mhurhangee/ep-ind-claims huggingface dataset:
Electrically conductive flat filament arrangement for a fluid permeable heater assembly for aerosol-generating systems, the flat filament arrangement comprising: a center portion and two side portions (2, 4, 20, 22), the two side portions (2, 4, 20, 22) being arranged on opposite sides of the center portion, wherein the center portion defines a heating region of the filament arrangement and the side portions (2, 4, 20, 22) define electrical contact regions of the filament arrangement; the center portion and the two side portions (2, 4, 20, 22) each comprise a plurality of openings, the plurality of openings of the center area defining an open area of the center portion and the plurality of openings of each side portion (2, 4, 20, 22) defining an open area of the side portions (2, 4, 20, 22); characterised in that the percentage of the total area of the center portion comprising the open area of the center portion is greater than the percentage of the total area of one of the side portions (2, 4, 20, 22) comprising the open area of the side portion (2, 4, 20, 22). a center portion and two side portions (2, 4, 20, 22), the two side portions (2, 4, 20, 22) being arranged on opposite sides of the center portion, wherein the center portion defines a heating region of the filament arrangement and the side portions (2, 4, 20, 22) define electrical contact regions of the filament arrangement; the center portion and the two side portions (2, 4, 20, 22) each comprise a plurality of openings, the plurality of openings of the center area defining an open area of the center portion and the plurality of openings of each side portion (2, 4, 20, 22) defining an open area of the side portions (2, 4, 20, 22); characterised in that the percentage of the total area of the center portion comprising the open area of the center portion is greater than the percentage of the total area of one of the side portions (2, 4, 20, 22) comprising the open area of the side portion (2, 4, 20, 22).
An apparatus comprising at least one processor and at least one memory including computer program code, the at least one memory and computer program code configured to, with the processor, cause the apparatus to at least: receive a plurality of trajectories comprising probe data points, each trajectory received from a respective probe apparatus of a plurality of probe apparatuses, each probe apparatus traveling between a respective origin and destination pair, each probe apparatus comprising one or more sensors and being onboard a respective vehicle, wherein each probe data point comprises location information associated with the respective probe apparatus; determine a lane-level maneuver pattern (255, 260, 265) for each probe apparatus between the origin and the destination; provide for storage of the lane-level maneuver patterns for each probe apparatus in the memory; group together lane-level maneuver patterns for probe apparatuses having an origin and destination pair within a predefined similarity of origin and destination pairs of other probe apparatuses; generate a lane-level maneuver pattern that is at least one of most popular, most efficient, or historically safe for each group based on a cluster of a plurality of clusters of lane-level maneuver patterns within the respective group; and provide route guidance to a vehicle based on the generated lane-level maneuver pattern. receive a plurality of trajectories comprising probe data points, each trajectory received from a respective probe apparatus of a plurality of probe apparatuses, each probe apparatus traveling between a respective origin and destination pair, each probe apparatus comprising one or more sensors and being onboard a respective vehicle, wherein each probe data point comprises location information associated with the respective probe apparatus; determine a lane-level maneuver pattern (255, 260, 265) for each probe apparatus between the origin and the destination; provide for storage of the lane-level maneuver patterns for each probe apparatus in the memory; group together lane-level maneuver patterns for probe apparatuses having an origin and destination pair within a predefined similarity of origin and destination pairs of other probe apparatuses; generate a lane-level maneuver pattern that is at least one of most popular, most efficient, or historically safe for each group based on a cluster of a plurality of clusters of lane-level maneuver patterns within the respective group; and provide route guidance to a vehicle based on the generated lane-level maneuver pattern.
System for providing domestic hot water, comprising a) a heat pump, b) a mains water supply; c) a heat exchanger establishing a thermal connection between a fluid line exiting the mains water supply and a fluid line exiting the heat pump; d) a thermal energy storage device connected to the heat pump; e) a first operation mode in which thermal energy is provided from the heat pump to the thermal energy storage device, but not to the heat exchanger; f) a second operation mode in which thermal energy is provided from the heat pump to the heat exchanger, and g) a controller configured to select at least between the first operation mode and the second operation mode; characterized in that the heat exchanger is located upstream of the thermal energy storage device and the controller is configured to control the heat pump based on a selected operation mode. a) a heat pump, b) a mains water supply; c) a heat exchanger establishing a thermal connection between a fluid line exiting the mains water supply and a fluid line exiting the heat pump; d) a thermal energy storage device connected to the heat pump; e) a first operation mode in which thermal energy is provided from the heat pump to the thermal energy storage device, but not to the heat exchanger; f) a second operation mode in which thermal energy is provided from the heat pump to the heat exchanger, and g) a controller configured to select at least between the first operation mode and the second operation mode;
A porous polyvinyl acetal object having a large number of cells, comprising: a polyvinyl acetal; and a plasticizer, the porous object having an open cell ratio of 50% or higher, the open cell ratio being the volumetric ratio of cells connected to the outside of the porous object relative to the apparent volume of the porous object determined by size measurement, and being determined by pycnometry described in JIS K7138, according to the method disclosed in the description of present specification, the porous object in the form of a sample with a size of 10 cm in length, 10 cm in width, and 4 mm in thickness having a coefficient of rebound (rebounding height/drop height) of 0.1 or lower in measurement of a rebounding height of a 1.27 cm (1/2-inch) SUS ball in conformity with JIS B 1501 dropped from a given drop height to the center of the sample placed on an iron plate with a size of 10 cm or more in length, 10 cm or more in width, and 1 cm in thickness. a polyvinyl acetal; and a plasticizer, the porous object having an open cell ratio of 50% or higher, the open cell ratio being the volumetric ratio of cells connected to the outside of the porous object relative to the apparent volume of the porous object determined by size measurement, and being determined by pycnometry described in JIS K7138, according to the method disclosed in the description of present specification, the porous object in the form of a sample with a size of 10 cm in length, 10 cm in width, and 4 mm in thickness having a coefficient of rebound (rebounding height/drop height) of 0.1 or lower in measurement of a rebounding height of a 1.27 cm (1/2-inch) SUS ball in conformity with JIS B 1501 dropped from a given drop height to the center of the sample placed on an iron plate with a size of 10 cm or more in length, 10 cm or more in width, and 1 cm in thickness.
Hand-held hot air device with a housing for at least a fan, a control device, actuating elements and a display and operating device as well as a heating tube arranged at the housing with an integrated heating element and temperature sensor, characterized in that in the control device as a function of a plurality of different air guide options for the hot air emerging from the heating tube after the heating tube there are provided calibration curves, and the hand-held hot air device with the control device is configured to, after setting the respective air guide at the outlet from the heating tube, output the air temperature at the location corresponding with the air guide on the display in accordance with the calibration curve of the air guide.
A handle substrate of a composite wafer for a semiconductor: said handle substrate comprising a polycrystalline ceramic sintered body; wherein said handle substrate comprises an outer peripheral portion comprising a notch; and wherein said notch comprises an as-sintered surface.
A lighting apparatus, comprising: a light source plate; multiple light modules (100,631) placed on the light source plate, wherein each light module comprises a LED package and a lens, wherein the LED package comprises multiple sections, wherein at least a LED unit is placed in each section, wherein each section has a pair of corresponding LED electrodes (623, 624); and a driver electrically connected to the LED electrodes (623, 624) for supplying an adjustable ratio of separate driving currents to the LED electrodes (623, 624) to generate a required light parameter by mixing multiple lights emitted by the LED units disposed in the sections of the light modules, wherein the lens has multiple lens areas for guiding lights of different sections in each light module to generate a mixed light via the lens, wherein the light source plate has multiple grooves for placing multiple light strips, and the multiple light modules are placed on the light strips, furthermore comprising a light passing cover connected to the light source plate forming a container for enclosing the multiple light modules, wherein the light passing cover has multiple cover lenses corresponding to the multiple light strips. a light source plate; multiple light modules (100,631) placed on the light source plate, wherein each light module comprises a LED package and a lens, wherein the LED package comprises multiple sections, wherein at least a LED unit is placed in each section, wherein each section has a pair of corresponding LED electrodes (623, 624); and a driver electrically connected to the LED electrodes (623, 624) for supplying an adjustable ratio of separate driving currents to the LED electrodes (623, 624) to generate a required light parameter by mixing multiple lights emitted by the LED units disposed in the sections of the light modules, wherein the lens has multiple lens areas for guiding lights of different sections in each light module to generate a mixed light via the lens, wherein the light source plate has multiple grooves for placing multiple light strips, and the multiple light modules are placed on the light strips, furthermore comprising a light passing cover connected to the light source plate forming a container for enclosing the multiple light modules, wherein the light passing cover has multiple cover lenses corresponding to the multiple light strips.
A wall-mountable hand dryer for drying one side of a user's hands at a time, the dryer having two nozzle sections (11, 13) - one for each hand - arranged in a V-configuration when viewed from the front of the dryer, which nozzle sections (11, 13) are positioned towards the front of the dryer so that they are spaced away from the wall in use, the nozzle sections (11, 13) each extending to span the width of a user's open hand and being arranged for directing drying air down onto the front or back of said hand as it is inserted lengthwise underneath the nozzle sections (11, 13) from the front of the dryer, wherein the nozzle sections (11, 13) are provided on an underside of the dryer, and wherein each nozzle section (11, 13) comprises either an elongate air slot or row of air nozzles, characterised in that the left-hand nozzle section is banked to the right and the right-hand nozzle section is banked to the left, and the nozzle sections (11, 13) are arranged at a Relative Bank Angle of 100-120 degrees.
A process for producing an ethylcellulose having an ethoxyl content of from 40 to 55 percent and a viscosity of from 1 to 100 mPa·s, measured as a 5 weight percent solution in toluene and ethanol at a volume ratio of 80: 20 at 25°C, which process comprises the step of depolymerizing an ethylcellulose having an ethoxyl content of from 40 to 55 percent and a viscosity of from 4 to 400 mPa's in the presence of gaseous hydrogen halide to achieve a reduction in viscosity of the ethylcellulose of at least 10 percent and packaging the depolymerized ethylcellulose without a neutralization step after depolymerization.
Radar-based level transmitter, said transmitter comprising: - a semi-conductor component, which is designed o to generate and/or receive electrical high-frequency signals (s HF, eHF), and o to determine a level value using at least the high-frequency signals (eHF) received, - a dielectric waveguide (11a, b), which is in contact with the semi-conductor component in order to couple the high-frequency signals (s HF) into an antenna as radar signals (S HF) - and/or in order to couple received radar signals (E HF) from the antenna into the semi-conductor component as electrical signals (e HF), and - an encapsulation which radially encapsulates at least the waveguide (11a, b) in such a way that a defined cavity is formed between the waveguide (11a, b) and the encapsulation. - a semi-conductor component, which is designed o to generate and/or receive electrical high-frequency signals (s HF, eHF), and o to determine a level value using at least the high-frequency signals (eHF) received, o to generate and/or receive electrical high-frequency signals (s HF, eHF), and o to determine a level value using at least the high-frequency signals (eHF) received, - a dielectric waveguide (11a, b), which is in contact with the semi-conductor component in order to couple the high-frequency signals (s HF) into an antenna as radar signals (S HF) - and/or in order to couple received radar signals (E HF) from the antenna into the semi-conductor component as electrical signals (e HF), and - an encapsulation which radially encapsulates at least the waveguide (11a, b) in such a way that a defined cavity is formed between the waveguide (11a, b) and the encapsulation.
An apparatus (100 or 301) comprising: a motherboard; a sled; and a housing; characterized in that; the motherboard is attached to the sled, wherein the housing encases the sled, and wherein the sled is removably attached to the housing; wherein in a first orientation of the sled in the housing, I/O peripheral ports, a power button and a status indicator light are oriented to a front of the housing, the power button and the status indicator light being interfaced to the motherboard via cabling; and wherein in a second orientation of the sled in the housing, the I/O peripheral ports are oriented to a rear of the housing, opposite the front of the housing, and the power button and status indicator light are oriented to the front of the housing, the power button and the status indicator light being interfaced to the motherboard via cabling, wherein the apparatus includes a hard drive integrated into a tray, the tray being configured to be placed on top of the sled and under a top cover of the housing. a motherboard; a sled; and a housing; characterized in that; the motherboard is attached to the sled, wherein the housing encases the sled, and wherein the sled is removably attached to the housing; wherein in a first orientation of the sled in the housing, I/O peripheral ports, a power button and a status indicator light are oriented to a front of the housing, the power button and the status indicator light being interfaced to the motherboard via cabling; and wherein in a second orientation of the sled in the housing, the I/O peripheral ports are oriented to a rear of the housing, opposite the front of the housing, and the power button and status indicator light are oriented to the front of the housing, the power button and the status indicator light being interfaced to the motherboard via cabling, wherein the apparatus includes a hard drive integrated into a tray, the tray being configured to be placed on top of the sled and under a top cover of the housing.
A display device comprising: a lower substrate; pixels arranged on a display area of the lower substrate; pads arranged on a non-display area of the lower substrate; an encapsulation layer arranged on the pixels; and an anti-film layer arranged on the pads to prevent formation of the encapsulation layer on the pads, wherein an anti-film material constituting a molecule of the anti-film layer includes: a head part bonded to a surface of the pads; a chain extended from one side of the head part; and a tail part connected to an opposite end of the chain than the head, wherein the head part is made of thiol, silane or phosphonic acid, and wherein the tail part is made of methyl. a lower substrate; pixels arranged on a display area of the lower substrate; pads arranged on a non-display area of the lower substrate; an encapsulation layer arranged on the pixels; and an anti-film layer arranged on the pads to prevent formation of the encapsulation layer on the pads, wherein an anti-film material constituting a molecule of the anti-film layer includes: a head part bonded to a surface of the pads; a chain extended from one side of the head part; and a tail part connected to an opposite end of the chain than the head, a head part bonded to a surface of the pads; a chain extended from one side of the head part; and a tail part connected to an opposite end of the chain than the head, wherein the head part is made of thiol, silane or phosphonic acid, and wherein the tail part is made of methyl.
A display device comprising: a display panel; a transparent back cover disposed at a rear of the display panel; characterised by: a first side frame (320R, 320L) disposed at a first side of the display panel; a first side frame cover (320RC, 320LC) configured to cover a second side of the first side frame (320R, 320L); and a cable electrically coupled to the display panel, wherein the cable is extended along the first side frame (320R, 320L), and wherein a passage opening is formed in a portion of the first side frame (320R, 320L) and passes through a first side of the first side frame to the second side of the first side frame, and the cable passes through the passage opening. a display panel; a transparent back cover disposed at a rear of the display panel; characterised by: a first side frame (320R, 320L) disposed at a first side of the display panel; a first side frame cover (320RC, 320LC) configured to cover a second side of the first side frame (320R, 320L); and a cable electrically coupled to the display panel, a first side frame (320R, 320L) disposed at a first side of the display panel; a first side frame cover (320RC, 320LC) configured to cover a second side of the first side frame (320R, 320L); and a cable electrically coupled to the display panel, wherein the cable is extended along the first side frame (320R, 320L), and wherein a passage opening is formed in a portion of the first side frame (320R, 320L) and passes through a first side of the first side frame to the second side of the first side frame, and the cable passes through the passage opening.
A signal sequence allocating device for allocating a signal sequence composed of one or more signals to a plurality of communication areas of a base station in a mobile communication system, comprising: an area radius calculation means for calculating an area radius of an area in a communication area to which a signal sequence is to be allocated; a signal number calculation means for calculating the number of signals forming a signal sequence to be allocated to a communication area based on the area radius calculated by the area radius calculation means; and a signal sequence allocation means for allocating a signal sequence to a communication area based on the number of signals calculated by the signal number calculation means, wherein, when allocating a signal sequence to a communication area, the signal sequence allocation means allocates a signal sequence that maintains a separation distance between the communication area and another communication area to which a signal sequence containing at least one of same signals as signals in the signal sequence is allocated, and, when a predetermined separation distance is not maintained for all of allocable signals, allocates a signal sequence composed of signals that maintain a longest separation distance. an area radius calculation means for calculating an area radius of an area in a communication area to which a signal sequence is to be allocated; a signal number calculation means for calculating the number of signals forming a signal sequence to be allocated to a communication area based on the area radius calculated by the area radius calculation means; and a signal sequence allocation means for allocating a signal sequence to a communication area based on the number of signals calculated by the signal number calculation means, wherein, when allocating a signal sequence to a communication area, the signal sequence allocation means allocates a signal sequence that maintains a separation distance between the communication area and another communication area to which a signal sequence containing at least one of same signals as signals in the signal sequence is allocated, and, when a predetermined separation distance is not maintained for all of allocable signals, allocates a signal sequence composed of signals that maintain a longest separation distance.
A computer-implemented method for selectively issuing alerts from an accident detection system, the method comprising: providing movement data for processing using a machine-learning model executed on a mobile device, the movement data being generated by the mobile device; receiving, from the ML model, a first prediction representative of an occurrence of a first accident; in response to receiving the first prediction, providing a first local alert on the mobile device; and selecting one of a first network and a second network for broadcasting a first remote alert to one or more end-points, if the first network is selected, the first remote alert is broadcast over the first network by the mobile device, and, if the second network is selected, the first remote alert is broadcast over the second network by an alerting module that is in communication with the mobile device, wherein the alerting module is mounted to a mobile device case that encases the mobile device. providing movement data for processing using a machine-learning model executed on a mobile device, the movement data being generated by the mobile device; receiving, from the ML model, a first prediction representative of an occurrence of a first accident; in response to receiving the first prediction, providing a first local alert on the mobile device; and selecting one of a first network and a second network for broadcasting a first remote alert to one or more end-points, if the first network is selected, the first remote alert is broadcast over the first network by the mobile device, and, if the second network is selected, the first remote alert is broadcast over the second network by an alerting module that is in communication with the mobile device, wherein the alerting module is mounted to a mobile device case that encases the mobile device.