a bottomed tubular shape; a blow nozzle provided to supply a first pressurized fluid into the preform through the mouth portion of the preform ; characterized in that the device further comprises a partition wall member that air-tighlty or liquid-tightly surrounds an outer wall surface of the mouth portion of the preform with a tightly sealed space being formed between the outer wall surface of the mouth portion , the upper surface of the blow mold and the partition wall member to bring a lower end of the partition wall member into tight contact with an upper surface of the blow mold ; and a pressurized fluid supply unit (24; 124) that supplies a second pressurized fluid into the space during blow molding. a blow mold inside which a cavity is provided for accommodating therein a preform , except for a mouth portion which is an orifice end of the preform , the preform being preformed in a bottomed tubular shape; a blow nozzle provided to supply a first pressurized fluid into the preform through the mouth portion of the preform ; characterized in that the device further comprises a partition wall member that air-tighlty or liquid-tightly surrounds an outer wall surface of the mouth portion of the preform with a tightly sealed space being formed between the outer wall surface of the mouth portion , the upper surface of the blow mold and the partition wall member to bring a lower end of the partition wall member into tight contact with an upper surface of the blow mold ; and a pressurized fluid supply unit (24; 124) that supplies a second pressurized fluid into the space during blow molding.
Housing consisting of at least one first and one second housing part, which are connected together, and having at least one line or connection element introduced into the housing or guided out of the housing, wherein a peripheral slot is provided in the first housing part , a peripheral edge provided on the second housing part engaging in said slot and simultaneously pressing the line or connection element into the slot , wherein the slot is at least partially filled with a cured sealant that seals off the transition between the two housing parts and encloses the line or connection element , characterized in that the slot is widened in the region in which the line or connection element is guided through the slot , wherein that portion of the edge of the second housing part that engages in the widened region of the slot extends in a manner offset towards the inside with respect to an adjacent side wall of the second housing part .
A method for a user equipment, UE , the method comprising: receiving , through reception circuitry of the UE , a Synchronization Signal, SS, block bitmap for a secondary cell, SCell , or a primary secondary cell, PSCell, from a base station , the SS block bitmap having one or more SS block bits corresponding to one or more SS block indices; obtaining a resource location of one or more SS blocks from the SCell or the PSCell based on the SS block bitmap; wherein the SS block bitmap is configured by the base station , based on beam-related measurements of the SCell or the PSCell, through dedicated signaling when configuring the UE with the SCell or the PSCell. receiving , through reception circuitry of the UE , a Synchronization Signal, SS, block bitmap for a secondary cell, SCell , or a primary secondary cell, PSCell, from a base station , the SS block bitmap having one or more SS block bits corresponding to one or more SS block indices; obtaining a resource location of one or more SS blocks from the SCell or the PSCell based on the SS block bitmap; wherein the SS block bitmap is configured by the base station , based on beam-related measurements of the SCell or the PSCell, through dedicated signaling when configuring the UE with the SCell or the PSCell.
An aerosol generating apparatus comprising: a heater configured to generate an aerosol by heating an aerosol generating substrate; and a controller configured to monitor and control power supplied to the heater such that the heater generates the aerosol at a second target temperature lower than a first target temperature upon receiving an input of reheating the heater within a preset time after the heater generates the aerosol at the first target temperature. a heater configured to generate an aerosol by heating an aerosol generating substrate; and a controller configured to monitor and control power supplied to the heater such that the heater generates the aerosol at a second target temperature lower than a first target temperature upon receiving an input of reheating the heater within a preset time after the heater generates the aerosol at the first target temperature.
Fertilizer granules comprising magnesium, calcium, potassium, sulfate and urea, based in each case on the total weight of the granules, in the following amounts: urea, calculated as nitrogen, in an amount from 11.0% to 33.0% by weight, magnesium, in an amount from 1.0% to 3.5% by weight, calcium, in an amount from 3.5% to 9.0% by weight, potassium, in an amount from 3.4% to 9.0% by weight, and sulfate, calculated as elemental sulfur, in an amount from 5.5% to 15.0% by weight, where at least part of the calcium, of the urea and of the sulfate is present in the form of the crystalline phase of the formula (I) CaSO 4 *4 CO(NH 2 ) 2 (I) . urea, calculated as nitrogen, in an amount from 11.0% to 33.0% by weight, magnesium, in an amount from 1.0% to 3.5% by weight, calcium, in an amount from 3.5% to 9.0% by weight, potassium, in an amount from 3.4% to 9.0% by weight, and sulfate, calculated as elemental sulfur, in an amount from 5.5% to 15.0% by weight, where at least part of the calcium, of the urea and of the sulfate is present in the form of the crystalline phase of the formula (I) CaSO 4 *4 CO(NH 2 ) 2 (I) .
Injectable aqueous solution of hyaluronic acid with a molecular weight of between 1 MDa and 8 MDa for use in treating venous diseases, wherein the venous disease is selected from the group of venous insufficiency, varicose veins, ectasias or aneurysm, wherein said solution is administered by an extravascular injection around said veins.
A method comprising executing computer executable instructions by one or more processors, the method further comprising: - capturing with a camera image information from one or more objects or one or more occupants in a vehicle; - processing the image information; - receiving trigger information associated with one or more of the image information, the one or more objects, or the one or more occupants associated with the vehicle; - configuring one or more reflective surfaces (112; 204; 304), based at least in part on the received trigger information, the configuring comprising positioning the one or more reflective surfaces (112; 204; 304) with respect to the camera field of view; and - adjusting a position of the one or more reflective surfaces (112; 204; 304) based at least on the processing of the image information including selectively positioning two or more mirrors and utilizing the two or more mirrors in combination for accessing views that are not in a line-of-sight of the camera or the camera and single mirror combination. - capturing with a camera image information from one or more objects or one or more occupants in a vehicle; - processing the image information; - receiving trigger information associated with one or more of the image information, the one or more objects, or the one or more occupants associated with the vehicle; - configuring one or more reflective surfaces (112; 204; 304), based at least in part on the received trigger information, the configuring comprising positioning the one or more reflective surfaces (112; 204; 304) with respect to the camera field of view; and - adjusting a position of the one or more reflective surfaces (112; 204; 304) based at least on the processing of the image information including selectively positioning two or more mirrors and utilizing the two or more mirrors in combination for accessing views that are not in a line-of-sight of the camera or the camera and single mirror combination.
A method of predicting, determining and/or monitoring a risk of and/or progression towards Type 1 Diabetes (T1D) in an individual, the method comprising: a) determining a protein marker profile in a sample obtained from the individual, said profile comprising profilin-1 (PROF1) and filamin-A (FLNA), b) comparing the determined protein marker profile and a corresponding control profile, and c) responsive to the comparison, determining a prediction corresponding to a relative risk of the individual developing T1D or a stage of progression towards T1D. a) determining a protein marker profile in a sample obtained from the individual, said profile comprising profilin-1 (PROF1) and filamin-A (FLNA), b) comparing the determined protein marker profile and a corresponding control profile, and c) responsive to the comparison, determining a prediction corresponding to a relative risk of the individual developing T1D or a stage of progression towards T1D.
Device for real-time control of trajectory of an autonomous vehicle comprising a control module which produces in real time on the basis of a real or estimated vector of states (ξ k , ξ̂ k ) at each instant k of following of a lane by the vehicle moving at a current speed (v), a first turning command (u k ) to stabilize the trajectory of the vehicle with respect to said lane, comprising an anticipator module which generates a quantity (Ξ k +1 ,h) representative of a meta-vector (Γ k ) of disturbances for each predicted position of the vehicle at instants succeeding in given amount (N) the current instant (k) and of the vector of states (ξ k , ξ̂ k ) at the current instant (k), and in that the control module produces the first turning command (u k ) by quadratic optimization of a relation, characterized in that said relation is optimized between said representative quantity (Ξ k +1 ,h ) generated and a meta-vector (U k ) of successive turning commands for each predicted position of the vehicle at said instants succeeding in given amount (N) the current instant (k).
A filter comprising: a substrate in the form of a wall-flow filter, wherein said substrate has an inlet end portion and an outlet end portion and said substrate is comprised of a plurality of inlet channels and a plurality of outlet channels, and a catalyst disposed on said substrate, said catalyst comprising a support and a vanadate component, said vanadate component having a structure defined by the following formula: A X T Y VO 4 wherein "A" is an alkaline earth metal selected from the group consisting of Mg, Ca, Sr, and Ba and "X" is the molar ratio of the alkaline earth metal to vanadate; "T" is a metal selected from the group consisting of Fe, Bi, Al, Ga, In, Cu, Zn, Mo, Cr, Sb and Mn, and "Y" is the molar ratio of the metal to vanadate; and 0≤ X ≤1; 0≤ Y ≤1; and X + Y = 1; and wherein said vanadate component is disposed on the substrate in the form of a washcoat only to the end portion of the inlet and outlet channels at the outlet of the filter, where the end portion of the inlet and outlet channels is the axial section of the filter encompassing the inlet face or outlet face and having a length measured from either the inlet face or outlet face that is at most about half of the overall length of the filter. wherein "A" is an alkaline earth metal selected from the group consisting of Mg, Ca, Sr, and Ba and "X" is the molar ratio of the alkaline earth metal to vanadate; "T" is a metal selected from the group consisting of Fe, Bi, Al, Ga, In, Cu, Zn, Mo, Cr, Sb and Mn, and "Y" is the molar ratio of the metal to vanadate; and 0≤ X ≤1; 0≤ Y ≤1; and X + Y = 1; and