mhurhangee/ep-ind-claims huggingface dataset:
A bone plate, comprising: a head extending from a first end of the bone plate and having first, second, third and fourth fixation element holes (112, 114, 116, 118) extending therethrough; and a shaft extending from the head to a second end of the bone plate, the shaft including an elongated fixation element hole elongated in a direction parallel to a longitudinal axis of the bone plate, characterized in that the bone plate is sized and shaped for fixation to a phalangeal bone, wherein a bone contacting surface of the head is contoured to conform to the anatomy of a dorsal surface of a first metacarpal, the contour being curved to be seated over a protuberance at a head of the first metacarpal, and in that the first, second, third and fourth fixation element holes (112, 114, 116, 118) are arranged in a diamond configuration on the head, an outer wall of the head having a diamond shape corresponding to the diamond configuration. a head extending from a first end of the bone plate and having first, second, third and fourth fixation element holes (112, 114, 116, 118) extending therethrough; and a shaft extending from the head to a second end of the bone plate, the shaft including an elongated fixation element hole elongated in a direction parallel to a longitudinal axis of the bone plate, characterized in that the bone plate is sized and shaped for fixation to a phalangeal bone, wherein a bone contacting surface of the head is contoured to conform to the anatomy of a dorsal surface of a first metacarpal, the contour being curved to be seated over a protuberance at a head of the first metacarpal, and in that the first, second, third and fourth fixation element holes (112, 114, 116, 118) are arranged in a diamond configuration on the head, an outer wall of the head having a diamond shape corresponding to the diamond configuration.
A method of a user equipment, UE, comprising: receiving information corresponding to a first position and a first width from a base station, wherein the first width identifies a width of a UE-specific bandwidth starting from the first position in a frequency domain, the UE-specific bandwidth being a part of a cell-specific bandwidth of a cell, and wherein a resource for a Channel State Information Reference Signal, CSI-RS, is configured within the UE-specific bandwidth; generating a first sequence, for the CSI-RS, the first sequence being mapped within the resource, the first sequence having at least two elements, each of the at least two elements having a respective index, each respective index being associated with a different one of respective indices of second positions within the resource, the respective indices of the second positions defined relative to a cell-specific position in the frequency domain, wherein the cell-specific position is common for each UE within the cell; and receiving the CSI-RS at the second positions. receiving information corresponding to a first position and a first width from a base station, wherein the first width identifies a width of a UE-specific bandwidth starting from the first position in a frequency domain, the UE-specific bandwidth being a part of a cell-specific bandwidth of a cell, and wherein a resource for a Channel State Information Reference Signal, CSI-RS, is configured within the UE-specific bandwidth; generating a first sequence, for the CSI-RS, the first sequence being mapped within the resource, the first sequence having at least two elements, each of the at least two elements having a respective index, each respective index being associated with a different one of respective indices of second positions within the resource, the respective indices of the second positions defined relative to a cell-specific position in the frequency domain, wherein the cell-specific position is common for each UE within the cell; and receiving the CSI-RS at the second positions.
A process of etching or plating comprising the steps of: i) ink jet printing an alkali removable water insoluble hot melt ink jet ink onto a substrate to form a resist image; ii) etching or plating the substrate in an aqueous acid medium; and iii) removing the resist image with an aqueous alkali; characterised in that the ink comprises an alkali soluble resin and at least 30% by weight of one or more alkali soluble organic acid waxes, and wherein the ink comprises 95% by weight or more alkali soluble components. i) ink jet printing an alkali removable water insoluble hot melt ink jet ink onto a substrate to form a resist image; ii) etching or plating the substrate in an aqueous acid medium; and iii) removing the resist image with an aqueous alkali; characterised in that the ink comprises an alkali soluble resin and at least 30% by weight of one or more alkali soluble organic acid waxes, and wherein the ink comprises 95% by weight or more alkali soluble components.
Use of a reflective and transparent foil to produce a Pepper's ghost illusion, wherein the foil comprises a polymeric composite film, in which a flame retardant is substantially, and preferably fully, dissolved, the foil is provided as a roll of foil, the foil comprises an anti-stick filler which prevents adjacent foil surfaces from sticking to one another and the foil has a haze of less than 10%.
A textile sleeve (10, 10') for routing and protecting elongate members, comprising: a plurality of yarns (34, 34', 36) interlaced with one another forming an elongate, circumferentially continuous, tubular wall extending lengthwise along a longitudinal axis between opposite open ends (20, 22), said plurality of yarns (34, 34', 36) including warp yarn (34, 34') extending generally parallel to said longitudinal axis and weft yarn extending generally transversely to said warp yarn (34, 34'), said warp yarn (34, 34') and said weft yarn being woven with one another, characterised in that at least some of said plurality of yarns (34, 34', 36) include tubular yarn.
A safety apparatus for a pressurised system, the apparatus comprising: first and second safety valves (101, 102); a system port for connection to the pressurised system; and a connecting means comprising a three way valve, wherein the three way valve comprises a valve member which is arranged to rotate about an axis defined between two ends (303, 304) of the valve member and wherein a channel is formed in a portion of the valve member in the region in between the two ends (303, 304) of the valve member, wherein the channel forms an opening on the surface of the valve member, wherein the first and second safety valves (101, 102) are connected to the system port through the connecting means, which can be arranged to individually isolate either the first or second safety valve (101, 102) from the system port without isolating the other safety valve (101, 102) from the system port thereby preventing both safety valves (101, 102) being isolated from the system port at the same time, characterised in that the opening extends around at least one half of the circumference of the valve member, and in that the connecting means can be arranged to provide full bore connection simultaneously to the first and second safety valves (101, 102) and the system port.
A method of zero-D dimming for a display using right and left image data, comprising, receiving right image data having right pixel luminance values; receiving left image data having left pixel luminance values; determining in the left image data which pixels have a luminance value that is different from the corresponding pixels in the right image data, wherein the corresponding pixel in the right image data being located at the same image coordinates and from said determined pixels calculating a cumulative image histogram, and determining a cutoff value as a function of a percentile statistics value of the cumulative image histogram; and using said percentile statistics value of the cumulative image histogram to derive a pulse width modulation value for backlight dimming, and modifying, using a controller, the right and left pixel luminance values, comprising: modifying the right and left pixel luminance values that are below the cutoff value using a first factor based upon an average or a percentile statistics based luminance value; and modifying the right and left pixel luminance values that are above the cutoff value using a second factor being defined according to, F m = 1 − F * L r − L l + F wherein F m being the second factor, F being the first factor, L r and L l being respectively the right luminance and the left luminance value, wherein the modifying step comprises modifying the right and left pixel luminance values for frames of the right and left image data. modifying the right and left pixel luminance values that are below the cutoff value using a first factor based upon an average or a percentile statistics based luminance value; and modifying the right and left pixel luminance values that are above the cutoff value using a second factor being defined according to, F m = 1 − F * L r − L l + F wherein F m being the second factor, F being the first factor, L r and L l being respectively the right luminance and the left luminance value, F m being the second factor, F being the first factor, L r and L l being respectively the right luminance and the left luminance value,
An audio transmission method, comprising: receiving, by a first device, noise energy data and transmission efficiency data from a second device, wherein the noise energy data is used to indicate noise energy or noise loudness, and the transmission efficiency data is used to indicate quality of a wireless channel between the first device and the second device; determining, by the first device, a first bit rate based on the noise energy data, and determining a second bit rate based on the transmission efficiency data; encoding, by the first device, an audio stream based on a lower bit rate of the first bit rate and the second bit rate, to obtain audio data; and sending, by the first device, the audio data to the second device. receiving, by a first device, noise energy data and transmission efficiency data from a second device, wherein the noise energy data is used to indicate noise energy or noise loudness, and the transmission efficiency data is used to indicate quality of a wireless channel between the first device and the second device; determining, by the first device, a first bit rate based on the noise energy data, and determining a second bit rate based on the transmission efficiency data; encoding, by the first device, an audio stream based on a lower bit rate of the first bit rate and the second bit rate, to obtain audio data; and sending, by the first device, the audio data to the second device.
A channel selection method for a station comprising: ranking multiple channels; generating a backoff count value; determining, for each timeslot, a value of a decrement step that equals a quantity of idle channels in the timeslot divided by a quantity of channels required by the station for sending data; sequentially decrementing using the decrement step, from an initial timeslot, the backoff count value in each timeslot according to a ranking sequence of the channels and busy/idle states of all the multiple channels until the backoff count value is 0; and selecting, from the multiple channels according to a result of the decrement performed on the backoff count value and a busy/idle state of at least one of the multiple channels, p channels as channels that are used by the station for sending uplink data, where p is the quantity of channels required by the station. ranking multiple channels; generating a backoff count value; determining, for each timeslot, a value of a decrement step that equals a quantity of idle channels in the timeslot divided by a quantity of channels required by the station for sending data; sequentially decrementing using the decrement step, from an initial timeslot, the backoff count value in each timeslot according to a ranking sequence of the channels and busy/idle states of all the multiple channels until the backoff count value is 0; and selecting, from the multiple channels according to a result of the decrement performed on the backoff count value and a busy/idle state of at least one of the multiple channels, p channels as channels that are used by the station for sending uplink data, where p is the quantity of channels required by the station.
Installation for thermolysis of waste comprising at least two vessels (2,4), that is to say a drying first vessel and a calcining second vessel, each of these two vessels (2,4) being able to operate under a vacuum, the first vessel being able to dry the incoming waste and the second vessel being able to perform calcination treatment of the dried waste from the first vessel, each of the two vessels (2,4), for drying and calcining comprising a system for external heating having at least one combustion chamber (3,5), and at least one vacuum pump (15,16) making it possible to maintain the vacuum in said vessel (2,4) and which is linked to said vessel (2,4) by an extraction pipe (13,14), said installation being characterized in that it comprises at least one pipe (14,12) for circulating gas from the second vessel to the second vessel through the system for external heating of the second vessel, the pipe (14,12) for circulating gas from the second vessel to the second vessel having multiples exit holes to the second vessel.
A fuel transfer cable comprising: a first connector adapted to connect to a fuel supply, a second connecter adapted to connect to a fuel cell, an elongated tube fluidly connecting the first connector to the second connector, so that a fuel in the fuel supply is transported to the fuel cell, and a tamper resistant element comprising a normally closed valve kept open by an actuator; wherein when the actuator is broken or cut the normally closed valve closes; and wherein the actuator comprises one of: a) a conduit within the elongated tube that contains a pressurized hydraulic fluid; b) a sheath and a movable rod contained within the sheath wherein during the connection of the second connector to the fuel cell, the rod is moved relative to the sheath to open the normally closed valve; or c) a shape memory alloy wire connected to the normally closed valve and electrically connectable to a fuel cell; wherein the shape memory alloy wire is inserted into a sheath or within the tube and is looped around or is otherwise connected at about its half of its length to the normally closed valve; whereby when the shape memory alloy wire is electrically connected to a fuel cell, and the fuel cell is operational and produces electricity, the shape memory alloy wire is heated to shrink, causing the normally closed valve to open and remain open until the fuel cell is turned off. a first connector adapted to connect to a fuel supply, a second connecter adapted to connect to a fuel cell, an elongated tube fluidly connecting the first connector to the second connector, so that a fuel in the fuel supply is transported to the fuel cell, and a tamper resistant element comprising a normally closed valve kept open by an actuator; a) a conduit within the elongated tube that contains a pressurized hydraulic fluid; b) a sheath and a movable rod contained within the sheath wherein during the connection of the second connector to the fuel cell, the rod is moved relative to the sheath to open the normally closed valve; or c) a shape memory alloy wire connected to the normally closed valve and electrically connectable to a fuel cell;
A self-tune controller comprising: a monitor module configured to collect operation information about a processor (102-1, 102-2, 102-3, 102-N) of a computing system and a bus (108, 110, 112, 132) of the computing system under a present workload, at least some of the operation information relates directly or inferentially to a bus transaction rate for a requestor on the bus (108, 110, 112, 132), wherein the monitor module is configured to collect at least some of the operation information by directly polling chipset registers of the processor (102-1, 102-2, 102-3, 102-N), wherein the monitor module is configured to collect at least some of the operation information without utilizing execution cycles of the processor; and a tuner module configured to dynamically adjust, via a control signal, a setting of the computing system for the present workload and based on collected operation information, wherein the tuner module is configured to dynamically adjust the setting without utilizing execution cycles of the processor, wherein the setting includes a requestor queue depth allotment for the requestor, and the tuner module is configured to adjust a requestor queue depth allotment relative to a corresponding bus transaction rate for the requestor. a monitor module configured to collect operation information about a processor (102-1, 102-2, 102-3, 102-N) of a computing system and a bus (108, 110, 112, 132) of the computing system under a present workload, at least some of the operation information relates directly or inferentially to a bus transaction rate for a requestor on the bus (108, 110, 112, 132), wherein the monitor module is configured to collect at least some of the operation information by directly polling chipset registers of the processor (102-1, 102-2, 102-3, 102-N), wherein the monitor module is configured to collect at least some of the operation information without utilizing execution cycles of the processor; and a tuner module configured to dynamically adjust, via a control signal, a setting of the computing system for the present workload and based on collected operation information, wherein the tuner module is configured to dynamically adjust the setting without utilizing execution cycles of the processor, wherein the setting includes a requestor queue depth allotment for the requestor, and the tuner module is configured to adjust a requestor queue depth allotment relative to a corresponding bus transaction rate for the requestor.
An oral care or body care composition comprising an extract of the root of the plant Glycyrrhiza sp., comprising an essentially glycyrrhizic acid free extract wherein the extract comprises prenylated flavonoids, wherein the root was extracted by a supercritical CO 2 extraction process and wherein the extract comprises licoricidin and licorisoflavan A.
Adjustable railing post, in particular for attachment to uneven underlying surfaces, characterized in that two half-shells are arranged on the railing post in the lower region, which partially enclose a ball fixedly connected to an anchor plate while forming a gap, wherein the ball and the half-shells have concentric boreholes (5, 10) extending parallel to the anchor plate and a threaded rod, which penetrates the ball and the half-shells, having nuts is provided.
Process for preparing 3,4-dichloro-N-(2-cyanophenyl)-5-isothiazolecarboxamide of the formula by a) reacting 3,4-dichloroisothiazole-5-carbonyl chloride of the formula with anthranilamide of the formula if appropriate in the presence of an acid acceptor, and b) then reacting the N-[2-(aminocarbonyl)phenyl]-3,4-dichloro-5-isothiazolecarboxamide of the formula formed with a dehydrating agent, characterized in that the product obtained in process step b) is worked up and isolated in the presence of an alcohol. a) reacting 3,4-dichloroisothiazole-5-carbonyl chloride of the formula with anthranilamide of the formula if appropriate in the presence of an acid acceptor, and b) then reacting the N-[2-(aminocarbonyl)phenyl]-3,4-dichloro-5-isothiazolecarboxamide of the formula formed with a dehydrating agent, characterized in that the product obtained in process step b) is worked up and isolated in the presence of an alcohol.
A method for accelerating on a client access by the client to one or more applications on a server by multiplexing a plurality of application requests via a shared transport layer connection, the method comprising the steps of: (a) intercepting, by an acceleration program on a client, a first request by a first application of the client to access a server; (b) transmitting, by the acceleration program, the first request via a transport layer connection established between the acceleration program and the server; (c) intercepting, by the acceleration program, a second request by a second application of the client to access the server; (d) determining, by the acceleration program, that the established transport layer connection is not currently in use by the first application; and (e) transmitting, by the acceleration program, the second request via the established transport layer connection used by the first application, responsive to the determination that the established transport layer connection is not currently in use by the first application. (a) intercepting, by an acceleration program on a client, a first request by a first application of the client to access a server; (b) transmitting, by the acceleration program, the first request via a transport layer connection established between the acceleration program and the server; (c) intercepting, by the acceleration program, a second request by a second application of the client to access the server; (d) determining, by the acceleration program, that the established transport layer connection is not currently in use by the first application; and (e) transmitting, by the acceleration program, the second request via the established transport layer connection used by the first application, responsive to the determination that the established transport layer connection is not currently in use by the first application.
A control valve assembly comprising: a process fluid pipeline; a valve to control a process fluid flow through the pipeline; an actuator for actuating the valve; a control fluid power apparatus for operating the actuator, the control fluid power apparatus comprising: a first housing having a first piston defining a first chamber and a second chamber, the first chamber to receive a control fluid and the second chamber to receive the process fluid from the process fluid pipe line, the first chamber being w oriented above the second chamber; and a second housing having a second piston defining a third chamber and a fourth chamber, the third chamber to receive the control fluid and the fourth chamber is to receive the process fluid, the third chamber being oriented above the fourth chamber. a process fluid pipeline; a valve to control a process fluid flow through the pipeline; an actuator for actuating the valve; a control fluid power apparatus for operating the actuator, the control fluid power apparatus comprising: a first housing having a first piston defining a first chamber and a second chamber, the first chamber to receive a control fluid and the second chamber to receive the process fluid from the process fluid pipe line, the first chamber being w oriented above the second chamber; and a second housing having a second piston defining a third chamber and a fourth chamber, the third chamber to receive the control fluid and the fourth chamber is to receive the process fluid, the third chamber being oriented above the fourth chamber. a first housing having a first piston defining a first chamber and a second chamber, the first chamber to receive a control fluid and the second chamber to receive the process fluid from the process fluid pipe line, the first chamber being w oriented above the second chamber; and a second housing having a second piston defining a third chamber and a fourth chamber, the third chamber to receive the control fluid and the fourth chamber is to receive the process fluid, the third chamber being oriented above the fourth chamber.