mhurhangee/patent-ind-claim-en huggingface dataset:
A base station configured to be used as a remote base (2, RU) station in a wireless communication system including the remote base station (2, RU), a central base station (1, DU) configured to communicate with the remote base station , and a user equipment (UE) configured to communicate with the remote base station , the base station (2, RU) comprising: a reception unit configured to receive from the central base station (1, DU): a parameter that includes information related to a Listen Before Talk process, and information used when transmitting data; a detection unit configured to perform the Listen Before Talk process according to the parameter; and wherein the remote base station (2, RU) includes a layer function different from the central base station (1, DU). a parameter that includes information related to a Listen Before Talk process, and information used when transmitting data; a detection unit configured to perform the Listen Before Talk process according to the parameter; and wherein the remote base station (2, RU) includes a layer function different from the central base station (1, DU).
Integrated imaging and medical device delivery apparatus comprising; retaining means for retaining a deployable medical device ; and an imaging probe lumen defining a navigation pathway through the apparatus , the navigation pathway allowing an imaging probe to be reciprocally axially movable through the apparatus , the apparatus further comprising one or more reference points along the navigation pathway, providing positional information relative to a retained deployable medical device , wherein the imaging probe lumen extends within the apparatus and externally of a deployable medical device when being retained; wherein the apparatus further comprises inner and outer sheaths, the inner sheath for retaining a medical device against deployment and the outer sheath encapsulating the said imaging probe lumen between the inner sheath and the exterior of the apparatus . retaining means for retaining a deployable medical device ; and an imaging probe lumen defining a navigation pathway through the apparatus , the navigation pathway allowing an imaging probe to be reciprocally axially movable through the apparatus , the apparatus further comprising one or more reference points along the navigation pathway, providing positional information relative to a retained deployable medical device , wherein the imaging probe lumen extends within the apparatus and externally of a deployable medical device when being retained; wherein the apparatus further comprises inner and outer sheaths, the inner sheath for retaining a medical device against deployment and the outer sheath encapsulating the said imaging probe lumen between the inner sheath and the exterior of the apparatus .
An acoustic transducer for acoustic logging of a wellbore wall, comprising: a piezoelectric material comprising: a piezo body comprising an upper face and a lower face, andgrooves formed on the upper face of the piezo body to physically break the piezoelectric material of the piezo body laterally and to suppress lateral mode acoustic waves propagating through the piezoelectric material, wherein the grooves comprise a first groove that intersects with a second groove on the piezo body , wherein grooves are not formed on the lower face of the piezo body to allow the piezo body to be a single integral body; a backing material coupled to the lower face of the piezo body; characterised in further comprising: a conductive plate to electrically engage with the grooved upper face of the piezoelectric body to provide an electrical contact across the grooved upper face of the piezo body . a piezo body comprising an upper face and a lower face, andgrooves formed on the upper face of the piezo body to physically break the piezoelectric material of the piezo body laterally and to suppress lateral mode acoustic waves propagating through the piezoelectric material, wherein the grooves comprise a first groove that intersects with a second groove on the piezo body , wherein grooves are not formed on the lower face of the piezo body to allow the piezo body to be a single integral body; a backing material coupled to the lower face of the piezo body;
A cosmetic composition comprising: (a) a cosmetically acceptable carrier comprising water and one or more cosmetically acceptable organic solvents; and (b) a combination of skin-active ingredients comprising: i. 5 wt.% to 15 wt.% of sulfur; ii. 1 wt.% to 10 wt.% of niacinamide; iii. 0.1 wt.% to 2 wt.% of phenylethyl resorcinol; iv. glycolic acid; v. allantoin; and (c) one or more nonionic surfactants, wherein the total amount of the one or more nonionic surfactants of (c) is from 0.1 wt.% to 15 wt.%, based on the total weight of the cosmetic composition. (a) a cosmetically acceptable carrier comprising water and one or more cosmetically acceptable organic solvents; and (b) a combination of skin-active ingredients comprising: i. 5 wt.% to 15 wt.% of sulfur; ii. 1 wt.% to 10 wt.% of niacinamide; iii. 0.1 wt.% to 2 wt.% of phenylethyl resorcinol; iv. glycolic acid; v. allantoin; and i. 5 wt.% to 15 wt.% of sulfur; ii. 1 wt.% to 10 wt.% of niacinamide; iii. 0.1 wt.% to 2 wt.% of phenylethyl resorcinol; iv. glycolic acid; v. allantoin; and (c) one or more nonionic surfactants, wherein the total amount of the one or more nonionic surfactants of (c) is from 0.1 wt.% to 15 wt.%, based on the total weight of the cosmetic composition.
Method for filling containers with a liquid product containing CO 2 and with a given product CO 2 content, wherein the containers are transferred to a filling machine with filling elements , and are filled by means of the filling elements provided, wherein use is made as containers of plastic containers produced by stretch-blow moulding, in particular PET containers, and wherein each container , at the start of the filling procedure, in a first filling phase, is pressurised to a first pressure (p1) and subsequently, in a second filling phase, the pressure in the container is raised to at least a second pressure (p2), wherein the containers , coming from the stretch-blowing and still hot, are transferred to the filling machine after the stretch-blowing, without prior cooling by spraying and/or wetting with a gaseous and/or liquid cooling agent/mixture, characterised in that in the first filling phase, a volume of a first production component (C1) with a first CO 2 content, coming from a storage container , is conveyed to the filling element and is filled into the container by way of the filling element , and that, in the second filling phase, a volume of a second product component (C2) with the same or a second CO 2 content and coming from a product container is conveyed to the filling element , and is filled into the container by means of the filling element , wherein at least one of the two CO 2 contents of the product components (C1, C2) is higher than the given product CO 2 content of the liquid product, and wherein the first filling phase and the second filling phase are determined with respect to one another in such a way that the liquid product in the completely filled container has the given product CO 2 content.
A method for fastening a tube-shaped spacer to a pedal assembly of a motor vehicle, the spacer is a distance sleeve arranged for creating a distance between the pedal assembly and a wall separating an engine housing from a driving compartment of the vehicle, the tube-shaped spacer having a first end and a second end , the tube-shaped spacer defining a hole extending from the first end towards the second end , the hole of the tube-shaped spacer having a first cross-sectional dimension (di), the method comprising: placing the first end of the spacer onto a first position of a first side of a metal sheet of the pedal assembly where the spacer is to be fastened, the metal sheet having a thickness (t) at the first position ; placing a tool onto a second side of the metal sheet at a second position corresponding to an opposite side of the first position , so that the tool is positioned opposite the spacer with the metal sheet placed in between the tool and the spacer, the tool having an outer cross-sectional dimension (d 2 ) smaller than the first cross-sectional dimension (d 1 ) of the hole of the spacer but larger than or at least the same as the first cross-sectional dimension (d 1 ) subtracted with two times the thickness (t) of the metal sheet at the first position ; and thereafter pressing the tool through the metal sheet , so that a part of the metal sheet positioned between the tool and the spacer is pressed into the hole of the spacer and against inner walls of the spacer, thereby fastening the spacer to the metal sheet of the pedal assembly . placing the first end of the spacer onto a first position of a first side of a metal sheet of the pedal assembly where the spacer is to be fastened, the metal sheet having a thickness (t) at the first position ; placing a tool onto a second side of the metal sheet at a second position corresponding to an opposite side of the first position , so that the tool is positioned opposite the spacer with the metal sheet placed in between the tool and the spacer, the tool having an outer cross-sectional dimension (d 2 ) smaller than the first cross-sectional dimension (d 1 ) of the hole of the spacer but larger than or at least the same as the first cross-sectional dimension (d 1 ) subtracted with two times the thickness (t) of the metal sheet at the first position ; and thereafter pressing the tool through the metal sheet , so that a part of the metal sheet positioned between the tool and the spacer is pressed into the hole of the spacer and against inner walls of the spacer, thereby fastening the spacer to the metal sheet of the pedal assembly .
A sealing assembly for sealing off a space between a first machine element and a second machine element that is movable in relation to the first machine element , wherein the first and second machine element are arranged concentrically with respect to one another, comprising a seal with a seal seat that can be fixed on the first machine element and with a sealing lip having a sealing edge that bears against the second machine element when the seal is in the installed state, wherein the sealing element further comprises a conductive element that, in order to produce an electrically conductive connection between the first and second machine element , extends from the first machine element to the second machine element , characterised in that the conductive element is mechanically connected at least in sections to the side of the seal facing away from the space to be sealed off, and wherein the conductive element consists of an electrically conductive fibrous fabric embedded in an elastomer matrix.
A guide robot comprising: a lower section having a plurality of wheels; a body section provided above the lower section and having a movable guide adapted to slidably move; a case covering the body section and having an opening , wherein the movable guide inside of the body section is accessible through the opening and moveable into or out of the body section ; and a display unit positioned outside of the body section and connected to the moveable guide to open or close the opening . a lower section having a plurality of wheels; a body section provided above the lower section and having a movable guide adapted to slidably move; a case covering the body section and having an opening , wherein the movable guide inside of the body section is accessible through the opening and moveable into or out of the body section ; and a display unit positioned outside of the body section and connected to the moveable guide to open or close the opening .
An upper for an article of footwear (100; 1200; 1400) comprising: a first re-flowed material which is a melted and re-solidified product of a first element selected from a first shaped component, a first film, a first textile, first yarn or a first fiber, or any combination thereof; and a second element selected from a second shaped component, a second film, a second textile, a second yarn or a second fiber; wherein the first reflowed material comprises a low processing temperature polymeric composition, the low processing temperature polymeric composition comprising one or more first thermoplastic polymers, wherein the low processing temperature polymeric composition exhibits a melting temperature T m that is from 80 °C to 135 °C; wherein the second element comprises a high processing temperature composition, the high processing temperature composition comprising one or more second thermoplastic polymers; wherein the high processing temperature polymeric composition exhibits: 1) a creep relaxation temperature T cr ; 2) a heat deflection temperature T hd ; or 3) a Vicat softening temperature T vs that are each at least 10 °C greater than the melting temperature T m of the low processing temperature polymeric composition; wherein the upper comprises a ground-facing outsole area (1216; 1412), and at least a portion of the first re-flowed material is present on the ground-facing outsole area of the upper . a first re-flowed material which is a melted and re-solidified product of a first element selected from a first shaped component, a first film, a first textile, first yarn or a first fiber, or any combination thereof; and a second element selected from a second shaped component, a second film, a second textile, a second yarn or a second fiber; wherein the first reflowed material comprises a low processing temperature polymeric composition, the low processing temperature polymeric composition comprising one or more first thermoplastic polymers, wherein the low processing temperature polymeric composition exhibits a melting temperature T m that is from 80 °C to 135 °C; wherein the second element comprises a high processing temperature composition, the high processing temperature composition comprising one or more second thermoplastic polymers; wherein the high processing temperature polymeric composition exhibits: 1) a creep relaxation temperature T cr ; 2) a heat deflection temperature T hd ; or 3) a Vicat softening temperature T vs that are each at least 10 °C greater than the melting temperature T m of the low processing temperature polymeric composition; wherein the upper comprises a ground-facing outsole area (1216; 1412), and at least a portion of the first re-flowed material is present on the ground-facing outsole area of the upper .
Process for the manufacture of a multilayer material sheet suitable for use in a soft ballistic article, wherein said multilayer material sheet comprises unidirectional high performance fibers with a tensile strength of at least 1.0 GPa and a tensile modulus of at least 40 GPa, the process comprising the steps of: a. positioning the fibers in a parallel fashion, b. consolidation of the fibers to obtain a monolayer, c. stacking at least two monolayers such that the fiber direction in one monolayer is at an angle α to the direction of the fibers in an adjacent monolayer, to form a continuous stack with a length direction and a width direction, the length direction of at least 10 times the width direction, d. fixation whereby the stack of at least two monolayers is subjected to a pressure and temperature treatment, characterized in that the duration of the pressure treatment is at least 2 seconds and less than 120 seconds at a pressure of at least 0.5 MPa at a temperature below the melting point or degradation temperature of the fibers, followed by cooling the stack of at least two monolayers under pressure to a temperature of 80°C or lower within at least 2 seconds to less than 120 seconds. a. positioning the fibers in a parallel fashion, b. consolidation of the fibers to obtain a monolayer, c. stacking at least two monolayers such that the fiber direction in one monolayer is at an angle α to the direction of the fibers in an adjacent monolayer, to form a continuous stack with a length direction and a width direction, the length direction of at least 10 times the width direction, d. fixation whereby the stack of at least two monolayers is subjected to a pressure and temperature treatment, characterized in that the duration of the pressure treatment is at least 2 seconds and less than 120 seconds at a pressure of at least 0.5 MPa at a temperature below the melting point or degradation temperature of the fibers, followed by cooling the stack of at least two monolayers under pressure to a temperature of 80°C or lower within at least 2 seconds to less than 120 seconds.
A method for segmenting a cellular image, the method comprising: acquiring a cellular image; enhancing the cellular image using a generative adversarial network to obtain an enhanced cellular image; and segmenting the enhanced cellular image using a hierarchical fully convolutional network for image segmentation to obtain cytoplasm and zona pellucida areas in the cellular image; wherein the generative adversarial network is trained by: collecting a dataset of cellular images; constructing a dataset for neural network training using labeled images in the dataset of cellular images, the labeled images including cytoplasm and zona pellucida areas for oocyte images, or the labeled images including cytoplasm, zona pellucida, and nucleus areas for zygote images; enhancing smoothness and edges of cytoplasm and nucleus areas to obtain an enhanced training dataset, wherein the enhancing comprises image smoothing and edge enhancement, the image smoothing referring to removing high-frequency information of the cellular image, and the edge enhancement requiring detecting areas of high-frequency and large gradient magnitudes; and training the generative adversarial network using the enhanced training dataset. acquiring a cellular image; enhancing the cellular image using a generative adversarial network to obtain an enhanced cellular image; and segmenting the enhanced cellular image using a hierarchical fully convolutional network for image segmentation to obtain cytoplasm and zona pellucida areas in the cellular image; collecting a dataset of cellular images; constructing a dataset for neural network training using labeled images in the dataset of cellular images, the labeled images including cytoplasm and zona pellucida areas for oocyte images, or the labeled images including cytoplasm, zona pellucida, and nucleus areas for zygote images; enhancing smoothness and edges of cytoplasm and nucleus areas to obtain an enhanced training dataset, wherein the enhancing comprises image smoothing and edge enhancement, the image smoothing referring to removing high-frequency information of the cellular image, and the edge enhancement requiring detecting areas of high-frequency and large gradient magnitudes; and training the generative adversarial network using the enhanced training dataset.
A turbomachine module of longitudinal axis X, the module comprising: - a rotating casing rotatable about the longitudinal axis and carrying a propeller (2; 20, 21, 22) which is provided with a plurality of blades ; - a stationary casing comprising a cylindrical wall extending between an internal wall and an external wall of the rotating casing ; and, - a system for changing the pitch of the blades of the propeller mounted around the stationary casing and comprising: ∘ a control means comprising a movable body that is able to move axially on said stationary casing , ∘ at least one load transfer bearing comprising an internal ring connected to the movable body and an external ring ; and ∘ a mechanism for connecting the external ring to the blades of the propeller, the module further comprising a device for feathering the blades of the propeller, the module being characterised in that this device comprises an annular row of springs arranged around said stationary casing and extending axially, the springs being evenly spaced about the longitudinal axis X and comprising first axial ends bearing on a shell of the stationary casing , and second opposite axial ends bearing on said internal ring . - a rotating casing rotatable about the longitudinal axis and carrying a propeller (2; 20, 21, 22) which is provided with a plurality of blades ; - a stationary casing comprising a cylindrical wall extending between an internal wall and an external wall of the rotating casing ; and, - a system for changing the pitch of the blades of the propeller mounted around the stationary casing and comprising: ∘ a control means comprising a movable body that is able to move axially on said stationary casing , ∘ at least one load transfer bearing comprising an internal ring connected to the movable body and an external ring ; and ∘ a mechanism for connecting the external ring to the blades of the propeller, ∘ a control means comprising a movable body that is able to move axially on said stationary casing , ∘ at least one load transfer bearing comprising an internal ring connected to the movable body and an external ring ; and ∘ a mechanism for connecting the external ring to the blades of the propeller,
A heating appliance, comprising: a panel provided with a through hole ; a heating part located below the panel and provided with a mounting hole and a limiting block protruding into the mounting hole ; a movable probe inserted into the through hole and capable of moving along the through hole , the movable probe being provided with a stop-limiting portion , the stop-limiting portion being located below the panel and being configured to abut against the panel in order to restrain the movable probe from disengaging from the through hole ; and an elastic support inserted into the mounting hole and supported by the limiting block , the elastic support supporting the movable probe and providing a force to press the stop-limiting portion against the panel , characterized in that the heating part is provided with a mounting groove in which the movable probe is assembled, wherein a side wall of the mounting groove is provided with a limiting rib , the movable probe is provided with a lug , and the limiting rib is configured to abut against the lug to restrict the movable probe in the mounting groove . a panel provided with a through hole ; a heating part located below the panel and provided with a mounting hole and a limiting block protruding into the mounting hole ; a movable probe inserted into the through hole and capable of moving along the through hole , the movable probe being provided with a stop-limiting portion , the stop-limiting portion being located below the panel and being configured to abut against the panel in order to restrain the movable probe from disengaging from the through hole ; and an elastic support inserted into the mounting hole and supported by the limiting block , the elastic support supporting the movable probe and providing a force to press the stop-limiting portion against the panel , characterized in that the heating part is provided with a mounting groove in which the movable probe is assembled, wherein a side wall of the mounting groove is provided with a limiting rib , the movable probe is provided with a lug , and the limiting rib is configured to abut against the lug to restrict the movable probe in the mounting groove .