mhurhangee/ep-ind-claims huggingface dataset:
A transport refrigeration system comprising: an engine; a refrigeration unit powered by the engine; wherein the engine is a multi-fuel capable engine and the transport refrigeration system further comprises: a gasoline fuel system operably connected to the engine; a propane fuel system operably connected to the engine; a natural gas fuel system (130, 140) operably connected to the engine, the natural gas fuel system (130, 140) including at least one of a compressed natural gas fuel system and a liquefied natural gas fuel system; and a controller configured to command a fuel to the engine from the gasoline fuel system, the propane fuel system or the natural gas fuel system (130, 140), the controller being configured to adjust the operation of the engine in response to the fuel commanded; characterized in that the gasoline fuel system, the propane fuel system and the natural gas fuel system (130, 140) are separate modules being removably connected to the engine. an engine; a refrigeration unit powered by the engine; wherein the engine is a multi-fuel capable engine and the transport refrigeration system further comprises: a gasoline fuel system operably connected to the engine; a propane fuel system operably connected to the engine; a natural gas fuel system (130, 140) operably connected to the engine, the natural gas fuel system (130, 140) including at least one of a compressed natural gas fuel system and a liquefied natural gas fuel system; and a controller configured to command a fuel to the engine from the gasoline fuel system, the propane fuel system or the natural gas fuel system (130, 140), the controller being configured to adjust the operation of the engine in response to the fuel commanded; characterized in that the gasoline fuel system, the propane fuel system and the natural gas fuel system (130, 140) are separate modules being removably connected to the engine. a gasoline fuel system operably connected to the engine; a propane fuel system operably connected to the engine; a natural gas fuel system (130, 140) operably connected to the engine, the natural gas fuel system (130, 140) including at least one of a compressed natural gas fuel system and a liquefied natural gas fuel system; and a controller configured to command a fuel to the engine from the gasoline fuel system, the propane fuel system or the natural gas fuel system (130, 140), the controller being configured to adjust the operation of the engine in response to the fuel commanded; characterized in that the gasoline fuel system, the propane fuel system and the natural gas fuel system (130, 140) are separate modules being removably connected to the engine.
Method for identifying and classifying static radar targets using a radar sensor of a motor vehicle, the method comprising: identifying an object as a static radar target based on the received radar signals reflected by the object, generating an occupancy pattern in an occupancy grid based on the received radar signals reflected by the object, storing an assignment that assigns the generated occupancy pattern to the static radar target, characterized in that, subsequent to the generation of the occupancy pattern in the occupancy grid and subsequent to the storage of the assignment, classifying or reclassifying the static radar target as associated with one of a plurality of groups of static radar targets based on characteristic features of radar signatures of the received radar signals reflected by the corresponding object, wherein the characteristic features include: azimuth angle, elevation angle, radial distance, relative velocity and/or backscatter characteristics, or a combination of several of these features. identifying an object as a static radar target based on the received radar signals reflected by the object, generating an occupancy pattern in an occupancy grid based on the received radar signals reflected by the object, storing an assignment that assigns the generated occupancy pattern to the static radar target, characterized in that, subsequent to the generation of the occupancy pattern in the occupancy grid and subsequent to the storage of the assignment, classifying or reclassifying the static radar target as associated with one of a plurality of groups of static radar targets based on characteristic features of radar signatures of the received radar signals reflected by the corresponding object, wherein the characteristic features include: azimuth angle, elevation angle, radial distance, relative velocity and/or backscatter characteristics, or a combination of several of these features.
A network service unit, comprising: a plurality of transceivers respectively coupled to a plurality of subscriber lines; an interface coupled to a network connection and configured to receive a data stream from the network connection; a multiplexer configured to multiplex the data stream and to transmit packets of the data stream to the plurality of transceivers; and characterized by dynamic rate allocation, DRA, logic configured to ensure that an average power dissipated by at least the plurality of transceivers during a time interval is below an average power limit, while permitting a peak power dissipated by at least the plurality of transceivers to exceed the average power limit during a time period that is shorter than and within the time interval, by controlling, based on the average power limit, allocation of timeslots for frames communicated across the subscriber lines by the transceivers during the time interval. a plurality of transceivers respectively coupled to a plurality of subscriber lines; an interface coupled to a network connection and configured to receive a data stream from the network connection; a multiplexer configured to multiplex the data stream and to transmit packets of the data stream to the plurality of transceivers; and characterized by dynamic rate allocation, DRA, logic configured to ensure that an average power dissipated by at least the plurality of transceivers during a time interval is below an average power limit, while permitting a peak power dissipated by at least the plurality of transceivers to exceed the average power limit during a time period that is shorter than and within the time interval, by controlling, based on the average power limit, allocation of timeslots for frames communicated across the subscriber lines by the transceivers during the time interval.
A method for access protection for external data (116, 117, 119) in the non-volatile memory of a token in relation to an external interface of the token, comprising the steps of: - carrying out a protocol between the token and an external data host computer for mutual authentication via the external interface; - transmitting a cryptographic sector identifier from the one external data host computer to the token via the external interface; - generating a temporary key from the transmitted cryptographic sector identifier by the token; - transmitting external data from the one external data host computer via the external interface for storage in the non-volatile memory; and - encrypting the external data using the temporary key by means of the token, and storing the encrypted external data in the non-volatile memory. - carrying out a protocol between the token and an external data host computer for mutual authentication via the external interface; - transmitting a cryptographic sector identifier from the one external data host computer to the token via the external interface; - generating a temporary key from the transmitted cryptographic sector identifier by the token; - transmitting external data from the one external data host computer via the external interface for storage in the non-volatile memory; and - encrypting the external data using the temporary key by means of the token, and storing the encrypted external data in the non-volatile memory.
An apparatus comprising: a housing; a wheel disposed in and protruding from said housing; a threaded rod engaged with and attached to said wheel, said threaded rod including a first threaded section and a second threaded section; a needle casing disposed within said housing, wherein said needle casing being engaged with the first threaded section of said threaded rod; a needle disposed and secured in said needle casing, an anchor casing disposed within said housing, wherein said anchor casing being engaged with the second threaded section of said threaded rod; and anchor assembly including a tube having a proximal end coupled to the anchor casing and distal end including an anchoring device, the anchoring device including a plurality of anchor members extending from the proximal end of the tube. a housing; a wheel disposed in and protruding from said housing; a threaded rod engaged with and attached to said wheel, said threaded rod including a first threaded section and a second threaded section; a needle casing disposed within said housing, wherein said needle casing being engaged with the first threaded section of said threaded rod; a needle disposed and secured in said needle casing, an anchor casing disposed within said housing, wherein said anchor casing being engaged with the second threaded section of said threaded rod; and anchor assembly including a tube having a proximal end coupled to the anchor casing and distal end including an anchoring device, the anchoring device including a plurality of anchor members extending from the proximal end of the tube.
A system for modifying articles received from an infeed, the system comprising: a plurality of line starwheels being cooperatively arranged to form a process line, each of the plurality of line starwheels including a plurality of starwheel pockets thereon, the plurality of starwheel pockets including a first-pass starwheel pocket, a second-pass starwheel pocket, and a third-pass starwheel pocket; and a recirculation line, characterized in the recirculation line including a synchronization mechanism and a plurality of line-pocket sets, each of the plurality of line-pocket sets including a first line pocket and a second line pocket, the first line pocket configured to receive an article from the first-pass starwheel pocket of a downstream line starwheel and deposit the article in the second-pass starwheel pocket of an upstream line starwheel, the second line pocket configured to receive the article from the second-pass starwheel pocket of the downstream line starwheel and deposit the article in the third-pass starwheel pocket of the upstream line starwheel, the synchronization mechanism configured to synchronize the plurality of line-pocket sets to the plurality of starwheel pockets, wherein the article contacting the first-pass starwheel pockets, the second-pass starwheel pockets, and the third-pass starwheel pockets corresponds with a respective first stage, second stage, and third stage of modifying the article. a plurality of line starwheels being cooperatively arranged to form a process line, each of the plurality of line starwheels including a plurality of starwheel pockets thereon, the plurality of starwheel pockets including a first-pass starwheel pocket, a second-pass starwheel pocket, and a third-pass starwheel pocket; and a recirculation line, characterized in the recirculation line including a synchronization mechanism and a plurality of line-pocket sets, each of the plurality of line-pocket sets including a first line pocket and a second line pocket, the first line pocket configured to receive an article from the first-pass starwheel pocket of a downstream line starwheel and deposit the article in the second-pass starwheel pocket of an upstream line starwheel, the second line pocket configured to receive the article from the second-pass starwheel pocket of the downstream line starwheel and deposit the article in the third-pass starwheel pocket of the upstream line starwheel, the synchronization mechanism configured to synchronize the plurality of line-pocket sets to the plurality of starwheel pockets, wherein the article contacting the first-pass starwheel pockets, the second-pass starwheel pockets, and the third-pass starwheel pockets corresponds with a respective first stage, second stage, and third stage of modifying the article.
Materials comprising a transparent substrate coated with a stack of thin layers successively comprising, starting from the substrate, an alternation of three silver-based functional metal layers denoted, starting from the substrate, first, second and third functional layers, the thicknesses of the functional metal layers, starting from the substrate, increase as a function of the distance from the substrate, and of four dielectric coatings denoted, starting from the substrate, M1, M2, M3 and M4, each dielectric coating comprising at least one dielectric layer, so that each functional metal layer is positioned between two dielectric coatings, characterized in that: - the dielectric coatings M1, M2, M3 and M4 each have an optical thickness To1, To2, To3 and To4, - each dielectric coating comprises at least one high-index dielectric layer, the refractive index of which is at least 2.15 and the optical thickness of which is greater than 20 nm, - the sum of the optical thicknesses of all the high-index dielectric layers of one and the same dielectric coating is denoted, according to the dielectric coating concerned, Tohi1, Tohi2, Tohi3 or Tohi4, - each dielectric coating satisfies the following relationship: Tohi1/To1 > 0.30, Tohi2/To2 > 0.30, Tohi3/To3 > 0.30, Tohi4/To4 > 0.30, - the ratio of the thickness of the second metal layer to the thickness of the first functional metal layer is between 1.20 and 2.00, including these values, and/or - the ratio of the thickness of the third metal layer to the thickness of the second functional metal layer is between 1.20 and 1.80, including these values. - the dielectric coatings M1, M2, M3 and M4 each have an optical thickness To1, To2, To3 and To4, - each dielectric coating comprises at least one high-index dielectric layer, the refractive index of which is at least 2.15 and the optical thickness of which is greater than 20 nm, - the sum of the optical thicknesses of all the high-index dielectric layers of one and the same dielectric coating is denoted, according to the dielectric coating concerned, Tohi1, Tohi2, Tohi3 or Tohi4, - each dielectric coating satisfies the following relationship: Tohi1/To1 > 0.30, Tohi2/To2 > 0.30, Tohi3/To3 > 0.30, Tohi4/To4 > 0.30, - the ratio of the thickness of the second metal layer to the thickness of the first functional metal layer is between 1.20 and 2.00, including these values, and/or - the ratio of the thickness of the third metal layer to the thickness of the second functional metal layer is between 1.20 and 1.80, including these values.
A computer-implemented method for resetting a management device of a system (110A, 100B), comprising: receiving, at a network interface of the system (110A, 100B), a wake-on-lan message via a switch of the system (110A, 100B); characterized by receiving, at a monitoring device of the system (110A, 100B), the wake-on-lan message from the network interface and status information of a management device of the system (110A, 100B); determining that the management device is frozen based upon the status information; and causing the management device to be reset through the monitoring device in response to the determining that the management device is frozen and the receiving the wake-on-lan message. receiving, at a network interface of the system (110A, 100B), a wake-on-lan message via a switch of the system (110A, 100B); characterized by receiving, at a monitoring device of the system (110A, 100B), the wake-on-lan message from the network interface and status information of a management device of the system (110A, 100B); determining that the management device is frozen based upon the status information; and causing the management device to be reset through the monitoring device in response to the determining that the management device is frozen and the receiving the wake-on-lan message.
A method of providing a low or medium density FRC product having a density of less than 1.6g/cm 3, comprising the steps of: i) providing a formulation for a low or medium density product; ii) forming a green article from said formulation; iii) curing said green article to form said product; wherein prior to step iii) pore size modifying agent(s) are added to the formulation such that the pore volume of the product is reduced as compared with a conventional product emanating from steps i) to iii) that has a density of over 1.6g/cm 3, while maintaining a density of no greater than 1.6 g/cm 3, wherein the reduced pore volume of the product comprises a predetermined pore size distribution obtained by chemical modification obtained by including a predetermined quantity of pore modifying components into the cementitious formulation, wherein the pore modifying components include lignocellulosic fibres treated with a water repellant agent and microfine silica wherein the microfine silica has a particle size of less than 10 microns, wherein the water repellent agent comprises a hydrophilic functional group and a hydrophobic functional group, wherein the lignocellulosic fibres treated with a water repellent agent are provided in a range of 2% to 4% by total weight of dry solids, wherein the microfine silica is provided in a range of 2% to 4% by total weight of dry solids, and wherein the formulation further comprises reinforcing fibres. i) providing a formulation for a low or medium density product; ii) forming a green article from said formulation; iii) curing said green article to form said product; wherein prior to step iii) pore size modifying agent(s) are added to the formulation such that the pore volume of the product is reduced as compared with a conventional product emanating from steps i) to iii) that has a density of over 1.6g/cm 3, while maintaining a density of no greater than 1.6 g/cm 3, wherein the reduced pore volume of the product comprises a predetermined pore size distribution obtained by chemical modification obtained by including a predetermined quantity of pore modifying components into the cementitious formulation, wherein the pore modifying components include lignocellulosic fibres treated with a water repellant agent and microfine silica wherein the microfine silica has a particle size of less than 10 microns, wherein the water repellent agent comprises a hydrophilic functional group and a hydrophobic functional group, wherein the lignocellulosic fibres treated with a water repellent agent are provided in a range of 2% to 4% by total weight of dry solids, wherein the microfine silica is provided in a range of 2% to 4% by total weight of dry solids, and wherein the formulation further comprises reinforcing fibres.
A device configured for collection and subsequent testing for phosphatidylethanol (PEth) of a blood sample of less than 10 ml, wherein the device is a test tube and includes at least one inhibitor of the enzyme phospholipase D selected from at least one of a salt comprising a vanadium oxyanion and a salt comprising a tungsten oxyanion, characterized in that the PLD inhibitor is immobilized in the test tube.
A hybrid capacitor comprising: a positive electrode comprising a layer of a positive electrode active material having an electrical double-layer capacitance; and a negative electrode having a negative electrode active material layer comprising metal compound particles having a three-dimensional network structure which can occlude and release lithium ions and in which primary particles are bonded to each other with voids, characterised in that the metal compound particles have the three-dimensional network structure in which crystallites of lithium titanate are connected to each other; wherein a Magneli phase that is a titanium oxide represented by a general formula Ti n O 2n-1 (3≤n≤10) is formed on a part of the surfaces of the crystallites; and wherein,by measuring a discharging capacity of 100% per unit mass of a negative electrode active material layer and a discharging capacity of 100% per unit mass of a positive electrode active material layer, amounts of the positive electrode active material layer and the negative electrode active material layer are adjusted so that a discharging capacity of 100% of the negative electrode active material layer is 1.25 times or more and 5.0 times or less than a discharging capacity of 100% of the positive electrode active material layer. a positive electrode comprising a layer of a positive electrode active material having an electrical double-layer capacitance; and a negative electrode having a negative electrode active material layer comprising metal compound particles having a three-dimensional network structure which can occlude and release lithium ions and in which primary particles are bonded to each other with voids, characterised in that the metal compound particles have the three-dimensional network structure in which crystallites of lithium titanate are connected to each other; wherein a Magneli phase that is a titanium oxide represented by a general formula Ti n O 2n-1 (3≤n≤10) is formed on a part of the surfaces of the crystallites; and wherein,by measuring a discharging capacity of 100% per unit mass of a negative electrode active material layer and a discharging capacity of 100% per unit mass of a positive electrode active material layer, amounts of the positive electrode active material layer and the negative electrode active material layer are adjusted so that a discharging capacity of 100% of the negative electrode active material layer is 1.25 times or more and 5.0 times or less than a discharging capacity of 100% of the positive electrode active material layer.
Device for longitudinally cutting running webs of material, comprising cutting means for introducing at least one wave-shaped longitudinal cut into a running web of material, the cutting means comprising at least one laser source, the laser beam of which can be directed onto the web of material and can be moved back and forth with respect to the web of material transversely in relation to the running direction of the web of material in such a way that the laser beam introduces a wave-shaped longitudinal cut into the running web of material, characterized in that the laser beam can be directed onto the web of material indirectly by way of at least one activatable reflection means, wherein the reflection means can be activated in such a way that the reflected laser beam is movable with respect to the web of material transversely in relation to the running direction of the web of material, wherein the device has at least one circular cutter with an axially wave-shaped blade contour, which can be swung in temporarily into the running web of material in such a way that it introduces a wave-shaped longitudinal cut into the running web of material.
A method for controlling a submerged environmental sensor including a support, one face of which includes a sensitive zone configured to receive at least one species of interest, anti-fouling means configured to cause at least the sensitive zone to vibrate, said anti-fouling means being carried by the support, and detection means (6, 6') for detecting the presence of at least one species of interest on the sensitive zone, said detection means (6, 6') being carried by the support, wherein the anti-fouling means include actuators configured to cause the support to vibrate in a standing mode with wavelength λ between 3 times and 20 times the given size of the species of interest to confine the species of interest on the sensitive zone, said method including: - activating the anti-fouling means in a de-fouling mode, - stopping the anti-fouling means, - activating the anti-fouling means to confine the at least one species of interest in the sensitive zone, - stopping the anti-fouling means, - activating the detection means (6, 6'), - stopping the detection means (6, 6'). - activating the anti-fouling means in a de-fouling mode, - stopping the anti-fouling means, - activating the anti-fouling means to confine the at least one species of interest in the sensitive zone, - stopping the anti-fouling means, - activating the detection means (6, 6'), - stopping the detection means (6, 6').