mhurhangee/ep-ind-claims huggingface dataset:
A tugger cart comprising: a tugger frame comprising a bottom, a top, a first side, a second side, a locking portion, a front end and a rear end, wherein the first side, the second side, and the locking portion are joined together, wherein the first side, and the second side form an inside portion in between, and an outside portion; a plurality of guide wheels attached within the inside portion of the tugger frame, wherein the plurality of guide wheels together form a slanted line slanting upward from the front end to the rear end; a plurality of casters (76, 78) attached to the bottom of the tugger frame; wherein the locking portion is configured to releasably secure a rider cart to the tugger frame when the rider cart is rolled onto the plurality of guide wheels, and wherein the locking portion comprises a latch system comprising at least one rocking arm pivotally attached at a pivot point, wherein the at least one rocking arm comprises a lock pedal near the rear end, an unlock pedal near the front end, and at least one locking peg protruding upwards from the at least one rocking arm, wherein the lock pedal is biased in an upward position and the unlock pedal is biased in a downward position, and wherein when the lock pedal is forced downward the unlock pedal and the at least one locking peg are forced upward. a tugger frame comprising a bottom, a top, a first side, a second side, a locking portion, a front end and a rear end, wherein the first side, the second side, and the locking portion are joined together, wherein the first side, and the second side form an inside portion in between, and an outside portion; a plurality of guide wheels attached within the inside portion of the tugger frame, wherein the plurality of guide wheels together form a slanted line slanting upward from the front end to the rear end; a plurality of casters (76, 78) attached to the bottom of the tugger frame; wherein the locking portion is configured to releasably secure a rider cart to the tugger frame when the rider cart is rolled onto the plurality of guide wheels, and wherein the locking portion comprises a latch system comprising at least one rocking arm pivotally attached at a pivot point, wherein the at least one rocking arm comprises a lock pedal near the rear end, an unlock pedal near the front end, and at least one locking peg protruding upwards from the at least one rocking arm, wherein the lock pedal is biased in an upward position and the unlock pedal is biased in a downward position, and wherein when the lock pedal is forced downward the unlock pedal and the at least one locking peg are forced upward.
An optical cable (1, 2, 3, 4, 5, 6) comprising an optical core (100, 200, 300, 400, 500, 600) and an external sheath (101, 201, 301, 401, 501, 601) surrounding said optical core (100, 200, 300, 400, 500, 600), wherein said external sheath (101, 201, 301, 401, 501, 601) comprises a first material having a first, higher fracture toughness and a second material having a second, lower fracture toughness, and wherein said first material and said second material are arranged so that said second, lower fracture toughness material is accessible from outside said cable (1, 2, 3, 4, 5, 6) along at least one longitudinally extending area of an outer surface of said sheath (101, 201, 301, 401, 501, 601), wherein said first material and said second material are selected so that a ratio between said higher fracture toughness K IC of said first material and said lower fracture toughness K IC of said second material is comprised between 1.2 and 7.5.
Method for determining an optical signal-to-noise ratio penalty as a measure for a quality of an optical signal transmitted via an optical link between a source optical node and a destination optical node in an optical network, the method comprising: collecting link information of the optical link; determining a configuration parameter P conf of the optical link based on the link information of the optical link; adjusting the configuration parameter P conf to an adjusted configuration parameter P' conf according to linear impairments in the optical link; and determining the optical signal-to-noise ratio penalty based on a non-linear function of the adjusted configuration parameter P' conf, the non-linear function accounting for non-linear impairments in the optical link, wherein the configuration parameter P conf of the optical link corresponds to an accumulated power along the optical link causing a predetermined degradation of the optical signal, and wherein the optical link comprises regenerators and spans which are portions of the optical link between two regenerators; and wherein the non-linear function of the adjusted configuration parameter P' conf depends on the adjusted configuration parameter P' conf, on a number of the spans N span and on a power level P i at a launching of the optical signal collecting link information of the optical link; determining a configuration parameter P conf of the optical link based on the link information of the optical link; adjusting the configuration parameter P conf to an adjusted configuration parameter P' conf according to linear impairments in the optical link; and determining the optical signal-to-noise ratio penalty based on a non-linear function of the adjusted configuration parameter P' conf, the non-linear function accounting for non-linear impairments in the optical link, wherein the configuration parameter P conf of the optical link corresponds to an accumulated power along the optical link causing a predetermined degradation of the optical signal, and wherein the optical link comprises regenerators and spans which are portions of the optical link between two regenerators; and wherein the non-linear function of the adjusted configuration parameter P' conf depends on the adjusted configuration parameter P' conf, on a number of the spans N span and on a power level P i at a launching of the optical signal
Sterilizing machine for loose products, comprising a treatment chamber able to house the loose products to be treated, said sterilizing machine being characterized in that it comprises, downstream of said treatment chamber: a container to transfer said loose products provided with a loading side of said loose products coming from said treatment chamber, an unloading side of said loose products, said container being made to rotate by means of a drive motor, around an axis that passes through said loading side and said unloading side; at least one helicoidal guide with several spirals positioned inside said container and configured to move and guide said loose products from said loading side to said unloading side; said container being connected, on said loading side and by means of first connecting and channeling means (19, 21, 25), to said treatment chamber and being connectable, during use, on said unloading side and by means of second connecting and channeling means (27, 28, 29), to a station to use said loose products, said first (19, 21, 25) and said second (27, 28, 29) connecting and channeling means being configured to guarantee continuity in the sterilization conditions obtained in said treatment chamber. a container to transfer said loose products provided with a loading side of said loose products coming from said treatment chamber, an unloading side of said loose products, said container being made to rotate by means of a drive motor, around an axis that passes through said loading side and said unloading side; at least one helicoidal guide with several spirals positioned inside said container and configured to move and guide said loose products from said loading side to said unloading side; said container being connected, on said loading side and by means of first connecting and channeling means (19, 21, 25), to said treatment chamber and being connectable, during use, on said unloading side and by means of second connecting and channeling means (27, 28, 29), to a station to use said loose products, said first (19, 21, 25) and said second (27, 28, 29) connecting and channeling means being configured to guarantee continuity in the sterilization conditions obtained in said treatment chamber.
A medical tool for removing tooth fragments, in particular tooth roots and/or tooth root remnants, from a tooth socket or an alveolus in the jaw region, comprising a base and a needle which is arranged on the base, characterised in that the needle is formed in one piece and has a retentive section and a drill section, wherein the retentive section has at least one retentive element, wherein the retentive element is formed as barbed hooks.
A monolithic paperboard container lid comprising: a single contiguous molded paperboard body configured to conformingly couple to a top periphery of a container for covering the container's opening; wherein the paperboard body comprises a sealing channel located adjacent the body's periphery; wherein the sealing channel comprises a radiused cross-section; wherein the radiused cross-section extends to a tangent ring; wherein the radiused cross-section has a radius greater than 180 degrees and wherein the radiused cross-section and tangent ring are configured to at least partially wrap around the top periphery of the container to assist providing a snug friction fit between the paperboard container lid and the container; characterised in that: despite being made from paperboard the paperboard container lid is substantially crimpless and does not include one or more substantial crimps in the sealing channel; the paperboard container lid is configured to fit onto the container and prevent fluid from leaking between the container's periphery and the paperboard lid; and The tangent ring terminates with a tab ring wherein the tab ring flares outward from the tangent ring providing a lip for grasping the paperboard container lid. a single contiguous molded paperboard body configured to conformingly couple to a top periphery of a container for covering the container's opening; wherein the paperboard body comprises a sealing channel located adjacent the body's periphery; wherein the sealing channel comprises a radiused cross-section; wherein the radiused cross-section extends to a tangent ring; wherein the radiused cross-section has a radius greater than 180 degrees and wherein the radiused cross-section and tangent ring are configured to at least partially wrap around the top periphery of the container to assist providing a snug friction fit between the paperboard container lid and the container; characterised in that: despite being made from paperboard the paperboard container lid is substantially crimpless and does not include one or more substantial crimps in the sealing channel; the paperboard container lid is configured to fit onto the container and prevent fluid from leaking between the container's periphery and the paperboard lid; and The tangent ring terminates with a tab ring wherein the tab ring flares outward from the tangent ring providing a lip for grasping the paperboard container lid. despite being made from paperboard the paperboard container lid is substantially crimpless and does not include one or more substantial crimps in the sealing channel; the paperboard container lid is configured to fit onto the container and prevent fluid from leaking between the container's periphery and the paperboard lid; and The tangent ring terminates with a tab ring wherein the tab ring flares outward from the tangent ring providing a lip for grasping the paperboard container lid.
A system for regulating a temperature of a thermal energy carrying fluid in a sector of a fluid distribution network, the fluid distribution network comprising a feed line for transporting the fluid from a thermal energy source to at least one thermal energy consumer located within the sector and a return line for transporting the fluid back from the at least one thermal energy consumer to the thermal energy source, wherein the system comprises - a bypass line connecting the return line to the feed line for mixing fluid from the return line into the feed line, - at least one bypass pump being arranged at the by-pass line for pumping fluid from the return line to the feed line, - a control unit (27, 41, 43) being configured to control a speed ( ω) of the at least one bypass pump, - at least one temperature sensor being arranged and configured to determine a temperature ( T 1) of the fluid in the feed line downstream of the bypass line, and - at least one pressure sensor being arranged and configured to determine an uncontrolled pressure difference (Δp) between the feed line and the return line, or a pressure difference correlating therewith, wherein the control unit (27, 41, 43) is configured to control the speed ( ω) of the at least one bypass pump based on a combination of: - a closed-loop control to provide a fluid flow in the bypass line for achieving a target feed line temperature ( T 1 ∗) based on the determined feed line temperature ( T 1), wherein the control unit (27, 41, 43) is configured to set a target bypass fluid flow q* ( T 1) to minimize a deviation e T = T 1 ∗ − T 1 between the determined feed line temperature T 1 and the target feed line temperature T 1 ∗, and - a feed-forward control to compensate fluctuations of the pressure difference (Δ p) between the feed line and the return line based on the determined pressure difference (Δp). - a bypass line connecting the return line to the feed line for mixing fluid from the return line into the feed line, - at least one bypass pump being arranged at the by-pass line for pumping fluid from the return line to the feed line, - a control unit (27, 41, 43) being configured to control a speed ( ω) of the at least one bypass pump, - at least one temperature sensor being arranged and configured to determine a temperature ( T 1) of the fluid in the feed line downstream of the bypass line, and - at least one pressure sensor being arranged and configured to determine an uncontrolled pressure difference (Δp) between the feed line and the return line, or a pressure difference correlating therewith, - a closed-loop control to provide a fluid flow in the bypass line for achieving a target feed line temperature ( T 1 ∗) based on the determined feed line temperature ( T 1), wherein the control unit (27, 41, 43) is configured to set a target bypass fluid flow q* ( T 1) to minimize a deviation e T = T 1 ∗ − T 1 between the determined feed line temperature T 1 and the target feed line temperature T 1 ∗, and - a feed-forward control to compensate fluctuations of the pressure difference (Δ p) between the feed line and the return line based on the determined pressure difference (Δp).
A method comprising: receiving (4.1) user tracking data from a user tracking system, the user tracking data comprising at least one tracking parameter, wherein each tracking parameter indicates a location of a respective tracking sensor or marker worn by a user of the user tracking system; determining (4.2) whether one or more tracking parameters are missing; in response to determining that one or more tracking parameters are missing, sending (4.6) a request to a server for a prediction model for estimating the one or more missing tracking parameters, wherein the prediction model is created or updated by the server by using as input tracking data from another tracking system having tracking parameters coming from a superset of the tracking sensors or markers of the user tracking system, wherein the request comprises an application identifier; receiving (4.7) the prediction model from the server; and calculating (4.8) an estimation of the one or more missing tracking parameters based on the received prediction model and the received user tracking data. receiving (4.1) user tracking data from a user tracking system, the user tracking data comprising at least one tracking parameter, wherein each tracking parameter indicates a location of a respective tracking sensor or marker worn by a user of the user tracking system; determining (4.2) whether one or more tracking parameters are missing; in response to determining that one or more tracking parameters are missing, sending (4.6) a request to a server for a prediction model for estimating the one or more missing tracking parameters, wherein the prediction model is created or updated by the server by using as input tracking data from another tracking system having tracking parameters coming from a superset of the tracking sensors or markers of the user tracking system, wherein the request comprises an application identifier; receiving (4.7) the prediction model from the server; and calculating (4.8) an estimation of the one or more missing tracking parameters based on the received prediction model and the received user tracking data.
Process for the preparation of zinc alkyl chain growth products via a catalysed chain growth reaction of an alpha-olefin on a zinc alkyl, comprising contacting an olefin with a zinc alkyl and a chain growth catalyst system comprising one or more complexes of group 3-10 transition metal, or a group 3 main group metal, or a lanthanide or actinide, and optionally a suitable activator.
A method of determining whether a given single nucleotide is methylated or not methylated characterised by the steps of (a) contacting the single nucleotide in the form of an isolated nucleotide triphosphate molecule with one or more hybridisation probes types each of which in its unused form comprises a first hairpin oligonucleotide including a 5' overhang and to which is attached one or more first detectable elements in an essentially undetectable state and which further comprises (i) double- and single-stranded regions and (ii) a region resistant to exonucleolytic degradation located at the 3' end of the double-stranded region adjacent the single-stranded region and a second single-stranded oligonucleotide to which is attached one or more second detectable elements also in an essentially undetectable state and which is adapted to be at least in part complementary to the 5' overhang starting from the second nucleotide of the overhang; (b) hybridizing said second single-stranded oligonucleotide to said 5' overhang and for the relevant probe type creating a substantially double-stranded used probe by binding the isolated single nucleotide to the 3' end of the first oligonucleotide and the 5' end of the second oligonucleotide using a polymerase and a ligase; either treating the used probe with a methylation-dependent restriction endonuclease under conditions whereby the used probe is cleaved adjacent the region resistant to exonucleolytic degradation into two double-stranded oligonucleotide products if the single nucleotide is methylated or treating the used probe with a methylation-sensitive restriction endonuclease under conditions whereby the used probe is cleaved adjacent the region resistant to exonucleolytic degradation into two double-stranded oligonucleotide products if the single nucleotide is not methylated so that in either case the region resistant to exonucleolytic degradation remains attached to that part of the cleaved used probe comprising the second oligonucleotide; and thereafter either treating the product of step with either an exonuclease or a polymerase each of which exhibits 3'-5' double-stranded exonuclease activity but neither 5'-3' nor single-stranded exonuclease activity to liberate either only first or both first and second detectable elements in a detectable state if the single nucleotide is methylated, or only the second detectable elements if not or treating the product of step with either an exonuclease or a polymerase each of which exhibits 3'-5' double-stranded exonuclease activity but neither 5'-3' nor single-stranded exonuclease activity to liberate either only first or both first and second detectable elements in a detectable state if the single nucleotide is not methylated, or only the second detectable elements if the single nucleotide is methylated.
A gas cooking appliance (1; 101), comprising a support frame (2; 102), at least one burner (3; 103) rigidly connected to said support frame, and a gas feeding circuit (4; 104) to feed gas to said burner, characterized in that at least three of the following components of the gas cooking appliance are made of a thermosetting material: • at least one burner body, being part of said at least one burner; • a spark plug body, connected to said at least one burner; • a gas rail (8; 108), being part of said gas feeding circuit, connected to said support frame; • at least one gas connection pipe (10; 110), being part of said gas feeding circuit, to feed gas from the gas rail (8; 108) to said at least one burner (3; 103); • a connection member, being part of said gas feeding circuit, for connecting the gas rail to an external feeding pipe; and • at least part of the support frame (2; 102); wherein at least three of said components are made as a single piece of thermosetting material, and wherein said single piece includes at least part of the support frame (2; 102), the gas rail (8; 108) and the connection member. • at least one burner body, being part of said at least one burner; • a spark plug body, connected to said at least one burner; • a gas rail (8; 108), being part of said gas feeding circuit, connected to said support frame; • at least one gas connection pipe (10; 110), being part of said gas feeding circuit, to feed gas from the gas rail (8; 108) to said at least one burner (3; 103); • a connection member, being part of said gas feeding circuit, for connecting the gas rail to an external feeding pipe; and • at least part of the support frame (2; 102);