mhurhangee/ep-ind-claims huggingface dataset:
A process for the preparation of a window element, comprising - providing a switchable optical cell which comprises a switchable layer interposed between a first transparent substrate and a second transparent substrate, wherein the switchable layer comprises a liquid-crystalline medium having a negative dielectric anisotropy, a clearing point of 115°C or more, and an optical anisotropy Δn of 0.10 or less, and wherein the liquid-crystalline medium does not contain any compounds which comprise cyclohexylene groups with axial cyano substituents, and - laminating the switchable optical cell to a third substrate. - providing a switchable optical cell which comprises a switchable layer interposed between a first transparent substrate and a second transparent substrate, wherein the switchable layer comprises a liquid-crystalline medium having a negative dielectric anisotropy, a clearing point of 115°C or more, and an optical anisotropy Δn of 0.10 or less, and wherein the liquid-crystalline medium does not contain any compounds which comprise cyclohexylene groups with axial cyano substituents, and - laminating the switchable optical cell to a third substrate.
An electrostatic precipitator electrode assembly to be positioned in an air filter, the assembly comprising: one or more collecting electrodes (122, 322) each comprising: an internal conductive portion (125, 325) and an outer surface generally parallel with an airflow direction through the air filter, and wherein the collecting electrodes (122, 322) further include a collecting portion (124, 324), and wherein said collecting portion (124, 324) exhibits an open cell structure, the open cell structure being characterized by having a high electrical resistivity greater than 10 2 Ωm.
A frequency spectrum management device, comprising a processing circuit configured to: determine, based on first reference point information and second reference point information, distances from a first secondary system managed by the frequency spectrum management device and an other secondary system to a primary system having a higher frequency spectrum utilization priority than the secondary systems, according to distances from the first secondary system and the other secondary system to a reference point, wherein the reference point is a parameter comprising a first reference point within coverage of the primary system corresponding to the first secondary system and a second reference point within coverage of the primary system corresponding to the other secondary system; determine, with respect to the first secondary system, according to the distances from the first secondary system and the other secondary system to the primary system, a distribution coefficient between the other secondary system and the first secondary system, the distribution coefficient representing an interference degree of aggregation interference generated by the other secondary system and the first secondary system against the primary system; and distribute a frequency spectrum resource for the first secondary system according to the distribution coefficient, wherein the processing circuit comprises a transceiving unit configured to receive the first reference point information and the second reference point information and transmit the distributed frequency spectrum resource to the first secondary system. determine, based on first reference point information and second reference point information, distances from a first secondary system managed by the frequency spectrum management device and an other secondary system to a primary system having a higher frequency spectrum utilization priority than the secondary systems, according to distances from the first secondary system and the other secondary system to a reference point, wherein the reference point is a parameter comprising a first reference point within coverage of the primary system corresponding to the first secondary system and a second reference point within coverage of the primary system corresponding to the other secondary system; determine, with respect to the first secondary system, according to the distances from the first secondary system and the other secondary system to the primary system, a distribution coefficient between the other secondary system and the first secondary system, the distribution coefficient representing an interference degree of aggregation interference generated by the other secondary system and the first secondary system against the primary system; and distribute a frequency spectrum resource for the first secondary system according to the distribution coefficient, wherein the processing circuit comprises a transceiving unit configured to receive the first reference point information and the second reference point information and transmit the distributed frequency spectrum resource to the first secondary system.
A work vehicle comprising: a motor generator driven by an engine; a hydraulic pump driven by at least either of the motor generator and the engine; a work device driven by hydraulic fluid from the hydraulic pump; an electric traction motor for driving wheels; an electrical storage device connected to the motor generator and to the electric traction motor and charged electrically on the basis of a target SOC; and a control device that varies the target SOC for the electrical storage device on the basis of total demanded power of the hydraulic pump and the electric traction motor; characterized in that the work vehicle further comprises a first switching device switching a threshold limit value of the total output of the hydraulic pump and of the electric traction motor either to a first value or to a second value higher than the first value; and wherein the control device determines a load condition of the work vehicle to be heavy load, intermediate load, or light load in accordance with a magnitude of the total demanded power; wherein, in a first case where a result of the determination is light load, the control device sets the target SOC for the electrical storage device to be equal to or higher than if a result of the determination is intermediate load and heavy load (S1, S2, S3); and wherein, in a second case where the result of the determination is heavy load and where a SOC of the electrical storage device is higher than a lower limit of a range of use of the electrical storage device, the control device sets the target SOC for the electrical storage device to be equal to or higher than if a result of the determination is intermediate load (S2, S3); wherein, in a third case where the result of the determination is intermediate load and where the threshold limit value is switched to the first value by the first switching device, the control device sets the target SOC for the electrical storage device to be lower than the first case and the second case. a motor generator driven by an engine; a hydraulic pump driven by at least either of the motor generator and the engine; a work device driven by hydraulic fluid from the hydraulic pump; an electric traction motor for driving wheels; an electrical storage device connected to the motor generator and to the electric traction motor and charged electrically on the basis of a target SOC; and a control device that varies the target SOC for the electrical storage device on the basis of total demanded power of the hydraulic pump and the electric traction motor;
A polycrystalline diamond compact, comprising: a substrate; and a polycrystalline diamond table including an upper surface spaced from an interfacial surface that is bonded to and integrally formed with the substrate, the polycrystalline diamond table including a plurality of diamond grains defining a plurality of interstitial regions, the polycrystalline diamond table further including an alloy comprising at least one Group VIII metal and at least one alloying element, which is a metallic element or an element selected from the group of boron, sulfur, selenium, silicon, tellurium, the alloy including one or more solid solution phases comprising the at least one Group VIII metal and the at least one alloying element and one or more intermediate compounds comprising the at least one Group VIII metal and the at least one alloying element, the alloy being disposed in at least a portion of the plurality of interstitial regions, characterized in that the alloy exhibiting a decreasing concentration of the at least one alloying element with distance away from the upper surface, the alloy present at the upper surface. a substrate; and a polycrystalline diamond table including an upper surface spaced from an interfacial surface that is bonded to and integrally formed with the substrate, the polycrystalline diamond table including a plurality of diamond grains defining a plurality of interstitial regions, the polycrystalline diamond table further including an alloy comprising at least one Group VIII metal and at least one alloying element, which is a metallic element or an element selected from the group of boron, sulfur, selenium, silicon, tellurium, the alloy including one or more solid solution phases comprising the at least one Group VIII metal and the at least one alloying element and one or more intermediate compounds comprising the at least one Group VIII metal and the at least one alloying element, the alloy being disposed in at least a portion of the plurality of interstitial regions, characterized in that the alloy exhibiting a decreasing concentration of the at least one alloying element with distance away from the upper surface, the alloy present at the upper surface.
A method, comprising: determining a trigger for establishing transmission priority on a path through a shared-media communication network for priority traffic to a particular node, where the trigger is determined to have occurred when a particular data flow has been received at a root node; in response to determining that the trigger has occurred at the root node, generating a path clear message, PCM, the PCM being sent to each node along the path to instruct each node along the path to suspend transmission for traffic other than the priority traffic for a specified duration, and also to transmit a non-repeated message to one or more neighbor nodes of each respective node, the non-repeated message to instruct the neighbor nodes to suspend transmission of traffic for the specified duration; transmitting the PCM along the path to the particular node to establish the transmission priority for the priority traffic along the path through the shared-media network; transmitting the priority traffic to the particular node along the path during the transmission priority; and transmitting a transmission priority clearing message along the path in response to completion of the transmission priority, the transmission priority clearing message to instruct each node along the path to resume transmission for all traffic and also to transmit a second non-repeated message to the neighbor nodes of each respective node along the path, the second non-repeated message to instruct the neighbor nodes to resume transmission of traffic. determining a trigger for establishing transmission priority on a path through a shared-media communication network for priority traffic to a particular node, where the trigger is determined to have occurred when a particular data flow has been received at a root node; in response to determining that the trigger has occurred at the root node, generating a path clear message, PCM, the PCM being sent to each node along the path to instruct each node along the path to suspend transmission for traffic other than the priority traffic for a specified duration, and also to transmit a non-repeated message to one or more neighbor nodes of each respective node, the non-repeated message to instruct the neighbor nodes to suspend transmission of traffic for the specified duration; transmitting the PCM along the path to the particular node to establish the transmission priority for the priority traffic along the path through the shared-media network; transmitting the priority traffic to the particular node along the path during the transmission priority; and transmitting a transmission priority clearing message along the path in response to completion of the transmission priority, the transmission priority clearing message to instruct each node along the path to resume transmission for all traffic and also to transmit a second non-repeated message to the neighbor nodes of each respective node along the path, the second non-repeated message to instruct the neighbor nodes to resume transmission of traffic.
Method for optimizing the load of a network connection concentrator, wherein the data packets sent or received by a client device compatible with a given multipath connection protocol are intercepted by said concentrator, said concentrator making it possible to aggregate connections that utilize a plurality of paths that may be used by the client device, said method comprising the following steps: a) the client device sends a connection setup message for setting up a connection to a correspondent, b) said connection setup message is intercepted by the concentrator, c) the concentrator sends said correspondent a connection setup message, the source address of which, known as first address, is identical to one of the addresses of the concentrator, d) the concentrator sends the correspondent information comprising another address, known as second address, which is identical to one of the addresses of said client device or to one of the addresses of a standby concentrator, and e) the concentrator notifies the correspondent of the need for the latter to switch over the session associated with said first address so as to associate it with said second address instead of said first address, said switchover comprising a local migration, at the correspondent, of the characteristic states of the session to the second address. a) the client device sends a connection setup message for setting up a connection to a correspondent, b) said connection setup message is intercepted by the concentrator, c) the concentrator sends said correspondent a connection setup message, the source address of which, known as first address, is identical to one of the addresses of the concentrator, d) the concentrator sends the correspondent information comprising another address, known as second address, which is identical to one of the addresses of said client device or to one of the addresses of a standby concentrator, and e) the concentrator notifies the correspondent of the need for the latter to switch over the session associated with said first address so as to associate it with said second address instead of said first address, said switchover comprising a local migration, at the correspondent, of the characteristic states of the session to the second address.
A driving machine module comprising: a driving machine having an output shaft driven to rotate about an axis; a gear part having at least a first gear rotating integrally with the output shaft and a second gear which rotates integrally with an input shaft of a load device as a driving object and to which the rotation of the first gear is transmitted; a storage tank arranged below the gear part in a vertical direction so as to support the gear part and storing lubricating oil used in the driving machine and the gear part; a base plate supporting the driving machine and the storage tank; characterized in that said driving machine module comprises: a gear support part supporting the gear part with respect to the storage tank so that the gear part is movable relative to the storage tank in a horizontal direction orthogonal to the vertical direction. a driving machine having an output shaft driven to rotate about an axis; a gear part having at least a first gear rotating integrally with the output shaft and a second gear which rotates integrally with an input shaft of a load device as a driving object and to which the rotation of the first gear is transmitted; a storage tank arranged below the gear part in a vertical direction so as to support the gear part and storing lubricating oil used in the driving machine and the gear part; a base plate supporting the driving machine and the storage tank; characterized in that said driving machine module comprises: a gear support part supporting the gear part with respect to the storage tank so that the gear part is movable relative to the storage tank in a horizontal direction orthogonal to the vertical direction.
A computer-implemented method of modifying a set of one or more wakewords of a speech-enabled device, comprising: receiving, from a user, a spoken request; parsing the spoken request into a natural language request and a speech audio segment, wherein the natural language request instructs the device to accept the speech audio segment as a new wakeword; and building a new wakeword spotter to recognize the new wakeword as an activation trigger, wherein building the new wakeword spotter comprises: dividing the new wakeword into a plurality of phonetic segments; and for each of the plurality of phonetic segments: checking for a cached spotter for the respective phonetic segment; if there is a cached spotter for the respective phonetic segment, using the cached spotter for the respective phonetic segment; and if there is not a cached spotter for the respective phonetic segment, building a spotter for the respective phonetic segment. receiving, from a user, a spoken request; parsing the spoken request into a natural language request and a speech audio segment, wherein the natural language request instructs the device to accept the speech audio segment as a new wakeword; and building a new wakeword spotter to recognize the new wakeword as an activation trigger, wherein building the new wakeword spotter comprises: dividing the new wakeword into a plurality of phonetic segments; and for each of the plurality of phonetic segments: checking for a cached spotter for the respective phonetic segment; if there is a cached spotter for the respective phonetic segment, using the cached spotter for the respective phonetic segment; and if there is not a cached spotter for the respective phonetic segment, building a spotter for the respective phonetic segment. dividing the new wakeword into a plurality of phonetic segments; and for each of the plurality of phonetic segments: checking for a cached spotter for the respective phonetic segment; if there is a cached spotter for the respective phonetic segment, using the cached spotter for the respective phonetic segment; and if there is not a cached spotter for the respective phonetic segment, building a spotter for the respective phonetic segment. checking for a cached spotter for the respective phonetic segment; if there is a cached spotter for the respective phonetic segment, using the cached spotter for the respective phonetic segment; and if there is not a cached spotter for the respective phonetic segment, building a spotter for the respective phonetic segment.
A duct arrangement for an internal combustion engine, the arrangement comprising an exhaust duct, an inlet duct and a cooling air duct, the arrangement characterised in that the exhaust duct is contained within the cooling air duct for substantially its whole length and the cooling air duct is contained within the inlet duct for substantially its whole length so that in use the cooling air duct provides a barrier to limit heat transfer between gas flowing in the exhaust duct and gas flowing in the inlet duct.
An apparatus for degassing liquids comprising a degassing system, wherein the degassing system has a first degassing chamber, a second degassing chamber, a liquid store, a pump, and a supply line that connects the liquid store to the first degassing chamber, wherein the pump is connected to the first degassing chamber at the intake side and to the second degassing chamber (11 0b) at the pressure side, wherein the degassing system furthermore has a return line that can be cut off and that connects the two degassing chambers (110a, 110b) to one another, and wherein the apparatus comprises a controller that is configured to operate the degassing system in a first operating mode and in a second operating mode, wherein the degassing system is connected in the first operating mode such that the pump conducts liquid away from the first degassing chamber and supplies it to a removal unit for degassed liquid, characterized in that the degassing system is connected in the second operating mode such that liquid is returned from the second to the first degassing chamber through the return line.
A stabilizing system for a knee brace having a substantially rigid upper frame comprising hinge arms (12a, 12b) each having one end connected to a hinge and an opposite end connected to the other hinge arm (12a, 12b) by an upper leg bearing member for bearing against a user's leg above the knee and being securable to the user's leg via at least one upper securing member, and a substantially rigid lower frame comprising first and second hinge arms (14a, 14b) each having one end connected to the upper frame via the hinge and an opposite end connected to the other hinge arm (14a, 14b) by a lower leg bearing member for bearing against a user's leg below the knee, the stabilizing system comprising: a stabilizing strap for fixing the lower frame to the user's leg, the stabilizing strap comprising a substantially inelastic element (22,32) for circumscribing the user's leg and having a fixing element for securing the inelastic element (22,32) in a set position, the inelastic element (22,32) extending through first and second strap supports provided by the arms of the lower frame, wherein when the brace is in use the stabilizing strap is inhibited from moving relative to the lower frame in a first direction to support the lower frame on the user's leg, characterized in that, when the brace is in use, the stabilizing strap is slidable relative to the lower frame in a second direction that is orthogonal to the first direction, wherein when the knee brace is in use the stabilizing strap follows the user's leg motion in the second direction without shifting the lower frame relative to the user's leg in the first direction.
A piezoelectric composition represented by a following Chemical Formula: x[Bi m FeO 3]-y[Ba m TiO 3]-z[Sr m TiO 3] characterised in that 0.55 ≤ x ≤ 0.75, 0.15 ≤ y ≤ 0.33, 0.02 ≤ z ≤ 0.1, x + y + z = 1, and 0.96 ≤ m ≤ 1.04.