mhurhangee/ep-ind-claims huggingface dataset:
A moving image coding device comprising: an image input unit which divides a frame of an input moving image into units of macro blocks; a partition structure determination unit which further divides a macro block into rectangular partitions; a predicted image generation unit which generates a predicted image for each rectangular partition of the macro block; a prediction residual generation unit which generates a prediction residual for the macro block as a difference between pixel values of the predicted image and the macro block; a frequency transformation region division unit (105, 112) which divides the macro block into a plurality of rectangular transformation target regions, at least one transformation target region of the plurality of rectangular transformation target regions crossing over a boundary between first and second adjacent partitions so as to include only part of the first partition and part of the second partition; a transformation coefficient generation unit which applies a frequency transformation to the prediction residual according to each of the plurality of rectangular transformation target regions determined by the frequency transformation region division unit; and a coded data output unit which outputs coded data obtained by losslessly coding the transformation coefficient. an image input unit which divides a frame of an input moving image into units of macro blocks; a partition structure determination unit which further divides a macro block into rectangular partitions; a predicted image generation unit which generates a predicted image for each rectangular partition of the macro block; a prediction residual generation unit which generates a prediction residual for the macro block as a difference between pixel values of the predicted image and the macro block; a frequency transformation region division unit (105, 112) which divides the macro block into a plurality of rectangular transformation target regions, at least one transformation target region of the plurality of rectangular transformation target regions crossing over a boundary between first and second adjacent partitions so as to include only part of the first partition and part of the second partition; a transformation coefficient generation unit which applies a frequency transformation to the prediction residual according to each of the plurality of rectangular transformation target regions determined by the frequency transformation region division unit; and a coded data output unit which outputs coded data obtained by losslessly coding the transformation coefficient.
A semi-solid food concentrate in the form of a gel or a paste comprising: • a salt-sensitive gum, whereby the salt-sensitive gum is selected from the group of gums consisting of alginate, gellan, iota-carrageenan, kappa-carrageenan, lambda-carrageenan, and mixtures thereof, • salt in an amount sufficient to keep the salt-sensitive gum in a salted-out state, • a salt-stable structuring material in an amount effective to provide a semi-solid food concentrate, selected from the group consisting of salt stable gelling system, gums, vegetable powder, plant puree, plant fibre, fat and mixtures thereof, said salt stable gelling system selected from modified starch, gelatine combined with starch, xanthan gum combined with a glucomannan, xanthan gum combined with a galactomannan, and mixtures thereof, • water, which semi-solid food concentrate, after dilution in an aqueous liquid, the aqueous liquid being water, results in a ready-to-eat end product comprising: • from 0.1 to 2.5 wt% of salt, • from 0.01 wt% to 3.5 wt% of a salt-sensitive gum, the ready-to-eat end product having a viscosity of higher than 15 mPa.s at 20 C°, and wherein the salt-stable gelling system is not konjac mannan alone. • a salt-sensitive gum, whereby the salt-sensitive gum is selected from the group of gums consisting of alginate, gellan, iota-carrageenan, kappa-carrageenan, lambda-carrageenan, and mixtures thereof, • salt in an amount sufficient to keep the salt-sensitive gum in a salted-out state, • a salt-stable structuring material in an amount effective to provide a semi-solid food concentrate, selected from the group consisting of salt stable gelling system, gums, vegetable powder, plant puree, plant fibre, fat and mixtures thereof, said salt stable gelling system selected from modified starch, gelatine combined with starch, xanthan gum combined with a glucomannan, xanthan gum combined with a galactomannan, and mixtures thereof, • water, • from 0.1 to 2.5 wt% of salt, • from 0.01 wt% to 3.5 wt% of a salt-sensitive gum,
A valve system comprising a valve, the valve comprising: a valve seat; a valve plug configured to control a flow of process fluid through the valve according to a separation between the valve plug and the valve seat; a valve stem in mechanical communication with the valve plug and configured such that linear actuation of the valve stem controls the separation between the valve plug and the valve seat; first and second packing seals (114, 200) surrounding the valve stem, each of the packing seals (114, 200) forming a seal between the valve stem and a surrounding gland housing, the first and second packing seals (114, 200) being separated from each other along the valve stem by a seal gap; a seal pressurization port configured to allow a seal pressurizing fluid to enter into the seal gap and to be pressurized within the seal gap to a desired gap pressure; a pressurization fluid source; a pressurizing fluid pressure regulating apparatus and a pressurization fluid line that provides fluid communication between the pressurization fluid source and the seal pressurization port of the valve; a flow measuring device configured to measure a flow rate of the pressurizing fluid into the seal gap, said pressurization fluid line being unrestricted between the pressurizing fluid pressure regulating apparatus and the seal pressurization port of the valve. a valve seat; a valve plug configured to control a flow of process fluid through the valve according to a separation between the valve plug and the valve seat; a valve stem in mechanical communication with the valve plug and configured such that linear actuation of the valve stem controls the separation between the valve plug and the valve seat; first and second packing seals (114, 200) surrounding the valve stem, each of the packing seals (114, 200) forming a seal between the valve stem and a surrounding gland housing, the first and second packing seals (114, 200) being separated from each other along the valve stem by a seal gap; a seal pressurization port configured to allow a seal pressurizing fluid to enter into the seal gap and to be pressurized within the seal gap to a desired gap pressure; a pressurization fluid source; a pressurizing fluid pressure regulating apparatus and a pressurization fluid line that provides fluid communication between the pressurization fluid source and the seal pressurization port of the valve; a flow measuring device configured to measure a flow rate of the pressurizing fluid into the seal gap, said pressurization fluid line being unrestricted between the pressurizing fluid pressure regulating apparatus and the seal pressurization port of the valve.
A combustion engine comprising a turbo unit having a compressor and a turbine including a turbine inlet and turbine outlet for the throughflow of exhaust gases to and from the turbine, an EGR system arranged between an intake system and the exhaust gas system of the combustion engine, wherein the EGR system is connected to the intake system downstream of the compressor and connected to the exhaust gas system upstream of the turbine, a first exhaust gas pipe, which is connected to the turbine inlet, a second exhaust gas pipe, which is connected to the turbine outlet, a waste gate duct, which is connected to the first and second exhaust gas pipes (52, 54), and a flow-limiting unit arranged in the second exhaust gas pipe, which flow-limiting unit has a cross-sectional area (Ar) smaller than the second exhaust gas pipe's cross-sectional area (Ae), wherein the waste gate duct has a cross-sectional area (Aw) which is smaller than the second exhaust gas pipe's cross-sectional area (Ae) and in that a waste gate valve arranged in the waste gate duct is adapted to fine adjustment of the exhaust gas flow through the waste gate duct, and wherein the waste gate duct's cross-sectional area (Aw) is the same size as or smaller than the flow-limiting unit's cross-sectional area (Ar), and wherein the waste gate duct flows into the second exhaust gas pipe upstream of the flow-limiting unit, and wherein the flow-limiting unit is a passive unit without moving components and wherein the combustion engine is an Otto engine. an EGR system arranged between an intake system and the exhaust gas system of the combustion engine, wherein the EGR system is connected to the intake system downstream of the compressor and connected to the exhaust gas system upstream of the turbine, a first exhaust gas pipe, which is connected to the turbine inlet, a second exhaust gas pipe, which is connected to the turbine outlet, a waste gate duct, which is connected to the first and second exhaust gas pipes (52, 54), and a flow-limiting unit arranged in the second exhaust gas pipe, which flow-limiting unit has a cross-sectional area (Ar) smaller than the second exhaust gas pipe's cross-sectional area (Ae), wherein the waste gate duct has a cross-sectional area (Aw) which is smaller than the second exhaust gas pipe's cross-sectional area (Ae) and in that a waste gate valve arranged in the waste gate duct is adapted to fine adjustment of the exhaust gas flow through the waste gate duct, and wherein the waste gate duct's cross-sectional area (Aw) is the same size as or smaller than the flow-limiting unit's cross-sectional area (Ar), and wherein the waste gate duct flows into the second exhaust gas pipe upstream of the flow-limiting unit, and wherein the flow-limiting unit is a passive unit without moving components and wherein the combustion engine is an Otto engine.
An uninterruptible power supplying method, comprising: switching an uninterruptible power supply to a bypass working mode from a main loop working mode, so as to provide mains power for a load through a bypass; determining the working mode of the uninterruptible power supply; and when the uninterruptible power supply is in the bypass working mode, adjusting a working frequency of at least one switch tube in a main loop of the uninterruptible power supply to a second frequency from a first frequency, wherein the second frequency is less than the first frequency. switching an uninterruptible power supply to a bypass working mode from a main loop working mode, so as to provide mains power for a load through a bypass; determining the working mode of the uninterruptible power supply; and when the uninterruptible power supply is in the bypass working mode, adjusting a working frequency of at least one switch tube in a main loop of the uninterruptible power supply to a second frequency from a first frequency, wherein the second frequency is less than the first frequency.
An electrical switching apparatus housing assembly for an electrical switching apparatus assembly, said electrical switching apparatus housing assembly comprising: a body assembly including a number of outer walls and a cover assembly; said outer walls defining an enclosed space; said cover assembly including a generally planar top sidewall and a generally planar inner member; said inner member disposed in a plane generally parallel to, but spaced from, said top sidewall; said top sidewall and said inner member defining a limited opening to said enclosed space; a movable door member (90, 100), said door member (90, 100) movably coupled to said top sidewall; and a channel which is defined by an inner surface of the top sidewall as well as said inner planar member, wherein the movable door member is a translating door member, spacing between the top sidewall and the inner member generally corresponds to the thickness, or is slightly greater than the thickness of, the translating door member, and wherein said translating door member is movable between an open, first position, wherein said translating door member is disposed between the top sidewall and the inner member, and a closed, second position, wherein said door member is disposed in said limited opening. a body assembly including a number of outer walls and a cover assembly; said outer walls defining an enclosed space; said cover assembly including a generally planar top sidewall and a generally planar inner member; said inner member disposed in a plane generally parallel to, but spaced from, said top sidewall; said top sidewall and said inner member defining a limited opening to said enclosed space; a movable door member (90, 100), said door member (90, 100) movably coupled to said top sidewall; and a channel which is defined by an inner surface of the top sidewall as well as said inner planar member, wherein the movable door member is a translating door member, spacing between the top sidewall and the inner member generally corresponds to the thickness, or is slightly greater than the thickness of, the translating door member, and wherein said translating door member is movable between an open, first position, wherein said translating door member is disposed between the top sidewall and the inner member, and a closed, second position, wherein said door member is disposed in said limited opening.
A method for attenuating out of band energy emitted from a seismic source used in a marine seismic survey, comprising: disposing the seismic source including a gas supply in a body of water; and releasing a gas from the gas supply into a volume of water surrounding the seismic source, and characterised in that the released gas displaces the volume of water at a rate which is a third differential of the volume of water displaced by the gas with respect to time and which is less than 2.9 x 10 6 cubic-meters per cubic-second. disposing the seismic source including a gas supply in a body of water; and releasing a gas from the gas supply into a volume of water surrounding the seismic source, and characterised in that the released gas displaces the volume of water at a rate which is a third differential of the volume of water displaced by the gas with respect to time and which is less than 2.9 x 10 6 cubic-meters per cubic-second.
A combination of a first and a second moisture control material able to be contained in a multifunctional vessel, the first moisture control material comprising a blend of a plastic material and a first moisture control substance that is hydrated to a predetermined level, wherein the first moisture control substance is selected from the group consisting of silica gel, bentonite clay, montmorillonite clay, and mixtures thereof, the second moisture control material comprising a blend of a plastic material and a second moisture control substance that is not hydrated.
A locking system, comprising: a solenoid; a locking mechanism configured to actuate in response to an electrical current being applied to the solenoid; a capacitor bank configured to discharge stored energy to the solenoid; a discharge controller configured to control a discharge of the stored energy to the solenoid, wherein the discharge controller is further configured to initiate a discharging of the stored energy to the solenoid in response to a command to transition the locking mechanism from a first position to a second position; characterised in that the locking system comprises a discharge timer component, wherein the discharge controller is configured to initiate the discharge timer component in response to the command to transition the locking mechanism from the first position to the second position, and to stop the discharging of the stored energy to the solenoid in response to an indication from the discharge timer component that a defined time duration has elapsed since initiation of the discharge timer. a solenoid; a locking mechanism configured to actuate in response to an electrical current being applied to the solenoid; a capacitor bank configured to discharge stored energy to the solenoid; a discharge controller configured to control a discharge of the stored energy to the solenoid, wherein the discharge controller is further configured to initiate a discharging of the stored energy to the solenoid in response to a command to transition the locking mechanism from a first position to a second position; characterised in that the locking system comprises a discharge timer component, wherein the discharge controller is configured to initiate the discharge timer component in response to the command to transition the locking mechanism from the first position to the second position, and to stop the discharging of the stored energy to the solenoid in response to an indication from the discharge timer component that a defined time duration has elapsed since initiation of the discharge timer.
An apparel arm sleeve comprising: a tubular sleeve body that extends from a torso body and that includes a terminating end that encloses a first volume of space; one or more releasable fasteners coupled to the tubular sleeve body near the terminating end; a first flexible member coupled to the tubular sleeve body near the terminating end and releasably attachable to the one or more releasable fasteners, wherein attachment of the first flexible member to the one or more releasable fasteners is adjustable to modify the first volume of space; characterized by a second flexible member rotatably coupled to the tubular sleeve body near the terminating end and releasably attachable to the one or more releasable fasteners, wherein the second flexible member includes a first position that is substantially aligned with the first flexible member, and a second position in which the second flexible member is rotated relative to the first position to provide a thumb loop when attached to the one or more releasable fasteners.
An image forming method in which an image is formed by using a thermal transfer sheet and a thermal transfer image-receiving sheet in combination, wherein the thermal transfer sheet comprises a transparent substrate, a dye layer formed on one surface of the substrate and a back face layer which may be optionally formed on another surface of the substrate, wherein the thermal transfer image-receiving sheet comprises another substrate and a dye - receiving layer formed on one surface of the other substrate, which is characterized in that the dye layer of the thermal transfer sheet comprises a sublimation type dye, a binder resin, and a polyether modified silicone represented by the following formula and having a viscosity of not less than 1000 mm 2 /s at 25 °C; wherein, R represents H, or a straight- or branched- alkyl group which may be optionally substituted by an aryl group or a cycloalkyl group; R 1 represents an alkyl group, or an organic modified group of epoxy or amino group; a, b represent an integer of not more than 100, independently and respectively; and x, y represent an integer, independently and respectively, but are not particular limited; and the dye - receiving layer of the thermal transfer image-receiving sheet is an aqueous dye - receiving layer containing a water-soluble resin, a water-soluble polymer or a water-based resin being in the range of not less than 50 % by weight and not more than 95 % by weight on the basis of the total solid content of the dye receiving layer. wherein, R represents H, or a straight- or branched- alkyl group which may be optionally substituted by an aryl group or a cycloalkyl group; R 1 represents an alkyl group, or an organic modified group of epoxy or amino group; a, b represent an integer of not more than 100, independently and respectively; and x, y represent an integer, independently and respectively, but are not particular limited; and the dye - receiving layer of the thermal transfer image-receiving sheet is an aqueous dye - receiving layer containing a water-soluble resin, a water-soluble polymer or a water-based resin being in the range of not less than 50 % by weight and not more than 95 % by weight on the basis of the total solid content of the dye receiving layer.
A trainable transceiver unit configured to be installed in a vehicle, comprising: a transceiver circuit configured to receive a control signal from an original transmitter and transmit an activation signal to control operation of a remote electronic system; and a processing circuit configured to: operate in a training mode to learn a plurality of activation signals for controlling operation of a corresponding remote device of a plurality of remote devices and to associate each of a plurality of predetermined vehicle input patterns received via an existing user input interface with a corresponding activation signal of the plurality of activation signals, receive a vehicle input pattern from the existing vehicle user input interface of the vehicle, identify a remote device from the plurality of remote devices corresponding to the vehicle input pattern, and cause the transceiver circuit to transmit an activation signal for controlling the identified remote device associated with the identified vehicle input pattern. a transceiver circuit configured to receive a control signal from an original transmitter and transmit an activation signal to control operation of a remote electronic system; and a processing circuit configured to: operate in a training mode to learn a plurality of activation signals for controlling operation of a corresponding remote device of a plurality of remote devices and to associate each of a plurality of predetermined vehicle input patterns received via an existing user input interface with a corresponding activation signal of the plurality of activation signals, receive a vehicle input pattern from the existing vehicle user input interface of the vehicle, identify a remote device from the plurality of remote devices corresponding to the vehicle input pattern, and cause the transceiver circuit to transmit an activation signal for controlling the identified remote device associated with the identified vehicle input pattern. operate in a training mode to learn a plurality of activation signals for controlling operation of a corresponding remote device of a plurality of remote devices and to associate each of a plurality of predetermined vehicle input patterns received via an existing user input interface with a corresponding activation signal of the plurality of activation signals, receive a vehicle input pattern from the existing vehicle user input interface of the vehicle, identify a remote device from the plurality of remote devices corresponding to the vehicle input pattern, and cause the transceiver circuit to transmit an activation signal for controlling the identified remote device associated with the identified vehicle input pattern.