mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for operating a computer-controlled system, comprising means for monitoring the performance of the system when operating under the control of a first process, and matching means for comparing the monitored performance to a set of predetermined requirements (15, 75), and for identifying when such performance fails to meet the set of predetermined requirements, characterised by: process generation means for responding to identification by the matching means that the performance of the system fails to meet the predetermined set of requirements, by generating a second process from process data retrieved from a data store, means for installing the second process to control the system matching in place of the first process, and wherein the matching means has means for reading process data relating to predetermined requirements (15, 75) for the second process, and comparison means to compare the read process data with the predetermined requirements (15, 75) for the second process, thereby identifying data having characteristics meeting the set of predetermined requirements (15, 75), and selection means to select process data from the data so identified, for installing the second process. process generation means for responding to identification by the matching means that the performance of the system fails to meet the predetermined set of requirements, by generating a second process from process data retrieved from a data store, means for installing the second process to control the system matching in place of the first process, and wherein the matching means has means for reading process data relating to predetermined requirements (15, 75) for the second process, and comparison means to compare the read process data with the predetermined requirements (15, 75) for the second process, thereby identifying data having characteristics meeting the set of predetermined requirements (15, 75), and selection means to select process data from the data so identified, for installing the second process.
A system for detection of non-ferrous debris in a stream of liquid, comprising: a body; a conduit disposed within and passing through the body, the conduit being configured to channel fluid through the body, the conduit having: a separator, the separator being a spiraling conduit that bifurcates into a first channel and a second channel, the first channel being configured to channel bubbles and the second channel being configured to channel particles; a monitoring chamber in fluid communication with both the first channel and the second channel; and a sensor held by the body and configured to sense particles passing through the monitoring chamber, and wherein the sensor is an acoustic sensor, or an acoustical sensor. a body; a conduit disposed within and passing through the body, the conduit being configured to channel fluid through the body, the conduit having: a separator, the separator being a spiraling conduit that bifurcates into a first channel and a second channel, the first channel being configured to channel bubbles and the second channel being configured to channel particles; a monitoring chamber in fluid communication with both the first channel and the second channel; and a sensor held by the body and configured to sense particles passing through the monitoring chamber, and wherein the sensor is an acoustic sensor, or an acoustical sensor. a separator, the separator being a spiraling conduit that bifurcates into a first channel and a second channel, the first channel being configured to channel bubbles and the second channel being configured to channel particles; a monitoring chamber in fluid communication with both the first channel and the second channel; and a sensor held by the body and configured to sense particles passing through the monitoring chamber, and wherein the sensor is an acoustic sensor, or an acoustical sensor.
A passenger seat assembly comprising: a seat frame; a seat back supported by the seat frame, comprising a rearward surface, and moveable between a stowed position and a deployed position; and a monitor shroud positioned proximate to the rearward surface of the seat back and comprising a support member configured to be fixedly coupled to a stationary surface and a video monitor portion coupled to the support member, wherein the monitor shroud remains stationary as the seat back moves between the stowed position and the deployed position, and the monitor shroud defines an opening that provides access to the rearward surface of the seat back; wherein the rearward surface is positioned substantially behind the support member in the stowed position and is positioned substantially in front of the support member in the deployed position. a seat frame; a seat back supported by the seat frame, comprising a rearward surface, and moveable between a stowed position and a deployed position; and a monitor shroud positioned proximate to the rearward surface of the seat back and comprising a support member configured to be fixedly coupled to a stationary surface and a video monitor portion coupled to the support member, wherein the monitor shroud remains stationary as the seat back moves between the stowed position and the deployed position, and the monitor shroud defines an opening that provides access to the rearward surface of the seat back; wherein the rearward surface is positioned substantially behind the support member in the stowed position and is positioned substantially in front of the support member in the deployed position.
A brake assembly including: a brake housing, an adjuster mechanism received within the brake housing, a module including a module housing enclosing an electric motor, and an integrated electronic unit, the integrated electronic unit including one or more of:- a PCB, a processor, preferably a microprocessor, memory, a motor driver, a CAN transmitter, a CAN reader, an output element mounted externally of the module housing and received within the brake housing, the output element being operably coupled to the electric motor and the module housing including an electrical interface for electrically coupling the motor to one or more components mounted externally of the module housing, the electrical interface includes at least a first electrical connector and a second electrical connector distinct from the first electrical connector, and the first electrical connector is received within the brake housing and the second electrical connector is mounted externally of the brake housing, wherein the module is at least partially received in the brake housing, and being operable to adjust the adjuster mechanism. a brake housing, an adjuster mechanism received within the brake housing, a module including a module housing enclosing an electric motor, and an integrated electronic unit, the integrated electronic unit including one or more of:- a PCB, a processor, preferably a microprocessor, memory, a motor driver, a CAN transmitter, a CAN reader, an output element mounted externally of the module housing and received within the brake housing, the output element being operably coupled to the electric motor and the module housing including an electrical interface for electrically coupling the motor to one or more components mounted externally of the module housing, the electrical interface includes at least a first electrical connector and a second electrical connector distinct from the first electrical connector, and the first electrical connector is received within the brake housing and the second electrical connector is mounted externally of the brake housing, wherein the module is at least partially received in the brake housing, and being operable to adjust the adjuster mechanism. a PCB, a processor, preferably a microprocessor, memory, a motor driver, a CAN transmitter, a CAN reader, an output element mounted externally of the module housing and received within the brake housing, the output element being operably coupled to the electric motor and the module housing including an electrical interface for electrically coupling the motor to one or more components mounted externally of the module housing, the electrical interface includes at least a first electrical connector and a second electrical connector distinct from the first electrical connector, and the first electrical connector is received within the brake housing and the second electrical connector is mounted externally of the brake housing, wherein the module is at least partially received in the brake housing, and being operable to adjust the adjuster mechanism.
A system including a plurality of audio playback devices in communication with each other, wherein a group of the audio playback devices are arranged to render audio content provided by an audio source in synchrony, the system comprising: a first audio playback device within the group of audio playback devices, wherein the first audio playback device is configured as an audio master to distribute audio content to the other audio playback devices within the group; a second audio playback device of the plurality of audio playback devices, the second audio playback device different from the first audio playback device, wherein the second audio playback device is configured as a clock master to distribute clock information to the audio playback devices within the group, and wherein the clock information is used to help determine playback timing for the audio content; and a third audio playback device of the plurality of audio playback devices, the third audio playback device different from the second audio playback device, wherein in response to the second audio playback device losing power or becoming the audio master, the second audio playback device is no longer configured to distribute the clock information and the third audio playback device is configured as a new clock master to distribute the clock information to the audio playback devices within the group. a first audio playback device within the group of audio playback devices, wherein the first audio playback device is configured as an audio master to distribute audio content to the other audio playback devices within the group; a second audio playback device of the plurality of audio playback devices, the second audio playback device different from the first audio playback device, wherein the second audio playback device is configured as a clock master to distribute clock information to the audio playback devices within the group, and wherein the clock information is used to help determine playback timing for the audio content; and a third audio playback device of the plurality of audio playback devices, the third audio playback device different from the second audio playback device, wherein in response to the second audio playback device losing power or becoming the audio master, the second audio playback device is no longer configured to distribute the clock information and the third audio playback device is configured as a new clock master to distribute the clock information to the audio playback devices within the group.
An implant comprising an enossal area and provided with an inorganic coating, wherein the coating is selected from the group consisting of ceramic, glass ceramic, glass which at least partially covers the enossal area, and the coating facilitates the ongrowth of the implant within the bone, characterized in that said inorganic coating can be removed chemically under physiological conditions by contact with liquids occurring in the oral cavity.
A method for identifying an individual with a cancer who is more likely to respond to a treatment with a Programmed Death Ligand 1 (PD-L1) binding antagonist, the method comprising: (a) determining in a sample from the individual the presence or level of PD-L1, wherein the presence or an increase in the level of PD-L1 in the sample relative to that in a reference sample indicates that the individual is more likely to respond to treatment with the PD-L1 binding antagonist; and further determining in the sample the presence or level of: (i) PD-1, PD-L2, or both PD-1 and PD-L2; (ii) one or more T-cell related markers, wherein the one or more T-cell related markers is selected from the group consisting of CD8A, IFN-g, EOMES, Granzyme-A, and CXCL9; (iii) one or more markers selected from the group consisting of CXC3L1, CD45RO, IDO1, Galectin 9, MIC-A, MIC-B, and CTLA-4; and/or (iv) one or more markers selected from the group consisting of IFN-g, CD8A, Granzyme B, and CXCL9; and (b) providing a recommendation that the individual will be more likely to respond to treatment with the PD-L1 binding antagonist, wherein the PD-L1 binding antagonist is an anti-PD-L1 antibody. (a) determining in a sample from the individual the presence or level of PD-L1, wherein the presence or an increase in the level of PD-L1 in the sample relative to that in a reference sample indicates that the individual is more likely to respond to treatment with the PD-L1 binding antagonist; and further determining in the sample the presence or level of: (i) PD-1, PD-L2, or both PD-1 and PD-L2; (ii) one or more T-cell related markers, wherein the one or more T-cell related markers is selected from the group consisting of CD8A, IFN-g, EOMES, Granzyme-A, and CXCL9; (iii) one or more markers selected from the group consisting of CXC3L1, CD45RO, IDO1, Galectin 9, MIC-A, MIC-B, and CTLA-4; and/or (iv) one or more markers selected from the group consisting of IFN-g, CD8A, Granzyme B, and CXCL9; and (i) PD-1, PD-L2, or both PD-1 and PD-L2; (ii) one or more T-cell related markers, wherein the one or more T-cell related markers is selected from the group consisting of CD8A, IFN-g, EOMES, Granzyme-A, and CXCL9; (iii) one or more markers selected from the group consisting of CXC3L1, CD45RO, IDO1, Galectin 9, MIC-A, MIC-B, and CTLA-4; and/or (iv) one or more markers selected from the group consisting of IFN-g, CD8A, Granzyme B, and CXCL9; and (b) providing a recommendation that the individual will be more likely to respond to treatment with the PD-L1 binding antagonist,
A turbine engine, such as a turbojet or a turboprop, extending along a motor axis and comprising: - at least one hollow guidance arm radially extending relative to the motor axis from a hub to an annular casing of the turbine engine, having a radially external end secured to said annular casing and opening out in an opening of said annular casing, - one radial countershaft positioned in said guidance arm for rotatably driving at least one device arranged at the periphery of said annular casing, - a transfer case positioned facing the opening of the annular casing and comprising rotational power transfer means (76, 78) between the radial countershaft and the device, characterized in that the guidance arm is equipped, at the radially external end thereof, with a widened section by which it opens out in the opening of the annular casing and in which a portion of the transfer case is accommodated. - at least one hollow guidance arm radially extending relative to the motor axis from a hub to an annular casing of the turbine engine, having a radially external end secured to said annular casing and opening out in an opening of said annular casing, - one radial countershaft positioned in said guidance arm for rotatably driving at least one device arranged at the periphery of said annular casing, - a transfer case positioned facing the opening of the annular casing and comprising rotational power transfer means (76, 78) between the radial countershaft and the device,
An apparatus for heating and/or cooling a medium contained in a compartment external to said apparatus, comprising i) a reactor, ii) a reservoir containing a liquid or gaseous fluid capable of changing state in a determined range of temperatures and of pressures, and iii) means of circulating the gaseous fluid between the reactor and the reservoir, said reactor comprising: - a rigid enclosure defining a vessel which contains a reactive medium able to absorb and desorb said fluid in the gaseous state through a thermochemical reaction, - diffusing means for diffusing said gaseous fluid into and from said reactive medium, - heat-transfer means for transferring heat between said reactive medium and said external medium, the enclosure of the reactor being formed of two bodies assembled by a peripheral flanged joint, the apparatus being characterized in that at least the first body adopts the overall shape of a cap of circular or near-circular cross section which contains said reactive medium in the form of at least one block conforming to the overall shape of said cap. - a rigid enclosure defining a vessel which contains a reactive medium able to absorb and desorb said fluid in the gaseous state through a thermochemical reaction, - diffusing means for diffusing said gaseous fluid into and from said reactive medium, - heat-transfer means for transferring heat between said reactive medium and said external medium,
A process for preparing an ether carboxylate of formula I comprising reacting the corresponding compound of formula II where independently R1 is a C 1 - to C 50 -alkyl, mono-, di-, tri-,...polyamine, X is 0, COO, CH 2 -NH-O for q = 1 and r = 0 or N, N(CH 2) t O for q = 2 and r = 0 to 50, R2 is H or C 1 - to C 10 -alkyl, R3 is H or C 1 - to C 10 -alkyl, R4 is H or C 1 - to C 10 -alkyl, M is H or a metal, ammonium or organic base, n is from 0 to 50, m is from 0 to 40, p is from 0 to 40, q is from 1 to 2, s is 0 or 1, t is from 0 to 20, provided that n + m + p is at least 1 and R is H or a metal, preferably alkali, alkaline earth, with a base by using a transition metal catalyst which is present as Raney copper, the base being added to the reaction mixture continuously over a period above 30 minutes. R1 is a C 1 - to C 50 -alkyl, mono-, di-, tri-,...polyamine, X is 0, COO, CH 2 -NH-O for q = 1 and r = 0 or N, N(CH 2) t O for q = 2 and r = 0 to 50, R2 is H or C 1 - to C 10 -alkyl, R3 is H or C 1 - to C 10 -alkyl, R4 is H or C 1 - to C 10 -alkyl, M is H or a metal, ammonium or organic base, n is from 0 to 50, m is from 0 to 40, p is from 0 to 40, q is from 1 to 2, s is 0 or 1, t is from 0 to 20, provided that n + m + p is at least 1 and R is H or a metal, preferably alkali, alkaline earth, with a base by using a transition metal catalyst which is present as Raney copper, the base being added to the reaction mixture continuously over a period above 30 minutes.
A light emitting device comprising: a first conductive type semiconductor layer having a first top surface and a second top surface under the first top surface; an active layer on the first top surface of the first conductive type semiconductor layer; a second conductive type semiconductor layer on the active layer; a first electrode on the second top surface of the first conductive type semiconductor layer; an intermediate refractive layer on the second top surface of the first conductive type semiconductor layer; and a second electrode connected to the second conductive type semiconductor layer, characterized in that, the intermediate refractive layer is formed of a conductive material and spaced from the second electrode, and wherein the intermediate refractive layer is disposed at an edge of the second top surface of the first conductive type semiconductor layer and spaced from the first electrode. a first conductive type semiconductor layer having a first top surface and a second top surface under the first top surface; an active layer on the first top surface of the first conductive type semiconductor layer; a second conductive type semiconductor layer on the active layer; a first electrode on the second top surface of the first conductive type semiconductor layer; an intermediate refractive layer on the second top surface of the first conductive type semiconductor layer; and a second electrode connected to the second conductive type semiconductor layer, characterized in that, the intermediate refractive layer is formed of a conductive material and spaced from the second electrode, and wherein the intermediate refractive layer is disposed at an edge of the second top surface of the first conductive type semiconductor layer and spaced from the first electrode.
A memory apparatus comprising: a first die (101,201,401,501) including first cells; a second die (102,202,402,502) including second cells; and a third die (104,204,404,504) arranged in a stack with the first and second dice and configured to replace a defective cell (431,432,433,531,532,533) among the first and second cells with a spare cell (441,442,443,444,541,542,543,544), the spare cell being located in the first, second, or third die, wherein the first die and the second die are coupled to each other through at least one solder connective element between the first die and the second die, characterized in that the first die includes a first compare circuit, the second die includes a second compare circuit and wherein among the first, second, and third dice, only the first and second dice are configured to determine whether an incoming address matches an address of the defective cell by using the corresponding first and second compare circuits. a first die (101,201,401,501) including first cells; a second die (102,202,402,502) including second cells; and a third die (104,204,404,504) arranged in a stack with the first and second dice and configured to replace a defective cell (431,432,433,531,532,533) among the first and second cells with a spare cell (441,442,443,444,541,542,543,544), the spare cell being located in the first, second, or third die, wherein the first die and the second die are coupled to each other through at least one solder connective element between the first die and the second die, characterized in that the first die includes a first compare circuit, the second die includes a second compare circuit and wherein among the first, second, and third dice,
A method, comprising: a) receiving first Bluetooth Low Energy packet from a sender with a default sensitivity by the receiver; wherein the sender and the receiver (450, 400) are Bluetooth low energy enabled devices; b) then determining if a saturation occurs in the receiver due to the received Bluetooth Low Energy packet, and if so ∘ decreasing the sensitivity from the default sensitivity to a lower sensitivity; ∘ receiving at least one additional Bluetooth Low Energy packet with the lower sensitivity, and repeating step b); c) otherwise determining signal strength of the received Bluetooth Low Energy packet if no saturation occurs in step b; d) then reporting to an application stack of an upper layer of the receiver the signal strength for determination of a distance between the receiver and the sender only if no saturation is determined to occur in step b), not waking up an upper layer of the receiver until at least one Bluetooth Low Energy packet is received with the lower sensitivity; and e) then determining a distance between the receiver and the sender using the reported determined signal strength. a) receiving first Bluetooth Low Energy packet from a sender with a default sensitivity by the receiver; wherein the sender and the receiver (450, 400) are Bluetooth low energy enabled devices; b) then determining if a saturation occurs in the receiver due to the received Bluetooth Low Energy packet, and if so ∘ decreasing the sensitivity from the default sensitivity to a lower sensitivity; ∘ receiving at least one additional Bluetooth Low Energy packet with the lower sensitivity, and repeating step b); ∘ decreasing the sensitivity from the default sensitivity to a lower sensitivity; ∘ receiving at least one additional Bluetooth Low Energy packet with the lower sensitivity, and repeating step b); c) otherwise determining signal strength of the received Bluetooth Low Energy packet if no saturation occurs in step b; d) then reporting to an application stack of an upper layer of the receiver the signal strength for determination of a distance between the receiver and the sender only if no saturation is determined to occur in step b), not waking up an upper layer of the receiver until at least one Bluetooth Low Energy packet is received with the lower sensitivity; and e) then determining a distance between the receiver and the sender using the reported determined signal strength.