mhurhangee/patent-ind-claim-en huggingface dataset:
Air purifier device comprising: a chamber defined by a side wall arranged to guide an air flow through the air purifier device, and at least one emitter electrode and at least one collector plate electrode arranged to ionize airborne particles, wherein the at least one emitter electrode is arranged to extend from the side wall and inwards in the chamber, wherein the at least one collector plate electrode is arranged to extend from the side wall and inwards in the chamber, characterized in that the at least one emitter electrode and the at least one collector plate electrode are arranged beside each other in a row extending along the side wall in a direction transverse to a main air flow direction. a chamber defined by a side wall arranged to guide an air flow through the air purifier device, and at least one emitter electrode and at least one collector plate electrode arranged to ionize airborne particles, wherein the at least one emitter electrode is arranged to extend from the side wall and inwards in the chamber, wherein the at least one collector plate electrode is arranged to extend from the side wall and inwards in the chamber, characterized in that the at least one emitter electrode and the at least one collector plate electrode are arranged beside each other in a row extending along the side wall in a direction transverse to a main air flow direction.
Iron comprising an ironing plate provided with at least one steam outlet hole , a heating body comprising a lower face thermally connected with the ironing plate and an upper face on which a steaming chamber for producing a steam flow is provided, and a steam distribution circuit for conveying the steam flow to said at least one steam outlet hole of the ironing plate , said circuit comprising at least one outlet port , an exhaust channel , a steam distribution chamber provided between the lower face of the heating body and the ironing plate , and a cavity in which is arranged a retention device comprising a filtering grid intended to retain scale particles transported by the steam flow, said outlet port communicating with the exhaust channel , said exhaust channel opening into the steam distribution chamber , said cavity having, on one side, an end provided with a port closed by a removable plug which is accessible from the outside of the apparatus and through which the retention device can be extracted from the iron to be cleaned and, on the other side, an end communicating with an opening provided in a partition which delimits the rear end of the steaming chamber and through which the steam flow enters the cavity , during use the steam flow escaping from the cavity , after having passed through the filtering grid , passing through at least the outlet port , characterised in that the steaming chamber is laterally delimited by a peripheral wall projecting from the upper face of the heating body and is closed in its upper part by a closure plate resting on the peripheral wall , and in that the exhaust channel extends outside the space delimited by the peripheral wall and the closure plate , the exhaust channel extending towards the lower face of the heating body , passing to the side and/or under the vaporisation chamber .
A cyclododecasulfur compound characterized by DSC melt point onset of between 155°C and 167°C when measured at a DSC heat rate of 20 °C/minute.
A vial adaptor for connecting a medical injection device to a vial , the adaptor comprising: - a proximal connection portion configured to be removably connectable to a medical injection device ; - a spike extending distally from the proximal connection portion and around a central axis (C); - a flange extending distally from the proximal connection portion and radially outward of the spike around the central axis (C), - a rim extending around the central axis (C) at a distance distally away from the flange and being connected to the flange through a skirt ; and - at least one retention barb extending proximally from the rim and being configured to be engageable with a vial that is to be removably connected to the adaptor , the adaptor being characterized by further comprising at least one audible barb extending proximally from the rim and being configured to be snap-fitted onto the vial , the at least one audible barb being thinner and longer than the retention barb . the adaptor comprising: - a proximal connection portion configured to be removably connectable to a medical injection device ; - a spike extending distally from the proximal connection portion and around a central axis (C); - a flange extending distally from the proximal connection portion and radially outward of the spike around the central axis (C), - a rim extending around the central axis (C) at a distance distally away from the flange and being connected to the flange through a skirt ; and - at least one retention barb extending proximally from the rim and being configured to be engageable with a vial that is to be removably connected to the adaptor , - a proximal connection portion configured to be removably connectable to a medical injection device ; - a spike extending distally from the proximal connection portion and around a central axis (C); - a flange extending distally from the proximal connection portion and radially outward of the spike around the central axis (C), - a rim extending around the central axis (C) at a distance distally away from the flange and being connected to the flange through a skirt ; and - at least one retention barb extending proximally from the rim and being configured to be engageable with a vial that is to be removably connected to the adaptor , the adaptor being characterized by further comprising at least one audible barb extending proximally from the rim and being configured to be snap-fitted onto the vial , the at least one audible barb being thinner and longer than the retention barb .
A guide wire comprising: an elongated core member ; and a tubular body located so as to cover a periphery of a distal portion of the core member , wherein the tubular body is formed using a belt-shaped member wound in a spiral shape and having engagement portions which cause side portions adjacent to each other in a longitudinal axis direction of the core member in the belt-shaped member to engage with each other, characterized in that in the tubular body a set of the side portions (131a, 131b; 531a, 531b) included in the belt-shaped member engage with each other in the engagement portions , wherein a first side portion is formed by shaping a portion of the belt-shaped member into a form bent toward a distal side of the guide wire and the second side portion is formed by shaping a portion of the belt-shaped member into a form bent toward the proximal side of the guide wire . an elongated core member ; and a tubular body located so as to cover a periphery of a distal portion of the core member , wherein the tubular body is formed using a belt-shaped member wound in a spiral shape and having engagement portions which cause side portions adjacent to each other in a longitudinal axis direction of the core member in the belt-shaped member to engage with each other,
A method for wireless communication, comprising: performing a listen before talk, LBT, procedure to identify that a channel in a shared radio frequency spectrum band is available for a first transmission; identifying a time duration that the channel is to be occupied by the first transmission; generating a channel reservation signal having a payload that indicates the time duration; and transmitting the channel reservation signal, wherein generating the channel reservation signal further comprises: identifying a channel reservation signal preamble; determining a time difference between a completion of the LBT procedure and a boundary of a control resource set transmission; adjusting a duration of a dynamic cyclic prefix based at least in part on the channel reservation signal preamble and the time difference; appending the dynamic cyclic prefix and the payload to the channel reservation signal preamble; and aligning at least a portion of the channel reservation signal with a boundary of the control resource set transmission associated with the first transmission. performing a listen before talk, LBT, procedure to identify that a channel in a shared radio frequency spectrum band is available for a first transmission; identifying a time duration that the channel is to be occupied by the first transmission; generating a channel reservation signal having a payload that indicates the time duration; and transmitting the channel reservation signal, wherein generating the channel reservation signal further comprises: identifying a channel reservation signal preamble; determining a time difference between a completion of the LBT procedure and a boundary of a control resource set transmission; adjusting a duration of a dynamic cyclic prefix based at least in part on the channel reservation signal preamble and the time difference; appending the dynamic cyclic prefix and the payload to the channel reservation signal preamble; and aligning at least a portion of the channel reservation signal with a boundary of the control resource set transmission associated with the first transmission. identifying a channel reservation signal preamble; determining a time difference between a completion of the LBT procedure and a boundary of a control resource set transmission; adjusting a duration of a dynamic cyclic prefix based at least in part on the channel reservation signal preamble and the time difference; appending the dynamic cyclic prefix and the payload to the channel reservation signal preamble; and aligning at least a portion of the channel reservation signal with a boundary of the control resource set transmission associated with the first transmission.
A system for monitoring the state of a cable (C), the system comprising a plurality of transferometry devices (M 1 , M 2 , M 3 , ... M n-1 , M n ), each capable of injecting a test signal at an injection point of the cable and of measuring a signal propagating through the cable at a measurement point of the cable, the transferometry devices being intended to be positioned along the cable at predetermined positions so as to divide the cable into several successive sections (S 1 , S 2 , ... S n-1 ), wherein each section is defined by a first transferometry device located at the beginning of the section and a second transferometry device disposed at the end of the section, the system comprising a control component (CTRL) capable of communicating with the transferometry devices and configured so as to carry out at least one transferometry test involving injecting a test signal into the cable by means of a first transferometry device and measuring the test signal after it has propagated through the cable by means of a second transferometry device different from the first device, the system further comprising a post-processing component (PTR) capable of communicating with the transferometry devices and configured to compare the measured signal with a reference signal to deduce therefrom an indicator of the degradation of the cable section (S 1 ) disposed between the first transferometry device (M 1 ) and the second transferometry device (M 2 ), with the control component (CTRL) being configured to control, according to a predefined test procedure, each transferometry device by activating or deactivating the injection of a test signal into the cable by means of said device and by activating or deactivating the acquisition of a measurement of a signal propagating through the cable by means of said device, wherein the test procedure involves successively executing the following commands: - activating the injection of a test signal by a first transferometry device (M 1 ) located at the beginning of a first section (S 1 ) of the cable; - activating the acquisition of a signal measurement by a second transferometry device (M 2 ) disposed at the end of the first section (S 1 ); - deactivating, after a first predetermined monitoring duration, the injection of a test signal by the first device (M 1 ), deactivating the acquisition of a measurement by the second device (M 2 ); - the procedure further comprising reiterating the preceding steps for at least one other section of the cable. - activating the injection of a test signal by a first transferometry device (M 1 ) located at the beginning of a first section (S 1 ) of the cable; - activating the acquisition of a signal measurement by a second transferometry device (M 2 ) disposed at the end of the first section (S 1 ); - deactivating, after a first predetermined monitoring duration, the injection of a test signal by the first device (M 1 ), deactivating the acquisition of a measurement by the second device (M 2 ); - the procedure further comprising reiterating the preceding steps for at least one other section of the cable.
An assembly for transmitting force from a rocker arm to ends of two valve stems in an internal combustion piston engine, comprising a guide pin and a yoke part , wherein the guide pin comprising a guiding outer surface , and the yoke part comprising an axially elongated guide opening to receive the guide pin , the opening having a guiding surface arranged to cooperate with the guiding surface of the guide pin , two arms (20.2, 20.3) configured to transmit force from the yoke part to an end of a valve stems , and wherein the yoke part and the guide pin are arranged to cooperate with each other in linearly sliding manner such that when the guide pin is assembled for use, the yoke part is arranged movable under guidance of the guide pin in the axially elongated guide opening , characterized in that axially elongated guide opening in the yoke part is a through hole and that the guide pin is arranged to extend through the axially elongated guide opening wherein contact area between the guide opening and the guide pin is arranged to be lubricated via a first conduit arranged in the guide pin for introducing lubrication oil to the contact area. the guide pin comprising a guiding outer surface , and the yoke part comprising an axially elongated guide opening to receive the guide pin , the opening having a guiding surface arranged to cooperate with the guiding surface of the guide pin , two arms (20.2, 20.3) configured to transmit force from the yoke part to an end of a valve stems , and wherein an axially elongated guide opening to receive the guide pin , the opening having a guiding surface arranged to cooperate with the guiding surface of the guide pin , two arms (20.2, 20.3) configured to transmit force from the yoke part to an end of a valve stems , and wherein the yoke part and the guide pin are arranged to cooperate with each other in linearly sliding manner such that when the guide pin is assembled for use, the yoke part is arranged movable under guidance of the guide pin in the axially elongated guide opening , characterized in that axially elongated guide opening in the yoke part is a through hole and that the guide pin is arranged to extend through the axially elongated guide opening wherein contact area between the guide opening and the guide pin is arranged to be lubricated via a first conduit arranged in the guide pin for introducing lubrication oil to the contact area.
A method for assessing the critical micellar concentration of amphiphilic compounds comprising the steps of: - providing a solvent; - preparing a layer of solvent; - preparing and providing a solution comprising amphiphilic compounds; - dispersing tracing particles into the solution; - injecting the traceable solution at the surface of the solvent layer, upon injection of the traceable solution at the surface of the solvent layer at a constant total flow rate Q; - taking pictures of the surface of the solvent layer, upon injection of the traceable solution, locating a boundary r s of a source of the traceable solution as the origin of radial coordinates, and determining the radius r e of a transparent zone, so-called corona; - assessing the velocity u of the tracing particles dispersed into the traceable solution, preferably upon injection of said solution to the surface of the solvent layer, and determining the maximum velocity u max of the tracing particles; and - from these measurement and using the associated model, determining the critical micellar concentration of the amphiphilic compounds, characterized in that the critical micellar concentration is assessed using the two scaling laws: u ∗ ∞ ⁢ A γ w − γ s 2 / ηρ r 1 / 3 r ∗ ∞ ⁢ B ηρ / γ w − γ s 2 D 3 1 / 8 . Q a / c ∗ 3 / 4 wherein u* is the characteristic velocity at the interface, A is a prefactor, γ w is the surface tension of the ultra-pure water, γ s is the surface tension of the surfactant solution, η is the dynamic viscosity of the liquid, ρ is the density of the liquid, r is the radius of the flow, r* is the distance over which radial velocity gradients are established, Q a is the surfactant flow rate of the solution, D is the bulk diffusion constant of the surfactant, and c* is the solubility limit of the surfactant monomers, also known as the critical micellar concentration (cmc); and wherein prefactor A=1 and prefactor B=1; and in that the above laws are compared to the experimental data by taking u*=u max and r*=r e,max -r s , wherein r e,max is the maximum radius of the transparent zone. - providing a solvent; - preparing a layer of solvent; - preparing and providing a solution comprising amphiphilic compounds; - dispersing tracing particles into the solution; - injecting the traceable solution at the surface of the solvent layer, upon injection of the traceable solution at the surface of the solvent layer at a constant total flow rate Q; - taking pictures of the surface of the solvent layer, upon injection of the traceable solution, locating a boundary r s of a source of the traceable solution as the origin of radial coordinates, and determining the radius r e of a transparent zone, so-called corona; - assessing the velocity u of the tracing particles dispersed into the traceable solution, preferably upon injection of said solution to the surface of the solvent layer, and determining the maximum velocity u max of the tracing particles; and - from these measurement and using the associated model, determining the critical micellar concentration of the amphiphilic compounds,
A tire, comprising a tread, the tread comprising: at least one rubber component; at least one silica; and at least one compound represented by the following formula (I): wherein R 1 represents a hydrocarbon group; and R 2 and R 3 are the same or different and each represent a hydrogen atom, a hydrocarbon group, or a -(AO) n -H group where n represents an integer of 1 or larger, n for R 2 and n for R 3 may be the same or different, and each AO is the same or different and represents an oxyalkylene group having two or more carbon atoms, and at least one of R 2 or R 3 is a -(AO) n -H group, the tread having a land ratio of 60% or higher, when the land ratio is calculated as defined in the specification. at least one rubber component; at least one silica; and at least one compound represented by the following formula (I): wherein R 1 represents a hydrocarbon group; and R 2 and R 3 are the same or different and each represent a hydrogen atom, a hydrocarbon group, or a -(AO) n -H group where n represents an integer of 1 or larger, n for R 2 and n for R 3 may be the same or different, and each AO is the same or different and represents an oxyalkylene group having two or more carbon atoms, and at least one of R 2 or R 3 is a -(AO) n -H group, the tread having a land ratio of 60% or higher, when the land ratio is calculated as defined in the specification.
A coated metal pipe for vehicle piping, comprising: a metal pipe; and a multi-layered coating film that covers an outer circumferential surface of the metal pipe, wherein the multi-layered coating film includes a chemical conversion layer and a primer layer, the chemical conversion layer and the primer layer being provided in this order from the inside, and the primer layer contains polyamide imide and at least one kind of additive component selected from polyamide, polyvinyl fluoride, polyvinylidene fluoride, and a silane coupling agent, wherein the ratio of the polyamide imide in the primer layer is 70 % by mass or more, and 90% by mass or less, based on the mass of the primer layer, wherein the ratio of the additive component in the primer layer is 10 % by mass or more, and 30% by mass or less, based on the mass of the primer layer, wherein the chemical conversion layer comprises a metal atom selected from titanium, zirconium, molybdenum, tungsten, vanadium, manganese, nickel, cobalt, chromium and lead, and/or at least one type of resin selected from a polyurethane, an acrylic resin, a polyolefin, and an epoxy resin. a metal pipe; and a multi-layered coating film that covers an outer circumferential surface of the metal pipe, wherein the multi-layered coating film includes a chemical conversion layer and a primer layer, the chemical conversion layer and the primer layer being provided in this order from the inside, and the primer layer contains polyamide imide and at least one kind of additive component selected from polyamide, polyvinyl fluoride, polyvinylidene fluoride, and a silane coupling agent, wherein the ratio of the polyamide imide in the primer layer is 70 % by mass or more, and 90% by mass or less, based on the mass of the primer layer, wherein the ratio of the additive component in the primer layer is 10 % by mass or more, and 30% by mass or less, based on the mass of the primer layer, wherein the chemical conversion layer comprises a metal atom selected from titanium, zirconium, molybdenum, tungsten, vanadium, manganese, nickel, cobalt, chromium and lead, and/or at least one type of resin selected from a polyurethane, an acrylic resin, a polyolefin, and an epoxy resin.