mhurhangee/ep-ind-claims huggingface dataset:
Remuage apparatus (101, 201) comprising a support element (102, 202) configured to hold one or more bottles (103, 203) in at least one tilted position with respect to the vertical, characterized in that said apparatus (101, 201) further comprises at least one rigid vibrating element (104, 204) configured to be mechanically coupled directly with said one or more bottles (103, 203), said at least one rigid vibrating element (104, 204) comprising at least one piezoelectric transducer (105, 205) adapted to induce a mechanical vibration at ultrasonic frequencies in said one or more bottles (103, 203), and wherein said at least one rigid vibrating element (104, 204) is configured to maintain a rigid interface mechanical coupling between said at least one piezoelectric transducer (105, 205) and said one or more bottles (103, 203), in order to transmit said mechanical vibration at ultrasonic frequencies to said one or more bottles (103, 203), and wherein said at least one piezoelectric transducer (105, 205) comprises at least one axial transducer with ultrasonic vibration, said axial transducer being configured to stress said one or more bottles (103, 203) in an axial direction with respect to the longitudinal axis of said one or more bottles.
A tread for a tire, the tread having a plurality of tread elements separated by at least one groove (190, 192, 194, 196, 198, 201, 203, 152, 154, 156, 158, 161), the tread elements having a depth as determined from an initial unworn tread surface and the base of the at least one groove, wherein the tread element has a sidewall, wherein a stone ejector has a first end positioned on the sidewall, and wherein the stone ejector is positioned along a tread block wall and extends from said tread block wall into a lateral tread groove (190, 192, 194, 196, 198, 201, 203) where the respective lateral tread groove (190, 192, 194, 196, 198, 201, 203) meets or intersects a respective circumferential tread groove (152, 154, 156, 158, 161), wherein the width of the circumferential tread groove (152, 154, 156, 158, 161) is wider than the width of the lateral tread groove (190, 192, 194, 196, 198, 201, 203), and wherein the stone ejector has at least one inclined wall or ramp which extends from the groove bottom to the tread element sidewall, characterized in that the inclined wall or ramp of the stone ejector is angled in the range of from 60° to 85° relative to the groove bottom surface, and in that the lateral tread groove (190, 192, 194, 196, 198, 201, 203) forms an angle with respect to the axial direction in a range of from 20° to 90°.
A cosmetic use for reducing skin wrinkles, of a microneedle comprising a plurality of portions, wherein the plurality of portions comprises a distal end portion and a proximal end portion, at least two of the plurality of portions are made of different polymers, and the distal end portion is made of at least one polymer with high swellability and high viscoelasticity, wherein said polymer with high swellability and high viscoelasticity is selected from the group consisting of cross-linked hyaluronic acid, polyethylene glycol cross-linked PMVE/MA, and a mixture thereof.
A delivery system comprising friable agglomerates, said friable agglomerates comprising oil, wax having a melting point of at least 50°C, and active ingredient, characterized in that the friable agglomerates have air pockets within them, wherein the air pockets comprise from 10 to 50% by volume of the agglomerates.
A method for adapting content based on a detected heart rate, the method comprising: presenting first content on a display device; obtaining (402, 502) motion data from an inertial measurement device, the motion data representing changes in angle and position for current time blocks relative to prior time blocks; filtering the motion data by applying a smoothing function to the motion data to generate smoothed motion data; additionally filtering the smoothed motion data to remove movements determined to be related to breathing to generate filtered smoothed motion data; identifying a heart beat by identifying a window in the filtered smoothed motion data in which the changes in angle and/or position are within a predefined expected range for a heart beat; identifying a heart rate based on the identified heart beat; and presenting second content on the display device responsive to the identified heart rate falling within a predefined heart rate range. presenting first content on a display device; obtaining (402, 502) motion data from an inertial measurement device, the motion data representing changes in angle and position for current time blocks relative to prior time blocks; filtering the motion data by applying a smoothing function to the motion data to generate smoothed motion data; additionally filtering the smoothed motion data to remove movements determined to be related to breathing to generate filtered smoothed motion data; identifying a heart beat by identifying a window in the filtered smoothed motion data in which the changes in angle and/or position are within a predefined expected range for a heart beat; identifying a heart rate based on the identified heart beat; and presenting second content on the display device responsive to the identified heart rate falling within a predefined heart rate range.
Plug door module (101.. 107) for a rail vehicle, comprising: a door leaf (20..22) movable in an opening direction and a sliding direction, and a first over-centre lock (30..32) acting in the opening direction of the door leaf (20..22), and a second over-centre lock (40..42) acting in the opening direction of the door leaf (20..22), characterised in that the second over-centre lock is coupled directly or indirectly to the first over-centre lock (30..32) by a Bowden cable (80..82). a door leaf (20..22) movable in an opening direction and a sliding direction, and a first over-centre lock (30..32) acting in the opening direction of the door leaf (20..22), and a second over-centre lock (40..42) acting in the opening direction of the door leaf (20..22), characterised in that the second over-centre lock is coupled directly or indirectly to the first over-centre lock (30..32) by a Bowden cable (80..82).
An implantable, extra-articular system connectable across an articulating joint, including: a base component (12, 16, 112); a link (20, 118); and a mount assembly (22, 24, 110), the mount assembly including a first portion spaced from a second portion, the first portion configured to be locked to the base component (12, 16) and the second portion configured to be attached to the link, wherein the link is an energy absorber having load carrying capacity, characterized in that the system further comprises a deformable sleeve engageable between the mount assembly (22, 24) and the base component (12, 16) wherein the sleeve is sized to be placed within a recess formed in the base component (12, 16), wherein the internal bore of the sleeve is configured to receive a locking stem that is configured at the first portion of the mount (22, 24), such that in its assembled configuration the sleeve deforms about the stem and within the base recess. a base component (12, 16, 112); a link (20, 118); and
A gas turbine engine with oil debris monitoring comprising: an oil debris monitor sensor (240;340) configured to detect oil debris in an oil flow (211;313), and generate a sensor signal (241;341) based on the detected oil debris; a controller (220;320) configured to control the oil flow (211;313) through the oil debris monitor sensor (240;340) using a mechanical system (210;310) comprising a plurality of components, the plurality of components including a plurality of valves; and a signal processor (230;330) configured to receive the sensor signal (241;341) from the oil debris monitor (240;340) and to receive a valve system configuration (221;321) from the controller (220;320) indicating a load applied to the plurality of valves, the signal processor (230;330) further configured to generate a health indicator based on the detected oil debris indicated by the sensor signal (241;341) and the load indicated by the valve system configuration (221;321); wherein the health indicator preferably includes at least one of an estimated value of debris in the oil flow, a type of debris, a calculated size of debris particulate, and a calculated amount of debris in the oil over time. an oil debris monitor sensor (240;340) configured to detect oil debris in an oil flow (211;313), and generate a sensor signal (241;341) based on the detected oil debris; a controller (220;320) configured to control the oil flow (211;313) through the oil debris monitor sensor (240;340) using a mechanical system (210;310) comprising a plurality of components, the plurality of components including a plurality of valves; and a signal processor (230;330) configured to receive the sensor signal (241;341) from the oil debris monitor (240;340) and to receive a valve system configuration (221;321) from the controller (220;320) indicating a load applied to the plurality of valves, the signal processor (230;330) further configured to generate a health indicator based on the detected oil debris indicated by the sensor signal (241;341) and the load indicated by the valve system configuration (221;321); wherein the health indicator preferably includes at least one of an estimated value of debris in the oil flow, a type of debris, a calculated size of debris particulate, and a calculated amount of debris in the oil over time.
A method of controlling a hazardous device comprising the steps of (a) providing a combination of a barrage unit and a container for holding a liquid the barrage unit being shaped as a pouch for receiving the hazardous device, the pouch comprising first and second side walls (14, 15), each side wall (14, 15) comprising a pad (16, 17), each pad (16, 17) comprising an absorbent fibrous material and an absorbent crystalline material which is in the form of a superabsorbent polymer; the container being shaped as a bag for receiving the pouch, (b) arranging the hazardous device and the barrage unit in the container such that the barrage unit at least partially covers the hazardous device; and, (c) adding a liquid to the container so that the barrage unit absorbs the liquid. (a) providing a combination of a barrage unit and a container for holding a liquid the barrage unit being shaped as a pouch for receiving the hazardous device, the pouch comprising first and second side walls (14, 15), each side wall (14, 15) comprising a pad (16, 17), each pad (16, 17) comprising an absorbent fibrous material and an absorbent crystalline material which is in the form of a superabsorbent polymer; the container being shaped as a bag for receiving the pouch, (b) arranging the hazardous device and the barrage unit in the container such that the barrage unit at least partially covers the hazardous device; and, (c) adding a liquid to the container so that the barrage unit absorbs the liquid.
A composition comprising (i) a zinc (amino acid or trialkyl glycine) halide complex and (ii) cysteine in free or in orally or cosmetically acceptable salt form.
An orbiting masses (667,668) system characterized by two coaxial flexible rods (665,666) attached to a fixed frame, said rods each holding one of said orbiting masses (667,668) at their extremity, each said orbiting mass (667,668) being connected to a rigid bar through a sliding pivot joint, said bar being attached to the rigid frame by a ball joint so that said masses (667,668) move at 180 degrees from each other. each said orbiting mass (667,668) being connected to a rigid bar through a sliding pivot joint, said bar being attached to the rigid frame by a ball joint so that said masses (667,668) move at 180 degrees from each other.
An information processing device on a shopping basket or a shopping cart, comprising: a communication interface configured to communicate with an imaging device on the shopping basket or cart and beacons at product display areas; and a processor configured to: identify a commodity by either reading a commodity code included in an image of the commodity from the imaging device or performing object recognition on the commodity in the image, according to a signal received from at least one beacon, switch between a first mode in which the commodity is identified by reading the commodity code and a second mode in which the commodity can be identified by either reading the commodity code or object recognition, calculate upon receipt of signals from at least three beacons a current position of the shopping basket or cart based on a strength of the signals, calculate a distance from the shopping cart or basket to a product display area for a commodity without a commodity code attached, and switch to the second mode when the distance is less than a threshold value. a communication interface configured to communicate with an imaging device on the shopping basket or cart and beacons at product display areas; and a processor configured to: identify a commodity by either reading a commodity code included in an image of the commodity from the imaging device or performing object recognition on the commodity in the image, according to a signal received from at least one beacon, switch between a first mode in which the commodity is identified by reading the commodity code and a second mode in which the commodity can be identified by either reading the commodity code or object recognition, calculate upon receipt of signals from at least three beacons a current position of the shopping basket or cart based on a strength of the signals, calculate a distance from the shopping cart or basket to a product display area for a commodity without a commodity code attached, and switch to the second mode when the distance is less than a threshold value. identify a commodity by either reading a commodity code included in an image of the commodity from the imaging device or performing object recognition on the commodity in the image, according to a signal received from at least one beacon, switch between a first mode in which the commodity is identified by reading the commodity code and a second mode in which the commodity can be identified by either reading the commodity code or object recognition, calculate upon receipt of signals from at least three beacons a current position of the shopping basket or cart based on a strength of the signals, calculate a distance from the shopping cart or basket to a product display area for a commodity without a commodity code attached, and switch to the second mode when the distance is less than a threshold value.
A polyimide film laminate, comprising a structure of superimposing plural polyimide film layers and silane coupling agent condensate layer(s) alternately to each other, wherein a thickness of each of the polyimide film layers is 3 μm or more and 250 μm or less, a thickness of the silane coupling agent condensate layer is 5 nm or more and 300 nm or less, initial adhesive strength between the polyimide film layers is 0.1 N/cm or more and 20 N/cm or less by a 90° peel method in accordance with JISK6854-1, as further disclosed in the description, adhesive strength between the polyimide film layers after being heated at 400°C for 15 minutes is 20% or more and 200% or less of the initial adhesive strength, and a glass transition temperature, as obtained by differential thermal analysis, of the polyimide film is 350°C or more.
A process for making a tablet comprising compacting a powder blend in a die platen to form a tablet shape, wherein said powder blend comprises a pharmaceutically active agent and a meltable binder, and applying radiofrequency energy to said tablet shape for a sufficient period of time to soften or melt said binder within said tablet shape to form said tablet.
Pipe-like hollow article made of ultra-high molecular weight polyethylene (UHMWPE) tapes and a thermoplastic and/or thermoplastic elastomer, whereby in the article the tapes are wound to create the article characterized in that the tapes have a tensile strength of greater than 1.5 GPa according to ASTM D882-00 and a modulus of greater than 100 GPa according to ASTM D822-00 and a 200/110 uniplanar orientation parameter of at least 3, whereby the main extension direction of at least half of the tapes in the article is in an angle of 20 to 100° with regard to the main extension direction of the article, whereby the at least half of the tapes have a 200/110 uniplanar orientation parallel to the main extension direction of these tapes and whereby the main extension directions of at least half of overlapping tapes in the article differ from each other.
Gas turbine including a turbine wall, a distribution chamber, a burner and a fuel supply arrangement for said gas turbine burner, said fuel supply arrangement comprising a rear section external to the burner located between the turbine wall and a fuel distribution system interface directing fuel into fuel supply circuits, said fuel distribution system interface having four fuel connections, being for liquid fuel, gaseous fuel, pilot gas and liquid pilot fuel; an intermediate section located between the turbine wall and the backside wall of the distribution chamber; and a front section in front of the intermediate section located between said backside wall of the distribution chamber and a burner central backside block; said fuel supply arrangement comprising a pipe for gaseous fuel, a pipe for liquid fuel, particularly oil, as well as a pipe for pilot gas, and a pipe for liquid pilot fuel, particularly pilot oil; wherein in the rear section the pipe for gaseous fuel and the pipe for liquid fuel are arranged concentrically, and characterized in that in at least one portion of the intermediate section the pipe for gaseous fuel is arranged non-concentrically with the liquid fuel pipe.
An apparatus for manipulating items in a closed container, comprising: a container having an interior region configured to hold a plurality of items to be manipulated; a flexible barrier configured to sealably attach to the container; and a tool integrated with or within the flexible barrier, the tool having a first interface and a second interface, wherein the first interface is configured to attach to a robotic device on a first side of the barrier outside of the interior region of the container and the second interface is disposed within the interior region of the container under the flexible barrier and configured to manipulate the items in the interior region when the flexible barrier is sealably attached to the container; and a plurality of aliquot tubes extending outwardly from the container and being in fluid communication with the interior region of the container, the plurality of aliquot tubes configured to receive processed fluid samples. a container having an interior region configured to hold a plurality of items to be manipulated; a flexible barrier configured to sealably attach to the container; and a tool integrated with or within the flexible barrier, the tool having a first interface and a second interface, wherein the first interface is configured to attach to a robotic device on a first side of the barrier outside of the interior region of the container and the second interface is disposed within the interior region of the container under the flexible barrier and configured to manipulate the items in the interior region when the flexible barrier is sealably attached to the container; and a plurality of aliquot tubes extending outwardly from the container and being in fluid communication with the interior region of the container, the plurality of aliquot tubes configured to receive processed fluid samples.
A computer-implemented method executed by one or more processors (108, 702), the method comprising: receiving a request for a first instruction included in a software application; storing a first cache entry corresponding to the first instruction in a cache structure; receiving a request for a second instruction included in the software application, the second instruction different than the first instruction; in response to receiving a request for the second instruction, determining that a cache entry must be removed from the cache structure to create space to store a second cache entry corresponding to the second instruction; in response to determining that a cache entry must be removed, determining that the first cache entry corresponding to the first instruction should be removed from the cache structure based on temporal locality attributes associated with at least one of the first instruction or the second instruction, the temporal locality attributes representing a likelihood that additional requests will be received for an associated instruction while the instruction is stored in a cache structure; in response to determining that the first cache entry corresponding to the first instruction should be removed, removing the first cache entry from the cache structure; and in response to removing the first cache entry, storing the second cache entry in the cache structure, the method being characterized in that the temporal locality attributes are determined at least partly during execution of the software application and incoming cache entries are treated as non-temporal in nested function calls. receiving a request for a first instruction included in a software application; storing a first cache entry corresponding to the first instruction in a cache structure; receiving a request for a second instruction included in the software application, the second instruction different than the first instruction; in response to receiving a request for the second instruction, determining that a cache entry must be removed from the cache structure to create space to store a second cache entry corresponding to the second instruction; in response to determining that a cache entry must be removed, determining that the first cache entry corresponding to the first instruction should be removed from the cache structure based on temporal locality attributes associated with at least one of the first instruction or the second instruction, the temporal locality attributes representing a likelihood that additional requests will be received for an associated instruction while the instruction is stored in a cache structure; in response to determining that the first cache entry corresponding to the first instruction should be removed, removing the first cache entry from the cache structure; and in response to removing the first cache entry, storing the second cache entry in the cache structure, the method being characterized in that the temporal locality attributes are determined at least partly during execution of the software application and incoming cache entries are treated as non-temporal in nested function calls.
An antenna apparatus, comprising a wireless IC configured to be used in a wireless IC device to perform a wireless communicating with an external device, and including balanced terminals (TX1, TX2) that output or receive balanced signals; an antenna resonance circuit including an antenna coil configured to transmit and receive a signal by the wireless communication with the external device; and an impedance matching circuit including a portion that is connected between the balanced terminals (TX1, TX2) of the wireless IC and the antenna resonance circuit, wherein the portion of the impedance matching circuit includes two coils (L1, L2, L11, L12) connected to the balanced terminals (TX1, TX2) and magnetically coupled to each other, and wherein the two coils (L1, L2, L11, L12) have an identical coil axis and are aligned in the direction of the coil axis.