mhurhangee/patent-ind-claim-en huggingface dataset:
A rounded wheel enclosure following the shape of a wheel of a truck having a rounded outer circumferential surface for guiding travel wind along a longitudinal direction (II) of the wheel enclosure , wherein the outer circumferential surface comprises an extending portion in a transition area behind an apex of the circumferential surface , said extending portion comprising a lateral edge extending transverse to the longitudinal direction (II) wherein the said extending portion directs airflow away from the circumferential surface of the wheel enclosure along the longitudinal direction (II) and wherein said lateral edge separates airflow from following the curvature of the said wheel enclosure , wherein the extending portion comprises a top surface extending behind the apex of the wheel enclosure connecting the apex of the wheel enclosure to the lateral edge and, wherein the extending portion further comprises a side surface and an upstanding edge in the plane of a truck side wherein the said side surface connects the said wheel enclosure with the said upstanding edge , characterized in that the said upstanding edge separates airflow along the truck side from following the shape of the side surface of the extending portion .
Micromechanical sensor , comprising: - a substrate with a cavity ; - an elastic membrane , which is made to extend over the cavity ; - a lever element , which is made to extend over the membrane and has a first end portion and a second end portion and a middle portion , the end portions lying on opposite sides of the middle portion ; - a first joint element , which is attached between the first end portion and the substrate ; - a second joint element , which is attached between the middle portion and the membrane ; - a first and a second capacitive sensor , each capacitive sensor having two electrodes , of which one is attached to one of the end portions and the other is attached to the substrate , - so that spacings between the electrodes of different capacitive sensors are influenced oppositely when the lever element is pivoted as a result of a deflection of the membrane , and - an actuator for applying an actuating force between the lever element and the substrate , characterized in that a mass element is attached to the membrane and the sensor is designed for determining an acceleration. - a substrate with a cavity ; - an elastic membrane , which is made to extend over the cavity ; - a lever element , which is made to extend over the membrane and has a first end portion and a second end portion and a middle portion , the end portions lying on opposite sides of the middle portion ; - a first joint element , which is attached between the first end portion and the substrate ; - a second joint element , which is attached between the middle portion and the membrane ; - a first and a second capacitive sensor , each capacitive sensor having two electrodes , of which one is attached to one of the end portions and the other is attached to the substrate , - so that spacings between the electrodes of different capacitive sensors are influenced oppositely when the lever element is pivoted as a result of a deflection of the membrane , and - an actuator for applying an actuating force between the lever element and the substrate ,
Method for recovering predeterminable plastic components of a specific plastic material or of a specific plastic composition from an unsorted or pre-sorted stream of recyclable material (W), wherein the predeterminable plastic components have been made distinguishable (V102; V1003) from other plastic components of the same plastic material or of the same plastic composition on the basis of at least one primary marker introduced during the production and/or use of the plastic material, and , and wherein the method comprises at least one separation step (V109; V1011), in which the stream of recyclable material (W) is separated on the basis of a first separation criterion into a first recyclate stream (R1) comprising the predeterminable plastic components and a first partial stream (T1), the separation criterion being based at least partially on properties of the primary marker, and the stream of recyclable material (W) comprises thermoplastics or preferably consists at least substantially of thermoplastics and is extruded by melt extrusion to form thermoplastic strands or films and the strands or films are broken up into particles, in particular strand sections or film sections (V107; V1009), characterised in that the extrusion and break-up (V107; V1009) takes place before the first separation step, and the particles are fluidised (V108; V1010) following the extrusion and break-up (V107; V1009) by introduction into a stream of fluidising medium. , and wherein the method comprises at least one separation step (V109; V1011), in which the stream of recyclable material (W) is separated on the basis of a first separation criterion into a first recyclate stream (R1) comprising the predeterminable plastic components and a first partial stream (T1), the separation criterion being based at least partially on properties of the primary marker, and the stream of recyclable material (W) comprises thermoplastics or preferably consists at least substantially of thermoplastics and is extruded by melt extrusion to form thermoplastic strands or films and the strands or films are broken up into particles, in particular strand sections or film sections (V107; V1009), characterised in that the extrusion and break-up (V107; V1009) takes place before the first separation step, and the particles are fluidised (V108; V1010) following the extrusion and break-up (V107; V1009) by introduction into a stream of fluidising medium.
A Wi-Fi client device , comprising: memory configured to store a channel baseline measurement representing prior knowledge of a clear channel according to a government regulation; a processor configured to select a sampling size for a dynamic frequency selection check to identify use of a frequency by a government entity for a probability threshold dictated by the government regulation based on the channel baseline measurement for a dynamic frequency selection Wi-Fi channel subject to dynamic frequency selection regulation, wherein the sampling size is a number of times the dynamic frequency selection Wi-Fi channel is sampled; and a communication interface configured to execute the dynamic frequency selection check using the sampling size on the dynamic frequency selection Wi-Fi channel and to establish a Wi-Fi Direct connection on the clear channel following Wi-Fi Direct protocol for a peer-to-per connection based on the dynamic frequency selection check. memory configured to store a channel baseline measurement representing prior knowledge of a clear channel according to a government regulation; a processor configured to select a sampling size for a dynamic frequency selection check to identify use of a frequency by a government entity for a probability threshold dictated by the government regulation based on the channel baseline measurement for a dynamic frequency selection Wi-Fi channel subject to dynamic frequency selection regulation, wherein the sampling size is a number of times the dynamic frequency selection Wi-Fi channel is sampled; and a communication interface configured to execute the dynamic frequency selection check using the sampling size on the dynamic frequency selection Wi-Fi channel and to establish a Wi-Fi Direct connection on the clear channel following Wi-Fi Direct protocol for a peer-to-per connection based on the dynamic frequency selection check.
Holder for reversibly attaching a flat, approximately rectangular device - such as a tablet computer or smartphone - to a motor vehicle seat , wherein the holder has a fastening device for releasable push-fit fastening of the holder to a push-fit receiver assigned to the motor vehicle seat , and wherein the holder has a holding device for releasable holding of the device on the holder , wherein the fastening device and the holding device are connected together via a coupling element , wherein the coupling element is connected to the fastening device via a first j oint and to the holding device via a second joint, wherein the joints are configured as hinges with a first hinge and a first pivot axis and a second hinge and a second pivot axis , wherein the first pivot axis and the second pivot axis are oriented parallel to one another, characterised in that the holder comprises a device which loads the coupling element with a torque about the first pivot axis which acts to erect the coupling element out of a horizontal position into a more vertically oriented position.
A process for producing an ophthalmic lens having a molded, visible symbol therein, comprising the step of applying a symbol as an elevation to a molding surface of a mold before using the mold for cast-molding the ophthalmic lens , wherein the elevation on the molding surface is produced by deposing, onto a molding surface of a mold having a first temperature, a material in liquid state and having a second temperature which is higher than the first temperature which is at or preferably below the melting point of the material, and then by solidifying the material on the molding surface as the elevation through cooling toward to the first temperature, characterized in that the material has a melting point between 15°C and 60°C, is soluble in or can be rinsed off by at least one of water, propanol or methyl ethyl ketone at or above its melting point, and is at least temporarily resistant to the ophthalmic lens forming composition for cast-molding the ophthalmic lens ; and that the elevation on the molding surface remains solid during the process of using the mold for cast-molding the ophthalmic lens from an ophthalmic lens forming composition, wherein the indentation is reproduced in the molded ophthalmic lens as the molded, visible symbol as an indentation in the ophthalmic lens.
A method of inhibiting, reducing and/or retarding a biofilm formation on a surface of a substrate, the method comprising applying onto the surface a fluorinated hydrocarbon, said fluorinated hydrocarbon is perfluorotetracosane (CF 3 (CF 2 ) 22 CF 3 ), and said surface being selected from a glass surface, a porcelain surface, a ceramic surface, a polymeric surface, a metallic surface, and a surface which comprises silicon, an organosilicon, stainless steel, MICA, a polymer or any combination thereof.
A method for dielectrically insulating an electrical active part wherein the electrical active part is arranged in a gas-tight housing comprising an insulating medium consisting of, consisting essentially of, or comprising a compound of general formula (I): R 1 SO n R 2 (I) wherein n is 1 or 2 and R 1 and R 2 are independently fluorosubstituted alkyl, fluorosubstituted alkylene, fluorosubstituted alkylyne or fluorosubstituted aryl.
Diene/polypropylene thermoplastic elastomer copolymer, characterized in that it consists of a backbone, said backbone being derived from a diene elastomer, and in that it comprises from 5% to 50% by weight, relative to the total weight of the copolymer, of pendent semicrystalline polypropylene groups distributed along the backbone.
A distributor module for telecommunications and data equipment, comprising a housing made of plastic, in which are arranged core connecting contacts which can be connected from at least one face (S1) of the distributor module , wherein at least two deflector elements for wire strain relief, through which cores can be fed from a rear (R) to a front (V) of the distributor module , are integrated into the housing , wherein the deflector elements are arranged between the core connecting contacts , wherein pairs of core connecting contacts in each case form a pair of contacts (KP) for connecting a pair of cores, wherein a deflector element is associated with two pairs of contacts (KP) in each case.
An electrosurgical forceps comprising: a coaxial cable for conveying microwave energy; a pair of jaws mountable at a distal end of the coaxial cable, the pair of jaws being movable relative to each other to open and close a gap between opposing inner surfaces thereof, wherein the pair of jaws comprises a first jaw having: an outer jaw element operably engagable with an actuating element for causing relative movement between the pair of jaws, an inner jaw element attached to the outer jaw element to form the inner surface of the first jaw, the inner jaw element comprising an applicator pad having a first electrode and an second electrode formed thereon, and an energy transfer element for conveying microwave energy from the coaxial cable to the first electrode and second electrode, and characterized by the energy transfer element comprising a flexible dielectric substrate having a pair of conductive tracks formed thereon. a coaxial cable for conveying microwave energy; a pair of jaws mountable at a distal end of the coaxial cable, the pair of jaws being movable relative to each other to open and close a gap between opposing inner surfaces thereof, wherein the pair of jaws comprises a first jaw having: an outer jaw element operably engagable with an actuating element for causing relative movement between the pair of jaws, an inner jaw element attached to the outer jaw element to form the inner surface of the first jaw, the inner jaw element comprising an applicator pad having a first electrode and an second electrode formed thereon, and an energy transfer element for conveying microwave energy from the coaxial cable to the first electrode and second electrode, and characterized by the energy transfer element comprising a flexible dielectric substrate having a pair of conductive tracks formed thereon. an outer jaw element operably engagable with an actuating element for causing relative movement between the pair of jaws, an inner jaw element attached to the outer jaw element to form the inner surface of the first jaw, the inner jaw element comprising an applicator pad having a first electrode and an second electrode formed thereon, and an energy transfer element for conveying microwave energy from the coaxial cable to the first electrode and second electrode, and characterized by the energy transfer element comprising a flexible dielectric substrate having a pair of conductive tracks formed thereon.
A method of performing an injection molding cycle in an injection molding apparatus comprising a manifold that receives an injection fluid , the manifold distributing injection fluid to a distribution channel feeding three nozzles which all commonly feed into a mold cavity under an injection pressure at three gates and three valve pins , having an axis and a tip end, being slidably mounted for upstream and downstream movement along the axis within the bores of each nozzle, for opening and closing a gate and a drive system that controllably drives the valve pins via three actuators , the method comprising: performing a cascade injection molding process in which injection fluid (M) is fed via a central nozzle and a central valve pin to a central gate of the mold cavity and injection fluid (NM) is fed via two lateral nozzles and lateral valve pins to two lateral gates distal to the central gate , the cascade process including first opening the central nozzle allowing fluid material (M) to flow into the mold cavity and at a later predetermined time opening the two lateral nozzles by upstream withdrawal of the lateral valve pins to allow fluid material (NM) to enter the mold cavity into the stream of fluid material (M) that has been injected from the central nozzle past the lateral gates , wherein the two streams of fluid material (NM, M) mix with each other, controllably driving the lateral valve pins at a reduced velocity for a selected period of time relative to a maximum velocity of the drive system so as to inject the fluid material (NM) at a reduced flow rate for a relatively short period of time at the beginning when the lateral gates are first opened and following the time when the fluid material (NM) first enters the flow stream (M) to reduce or eliminate the appearance of a visible line or defect in a final molded product made in the mold cavity . performing a cascade injection molding process in which injection fluid (M) is fed via a central nozzle and a central valve pin to a central gate of the mold cavity and injection fluid (NM) is fed via two lateral nozzles and lateral valve pins to two lateral gates distal to the central gate , the cascade process including first opening the central nozzle allowing fluid material (M) to flow into the mold cavity and at a later predetermined time opening the two lateral nozzles by upstream withdrawal of the lateral valve pins to allow fluid material (NM) to enter the mold cavity into the stream of fluid material (M) that has been injected from the central nozzle past the lateral gates , wherein the two streams of fluid material (NM, M) mix with each other, controllably driving the lateral valve pins at a reduced velocity for a selected period of time relative to a maximum velocity of the drive system so as to inject the fluid material (NM) at a reduced flow rate for a relatively short period of time at the beginning when the lateral gates are first opened and following the time when the fluid material (NM) first enters the flow stream (M) to reduce or eliminate the appearance of a visible line or defect in a final molded product made in the mold cavity .
An apparatus for filtering oily mists, comprising at least one filtration stage which has at least one filtration tower provided with an enclosure having a substantially vertical axis, provided in a lower region with an inlet for the air to be filtered, which is connected to an environment to be treated and, in an upward region, an outlet for the filtered air, said enclosure accommodating internally a plurality of mutually superimposed filtration elements , means being provided for the forced generation of an air flow from said inlet to said outlet through said filtration elements , wherein the apparatus comprises, upstream of said filtration stage , along the direction of said air flow, at least one pre-filtration stage which is provided with at least one cyclone condenser provided with an intake port , which communicates with the environment to be treated, and with a discharge port connected to said inlet characterized in that said enclosure supports externally said cyclone condenser wherein a second tub for the collection of the liquid separated from the air to be treated is located on the bottom of said filtration tower and wherein the means for the forced generation of an air flow comprises an extractor which communicates with said outlet of said filtration tower and is driven by an adapted motor supported by said enclosure of said filtration tower wherein said cyclone condenser has a hollow cylindrical body , with a substantially vertical axis, which communicates in a lower region with a conical portion with walls that converge downward, said intake port being arranged tangentially to and above said cylindrical body , said discharge port being arranged upward and axially to said cylindrical body , at the lower end of said conical portion there being a discharge outlet for the liquids separated from the air to be treated which communicates with a first collection tub .
A non-transitory computer-readable storage medium comprising instructions stored thereon that, when executed by at least one processor, are configured to cause a computing system to: receive a representation of a three-dimensional space; determine a first position and a first orientation of a computing device based on the representation of the three-dimensional space while the computing device is aimed at a target location in the three dimensional space; determine a first ray within the representation of the three-dimensional space that extends from the first position of the computing device toward the target location based on the first position and first orientation of the computing device; determine a second position and a second orientation of the computing device based on the representation of the three-dimensional space while the computing device is aimed at the target location; determine a second ray within the representation of the three-dimensional space that extends from the second position of the computing device toward the target location based on the second position and second orientation of the computing device; determine coordinates of the target location within the three-dimensional space based on the first ray and the second ray; and update the representation of the three-dimensional space to include the target location. receive a representation of a three-dimensional space; determine a first position and a first orientation of a computing device based on the representation of the three-dimensional space while the computing device is aimed at a target location in the three dimensional space; determine a first ray within the representation of the three-dimensional space that extends from the first position of the computing device toward the target location based on the first position and first orientation of the computing device; determine a second position and a second orientation of the computing device based on the representation of the three-dimensional space while the computing device is aimed at the target location; determine a second ray within the representation of the three-dimensional space that extends from the second position of the computing device toward the target location based on the second position and second orientation of the computing device; determine coordinates of the target location within the three-dimensional space based on the first ray and the second ray; and update the representation of the three-dimensional space to include the target location.
Composition containing: (A) 2.5 to 15% of isothiazolinones 2-methyl-2H-isothiazolin-3-one and 1,2-benzisothiazolin-one by weight and/or their sodium and/or potassium salt, (B) 0.5 to 50 ppm by weight of copper(II) ions, in relation to the proportion by weight of the component (A), (C) 100 to 2,500 ppm by weight, in relation to the total composition, of at least one oxidizing agent selected from the group consisting of sodium iodate, potassium iodate, sodium bromate and potassium bromate or mixtures thereof, and (D) water. (A) 2.5 to 15% of isothiazolinones 2-methyl-2H-isothiazolin-3-one and 1,2-benzisothiazolin-one by weight and/or their sodium and/or potassium salt, (B) 0.5 to 50 ppm by weight of copper(II) ions, in relation to the proportion by weight of the component (A), (C) 100 to 2,500 ppm by weight, in relation to the total composition, of at least one oxidizing agent selected from the group consisting of sodium iodate, potassium iodate, sodium bromate and potassium bromate or mixtures thereof, and (D) water.