mhurhangee/ep-ind-claims huggingface dataset:
A device enabling to cross an obstacle for a motorized vehicle comprised of: - a chassis connected to three wheels (3a, 3b, 3c) on each lateral side; - motor means capable of causing the wheels (3a, 3b, 3c) to rotate; and on each lateral side of the chassis is a mechanism including two arms (7a, 7b) articulated two-by-two around a common pivoting axis, on which the three wheels, a front wheel, an intermediate wheel and a rear wheel, respectively, are distributed, said mechanism permitting each wheel to pivot with respect to the axis of each adjacent wheel, wherein the chassis is connected to each mechanism with articulated arms (7a, 7b) through two shafts (8, 12) mounted so as to freely rotate, at least one of the shafts being capable of compensating for the variation in distance between these two shafts (8, 12) when the arms (7a, 7b) are not aligned. - a chassis connected to three wheels (3a, 3b, 3c) on each lateral side; - motor means capable of causing the wheels (3a, 3b, 3c) to rotate;
A system for measuring vibrations comprising: a vibration measuring apparatus; and an output device operably connected to the vibration measuring apparatus configured to generate an indication based at least in part on vibrations measured by said vibration measuring apparatus; said vibration measuring apparatus comprising: a substrate having one or more integral compliant regions; a plurality of ferromagnetic masses, each ferromagnetic mass coupled to corresponding one or more of the integral compliant regions wherein at least one of the ferromagnetic masses moves with respect to the substrate responsive to substrate acceleration, wherein at least two of the plurality of ferromagnetic masses have an inner magnetic pole disposed such that the inner magnetic poles are separated from one another by a flux gap, wherein the magnetic polarity of each inner magnetic pole is similar to the magnetic polarity of the inner magnetic pole on an opposite side of the flux gap; and one or more coils coupled to the substrate and disposed within the flux gap where the one or more coils are exposed to a changing magnetic flux arising from motion of at least one of the ferromagnetic masses with respect to the substrate, characterized in that the one or more coils are disposed within the flux gap between the at least two ferromagnetic masses. a vibration measuring apparatus; and an output device operably connected to the vibration measuring apparatus configured to generate an indication based at least in part on vibrations measured by said vibration measuring apparatus; a substrate having one or more integral compliant regions; a plurality of ferromagnetic masses, each ferromagnetic mass coupled to corresponding one or more of the integral compliant regions wherein at least one of the ferromagnetic masses moves with respect to the substrate responsive to substrate acceleration, wherein at least two of the plurality of ferromagnetic masses have an inner magnetic pole disposed such that the inner magnetic poles are separated from one another by a flux gap, wherein the magnetic polarity of each inner magnetic pole is similar to the magnetic polarity of the inner magnetic pole on an opposite side of the flux gap; and one or more coils coupled to the substrate and disposed within the flux gap where the one or more coils are exposed to a changing magnetic flux arising from motion of at least one of the ferromagnetic masses with respect to the substrate, characterized in that the one or more coils are disposed within the flux gap between the at least two ferromagnetic masses.
A soap bar composition comprising: a) 25 to 85%, preferably 35 to 75% by weight of C 8 to C 24 fatty acid soap comprising: (i) C 10 soap at 7% or 15% or greater, more preferably 16 to 32% by weight of total bar composition; and, (ii) unsaturated C 18 soap, wherein weight ratio of said unsaturated C 18 soap to C 10 (caprate) soap is 0.8 to 0.1. b) 1 to 45 % organic and inorganic adjuvant materials by weight of the composition; and, c) 5 to 30%, preferably 13 to 28% water by weight of the composition, wherein excess of C10 soap to unsaturated C 18 soap is at least 6%; wherein the unsaturated C 18 soap includes their hydroxy derivatives, wherein the hydroxy derivatives are hydroxyoleate and soaps of ricinoleic acid. a) 25 to 85%, preferably 35 to 75% by weight of C 8 to C 24 fatty acid soap comprising: (i) C 10 soap at 7% or 15% or greater, more preferably 16 to 32% by weight of total bar composition; and, (ii) unsaturated C 18 soap, wherein weight ratio of said unsaturated C 18 soap to C 10 (caprate) soap is 0.8 to 0.1. (i) C 10 soap at 7% or 15% or greater, more preferably 16 to 32% by weight of total bar composition; and, (ii) unsaturated C 18 soap, wherein weight ratio of said unsaturated C 18 soap to C 10 (caprate) soap is 0.8 to 0.1. b) 1 to 45 % organic and inorganic adjuvant materials by weight of the composition; and, c) 5 to 30%, preferably 13 to 28% water by weight of the composition, wherein excess of C10 soap to unsaturated C 18 soap is at least 6%;
A ready-to-apply agent for dyeing and/or lightening keratin fibers, characterized in that it is prepared immediately before application by mixing preparations and, - preparation being an agent containing, in a cosmetic carrier, (a) one or more alkyl glucosides of formula in a total amount of from 0.3 to 4.5 wt.%, based on the total weight of the ready-to-apply agent where R1 represents an unbranched or branched, saturated or unsaturated C 20 -C 28 alkyl group, and n represents an integer from 1 to 10, (b) at least one second alkyl glucoside of formula where R2 represents an unbranched or branched, saturated or unsaturated C 8 -C 18 alkyl group, and m represents an integer from 1 to 10, (c) at least one developer-type oxidation dye precursor, and (d) at least one coupler-type oxidation dye precursor, and - preparation being an agent containing, in a cosmetic carrier, hydrogen peroxide, and - the ready-to-apply agent prepared by mixing preparations and containing hydrogen peroxide in an amount of from 0.5 to 8.0 wt.% (calculated as 100% hydrogen peroxide), based on the total weight of the ready-to-apply agent. - preparation being an agent containing, in a cosmetic carrier, (a) one or more alkyl glucosides of formula in a total amount of from 0.3 to 4.5 wt.%, based on the total weight of the ready-to-apply agent where R1 represents an unbranched or branched, saturated or unsaturated C 20 -C 28 alkyl group, and n represents an integer from 1 to 10, (b) at least one second alkyl glucoside of formula where R2 represents an unbranched or branched, saturated or unsaturated C 8 -C 18 alkyl group, and m represents an integer from 1 to 10, (c) at least one developer-type oxidation dye precursor, and (d) at least one coupler-type oxidation dye precursor, and (a) one or more alkyl glucosides of formula in a total amount of from 0.3 to 4.5 wt.%, based on the total weight of the ready-to-apply agent where R1 represents an unbranched or branched, saturated or unsaturated C 20 -C 28 alkyl group, and n represents an integer from 1 to 10, where R1 represents an unbranched or branched, saturated or unsaturated C 20 -C 28 alkyl group, and n represents an integer from 1 to 10, (b) at least one second alkyl glucoside of formula where R2 represents an unbranched or branched, saturated or unsaturated C 8 -C 18 alkyl group, and m represents an integer from 1 to 10, where R2 represents an unbranched or branched, saturated or unsaturated C 8 -C 18 alkyl group, and m represents an integer from 1 to 10, (c) at least one developer-type oxidation dye precursor, and (d) at least one coupler-type oxidation dye precursor, and - preparation being an agent containing, in a cosmetic carrier, hydrogen peroxide, and - the ready-to-apply agent prepared by mixing preparations and containing hydrogen peroxide in an amount of from 0.5 to 8.0 wt.% (calculated as 100% hydrogen peroxide), based on the total weight of the ready-to-apply agent.
A method for managing an adaptive bitrate, ABR, streaming client engaged in a current ABR streaming session, the method comprising: determining that a wireless UE device being served over a radio link and executing the ABR streaming client is approaching a radio white spot area, the ABR streaming client having a buffer configured to store a fixed number of media segments for the current ABR streaming session; determining an estimation of how long a service outage for the wireless UE device will be in response to the determination that the wireless UE device is approaching a radio white spot area; and dynamically adjusting a time duration of a video sequence comprised in each of a plurality of media segments to be downloaded to the ABR streaming client responsive to the determination of the estimation of how long a service outage will be while the wireless UE device is in the radio white spot area; and delivering the plurality of media segments to the UE device over the radio link prior to the service outage. determining that a wireless UE device being served over a radio link and executing the ABR streaming client is approaching a radio white spot area, the ABR streaming client having a buffer configured to store a fixed number of media segments for the current ABR streaming session; determining an estimation of how long a service outage for the wireless UE device will be in response to the determination that the wireless UE device is approaching a radio white spot area; and dynamically adjusting a time duration of a video sequence comprised in each of a plurality of media segments to be downloaded to the ABR streaming client responsive to the determination of the estimation of how long a service outage will be while the wireless UE device is in the radio white spot area; and delivering the plurality of media segments to the UE device over the radio link prior to the service outage.
An energy storage device (1; 1', 1", 1"') comprising a gas receptacle for storing pressurized gas, at least one thermal storage element for storing thermal energy, and one or several electrical heating devices for heating the at least one thermal storage element by means of electrical energy, characterized in that the at least one thermal storage element and the one or several electrical heating devices are arranged within the gas receptacle, such that the pressurized gas surrounds the at least one thermal storage element, when the pressurized gas is stored in the gas receptacle. a gas receptacle for storing pressurized gas, at least one thermal storage element for storing thermal energy, and one or several electrical heating devices for heating the at least one thermal storage element by means of electrical energy, characterized in that the at least one thermal storage element and the one or several electrical heating devices are arranged within the gas receptacle, such that the pressurized gas surrounds the at least one thermal storage element, when the pressurized gas is stored in the gas receptacle.
An inter-master evolved nodeB, inter-MN, handover procedure without secondary evolved nodeB, SN change, performed by a source master evolved nodeB, source MN, in a wireless communications system supporting dual connectivity, the method comprising: transmitting a handover request message to a target MN of the inter-MN handover procedure, wherein the handover request message includes an identifier, ID, of the SN; receiving a handover request acknowledge message from the target MN in a response to the handover request message, wherein the handover request acknowledge message includes first information informing that UE context for the wireless device in the SN is kept in the inter-MN handover procedure; and transmitting a SN release request message to the SN, wherein the SN release request message includes second information informing that the UE context for the wireless device in the SN is kept in the inter-MN handover procedure. transmitting a handover request message to a target MN of the inter-MN handover procedure, wherein the handover request message includes an identifier, ID, of the SN; receiving a handover request acknowledge message from the target MN in a response to the handover request message, wherein the handover request acknowledge message includes first information informing that UE context for the wireless device in the SN is kept in the inter-MN handover procedure; and transmitting a SN release request message to the SN, wherein the SN release request message includes second information informing that the UE context for the wireless device in the SN is kept in the inter-MN handover procedure.
A fluid ejection device comprising: a fluid ejection die embedded in a moldable material; a number of fluid recirculation pumps within the fluid ejection die to recirculate fluid within a number of firing chambers of the fluid ejection die; and a number of heat exchangers thermally coupled to a fluid channel side of the fluid ejection die, wherein the heat exchangers comprise a loop heat exchanger. a fluid ejection die embedded in a moldable material; a number of fluid recirculation pumps within the fluid ejection die to recirculate fluid within a number of firing chambers of the fluid ejection die; and a number of heat exchangers thermally coupled to a fluid channel side of the fluid ejection die, wherein the heat exchangers comprise a loop heat exchanger.
A heat exchanger assembly for an aircraft with an environmental control system, the heat exchanger assembly comprising: a first heat exchanger in fluid communication with a source of bleed air from the aircraft; a second heat exchanger with a second hot air circuit passing therethrough, wherein the second heat exchanger is disposed adjacent to and in fluid communication with the first heat exchanger; a closure bar disposed between the first and second heat exchangers, such that the closure bar prevents fluid communication across the closure bar between the first and second heat exchangers; and a drain manifold mounted to a sidewall of the heat exchanger assembly, wherein a channel in the drain manifold is in fluid communication with a surface of the closure bar; and characterized in that the first heat exchanger is positioned above the second heat exchanger relative to a direction of gravity. a first heat exchanger in fluid communication with a source of bleed air from the aircraft; a second heat exchanger with a second hot air circuit passing therethrough, wherein the second heat exchanger is disposed adjacent to and in fluid communication with the first heat exchanger; a closure bar disposed between the first and second heat exchangers, such that the closure bar prevents fluid communication across the closure bar between the first and second heat exchangers; and a drain manifold mounted to a sidewall of the heat exchanger assembly, wherein a channel in the drain manifold is in fluid communication with a surface of the closure bar; and characterized in that the first heat exchanger is positioned above the second heat exchanger relative to a direction of gravity.
A method of generating channel estimates of a channel in a wireless communication receiver, for processing a received communication signal, the method comprising: generating first channel estimates from a set of pilot observations obtained from the received communication signal, using a first channel estimation process not dependent on a priori knowledge of channel statistics; estimating channel statistics and a noise variance of the channel from the first channel estimates, wherein the channel statistics comprise a frequency-domain channel-correlation matrix; and generating second channel estimates from the set of pilot observations, the estimated channel statistics, and the estimated noise variance, using a second channel estimation process dependent on a priori knowledge of the channel statistics, wherein the method is characterised in that it further comprises the step of generating revised estimates of the channel statistics and noise variance from the second channel estimates, and generating revised second channel estimates from the set of pilot observations, the revised estimated channel statistics, and the revised estimated noise variance. generating first channel estimates from a set of pilot observations obtained from the received communication signal, using a first channel estimation process not dependent on a priori knowledge of channel statistics; estimating channel statistics and a noise variance of the channel from the first channel estimates, wherein the channel statistics comprise a frequency-domain channel-correlation matrix; and generating second channel estimates from the set of pilot observations, the estimated channel statistics, and the estimated noise variance, using a second channel estimation process dependent on a priori knowledge of the channel statistics, wherein the method is characterised in that it further comprises the step of generating revised estimates of the channel statistics and noise variance from the second channel estimates, and generating revised second channel estimates from the set of pilot observations, the revised estimated channel statistics, and the revised estimated noise variance.
A delivery pipe comprising: a pipe integrally including at least one cylindrical tube section and at least one flat tube section, the flat tube section including a planar attachment portion having a distribution hole (24a1) extending through the planar attachment portion in a thickness direction thereof; and a valve attachment including a hollow cylindrical portion having a hollow cylindrical shape and a connection portion having a planar shape, the hollow cylindrical portion having a closed end closed by the connection portion and being configured to be attached to a fuel injection valve, the connection portion having an introduction hole (40a1) that extends through the connection portion in a thickness direction thereof and communicates with the distribution hole (24a1) of the planar attachment portion, the valve attachment being connected to the planar attachment portion of the flat tube section at a position adjacent to either one of edges (24a2, 24a3) of the planar attachment portion, the edges (24a2, 24a3) of the planar attachment portion extending along an axial direction of the pipe; characterized by a mounting member attached to an outer surface of the cylindrical tube section at a side corresponding to the one of the edges (24a2, 24a3) of the planar attachment portion adjacent to which the valve attachment is connected, the mounting member being configured to maintain the cylindrical tube section in a fixed position, wherein the mounting member has a cylindrical shape configured to extend in a direction parallel to the axial direction of the valve attachment. a pipe integrally including at least one cylindrical tube section and at least one flat tube section, the flat tube section including a planar attachment portion having a distribution hole (24a1) extending through the planar attachment portion in a thickness direction thereof; and a valve attachment including a hollow cylindrical portion having a hollow cylindrical shape and a connection portion having a planar shape, the hollow cylindrical portion having a closed end closed by the connection portion and being configured to be attached to a fuel injection valve, the connection portion having an introduction hole (40a1) that extends through the connection portion in a thickness direction thereof and communicates with the distribution hole (24a1) of the planar attachment portion, the valve attachment being connected to the planar attachment portion of the flat tube section at a position adjacent to either one of edges (24a2, 24a3) of the planar attachment portion, the edges (24a2, 24a3) of the planar attachment portion extending along an axial direction of the pipe; characterized by a mounting member attached to an outer surface of the cylindrical tube section at a side corresponding to the one of the edges (24a2, 24a3) of the planar attachment portion adjacent to which the valve attachment is connected, the mounting member being configured to maintain the cylindrical tube section in a fixed position, wherein the mounting member has a cylindrical shape configured to extend in a direction parallel to the axial direction of the valve attachment.
A method for personalizing a multipage security document, the method comprising: on a sequence (701a-d) of pages: placing a laser-alterable ink layer on a personalization area (401, 503, 603, 1103a-g, 1607) of an edge of each of the sequence of pages; revealing a portion of the personalization area of each of the sequence of pages relative to a page above said each of the sequence of pages such that the personalization portion of each two consecutive pages in said sequence of pages are located adjacent to one another thereby producing a two-dimensional multi-page personalization section; creating a pattern on the two-dimensional multi-page personalization section by altering the inked personalization area in the revealed portion of each page of said sequence of pages by exposing said revealed portions to a laser, such that a pattern is visible when the revealed portions of a sequence of pages are viewed simultaneously. placing a laser-alterable ink layer on a personalization area (401, 503, 603, 1103a-g, 1607) of an edge of each of the sequence of pages; revealing a portion of the personalization area of each of the sequence of pages relative to a page above said each of the sequence of pages such that the personalization portion of each two consecutive pages in said sequence of pages are located adjacent to one another thereby producing a two-dimensional multi-page personalization section; creating a pattern on the two-dimensional multi-page personalization section by altering the inked personalization area in the revealed portion of each page of said sequence of pages by exposing said revealed portions to a laser, such that a pattern is visible when the revealed portions of a sequence of pages are viewed simultaneously.
A method for file transfer, the method comprising: a) sending, by a client data processing system, a file download request to a file server data processing system, al) the file download request identifying a range of bytes corresponding to a section of a file to be downloaded; b) receiving, by the client data processing system, a command instruction file from the file server data processing system, the command instruction file containing a list of instructions that, when executed, perform a file transfer according to the file download request, bl) the command instruction file including a ticket value; and c) downloading, by the client data processing system and according to the command instruction file, the section of the file corresponding to the file download request and identified by the range of bytes, wherein the client data processing system uses the ticket value as an authentication token when downloading the section of the file. a) sending, by a client data processing system, a file download request to a file server data processing system, al) the file download request identifying a range of bytes corresponding to a section of a file to be downloaded; b) receiving, by the client data processing system, a command instruction file from the file server data processing system, the command instruction file containing a list of instructions that, when executed, perform a file transfer according to the file download request, bl) the command instruction file including a ticket value; and c) downloading, by the client data processing system and according to the command instruction file, the section of the file corresponding to the file download request and identified by the range of bytes, wherein the client data processing system uses the ticket value as an authentication token when downloading the section of the file.