mhurhangee/ep-ind-claims huggingface dataset:
A method of forming a fluid-filled chamber for an article of footwear, the method comprising: positioning a first sheet of material and a second sheet of material in a pressure chamber; increasing a fluid pressure within the pressure chamber to a first value; coupling the first sheet of material to the second sheet of material by using a press placed within the pressure chamber to define a fluid-filled chamber defined by the first sheet of material and the second sheet of material and having a fluid pressure equal to the first value; and decreasing the fluid pressure within the pressure chamber to a second value. positioning a first sheet of material and a second sheet of material in a pressure chamber; increasing a fluid pressure within the pressure chamber to a first value; coupling the first sheet of material to the second sheet of material by using a press placed within the pressure chamber to define a fluid-filled chamber defined by the first sheet of material and the second sheet of material and having a fluid pressure equal to the first value; and decreasing the fluid pressure within the pressure chamber to a second value.
An aircraft with a fuselage that accommodates at least one air breathing propulsion engine, said fuselage having a maximum fuselage width determined in the region of said at least one air breathing propulsion engine and comprising at least one front fuselage cowling and at least one rear fuselage cowling that are each covering said at least one air breathing propulsion engine at least partly, said at least one front and rear fuselage cowlings (12a, 12b) being spaced apart from each other in a direction transverse to a longitudinal axis of said at least one air breathing propulsion engine by a predetermined cowling offset to define a dynamic air intake through which an intake air stream is supplied to said at least one air breathing propulsion engine in operation, said dynamic air intake defining an at least partly funnel-shaped air duct towards an engine integrated air inlet and being provided with at least one air-permeable engine protection that is adapted to clean said intake air stream upstream of said engine integrated air inlet in an associated protection mode, said at least one air-permeable engine protection being arranged transverse to said at least one front fuselage cowling with a predetermined protection inclination angle (α), characterized in that said dynamic air intake comprises an outer intake cover that extends from the at least one rear fuselage cowling in a direction opposed to said engine integrated air inlet, said outer intake cover defining an outer scoop of said at least partly funnel-shaped air duct and further defining a cover front edge, and said at least one air-permeable engine protection defining a protection leading edge and a protection trailing edge, said protection leading edge being arranged, in said associated protection mode, upstream of said cover front edge at said at least one front fuselage cowling and said protection trailing edge being arranged, in said associated protection mode, downstream of said cover front edge at said at least one rear fuselage cowling.
A stack feeder comprising: a frame; a singulator connected to the frame; a conveyor disposed on the frame, the conveyor configured to receive a stack of articles and a container, the conveyor further configured to move the stack of articles and the container toward the singulator; a motor connected to the frame; a stack guide connected to the motor and aligned substantially parallel to the conveyor, wherein the stack guide comprises a continuous surface configured to contact an edge of the stack of articles; and wherein the motor is operable to move the stack guide in a direction substantially perpendicular to the continuous surface of the stack guide from a first position to a second position to accommodate receiving the container onto the conveyor. a frame; a singulator connected to the frame; a conveyor disposed on the frame, the conveyor configured to receive a stack of articles and a container, the conveyor further configured to move the stack of articles and the container toward the singulator; a motor connected to the frame; a stack guide connected to the motor and aligned substantially parallel to the conveyor, wherein the stack guide comprises a continuous surface configured to contact an edge of the stack of articles; and wherein the motor is operable to move the stack guide in a direction substantially perpendicular to the continuous surface of the stack guide from a first position to a second position to accommodate receiving the container onto the conveyor.
A fabric or garment comprising multiple layers comprising: (a) one stretch fabric comprising 50% to 100% elastomeric fibers by weight of the stretch fabric and (b) at least one adhesive; wherein the adhesive is coated on the stretch fabric. (a) one stretch fabric comprising 50% to 100% elastomeric fibers by weight of the stretch fabric and (b) at least one adhesive; wherein the adhesive is coated on the stretch fabric.
A system (601, 703) configured to generate a plurality of high frequency audio subband signals covering a high frequency interval from a plurality of low frequency subband signals, the system (601, 703) comprising: - means for receiving the plurality of low frequency subband signals; - means for receiving a set of target energies, each target energy covering a different target interval within the high frequency interval and being indicative of the desired energy of one or more high frequency subband signals lying within the target interval; - means for generating the plurality of high frequency subband signals from the plurality of low frequency subband signals and from a plurality of spectral gain coefficients associated with the plurality of low frequency subband signals, respectively; and - means for adjusting the energy of the plurality of high frequency subband signals using the set of target energies, wherein the means for adjusting comprises means for determining, for each target interval, a common envelope adjustment value for each of the high frequency subband signals within the target interval. - means for receiving the plurality of low frequency subband signals; - means for receiving a set of target energies, each target energy covering a different target interval within the high frequency interval and being indicative of the desired energy of one or more high frequency subband signals lying within the target interval; - means for generating the plurality of high frequency subband signals from the plurality of low frequency subband signals and from a plurality of spectral gain coefficients associated with the plurality of low frequency subband signals, respectively; and - means for adjusting the energy of the plurality of high frequency subband signals using the set of target energies, wherein the means for adjusting comprises means for determining, for each target interval, a common envelope adjustment value for each of the high frequency subband signals within the target interval.
A method to increase performance of a wireless communication system, the method comprising: determining one or more quality of service parameters that will result in a reduced likelihood that an application assigned the one or more quality of service parameters will be scheduled for transmission; identifying an application to be provided service that is less than best effort; assigning the determined one or more quality of service parameters to the identified application, wherein assigning the determined one or more quality of service parameters comprises assigning a dedicated bearer to the identified application; and characterized by: subsequent to assigning the dedicated bearer to the identified application, not scheduling the dedicated bearer at all. determining one or more quality of service parameters that will result in a reduced likelihood that an application assigned the one or more quality of service parameters will be scheduled for transmission; identifying an application to be provided service that is less than best effort; assigning the determined one or more quality of service parameters to the identified application, wherein assigning the determined one or more quality of service parameters comprises assigning a dedicated bearer to the identified application; and subsequent to assigning the dedicated bearer to the identified application, not scheduling the dedicated bearer at all.
A compressor comprising: a housing including a chamber in fluid communication with a suction plenum and a discharge plenum; a pair of rotors (14, 16) located in said chamber in meshing engagement with one another to compress a fluid from a suction pressure at said suction plenum to a discharge pressure at said discharge plenum; and a slide valve adjacent said pair of rotors including a passage having an axial portion that extends at least partially along an axial length of said slide valve; characterised in that the slide valve further comprises a radial portion that extends between said axial portion and a sidewall of said slide valve, wherein said axial portion extends from a suction end of said slide valve, and said radial portion defines an opening in said sidewall. a housing including a chamber in fluid communication with a suction plenum and a discharge plenum; a pair of rotors (14, 16) located in said chamber in meshing engagement with one another to compress a fluid from a suction pressure at said suction plenum to a discharge pressure at said discharge plenum; and a slide valve adjacent said pair of rotors including a passage having an axial portion that extends at least partially along an axial length of said slide valve;
A pile fabric comprising: a base weave construction formed of a warp yarn and a weft yarn and a loop pile formed of a pile yarn; wherein a ratio of a height of the loop pile to a diameter of the pile yarn is 50 times or greater; wherein the pile yarn is a twisted yarn having a twisting coefficient of 2.5 (23.9 α t) or greater; wherein the pile yarn has an English yarn count of a range between 50 (11.81 tex) and 120 (4.92 tex); wherein the loop pile has a snarl; wherein a plurality of the pile yarns is arranged in parallel with the warp yarn; wherein a gap between the neighboring pile yarns is not greater than 0.5 mm; wherein the snarls on the neighboring loop piles entwine together; and wherein a plurality of the pile yarns is arranged between the neighboring warp yarns. a base weave construction formed of a warp yarn and a weft yarn and a loop pile formed of a pile yarn; wherein a ratio of a height of the loop pile to a diameter of the pile yarn is 50 times or greater; wherein the pile yarn is a twisted yarn having a twisting coefficient of 2.5 (23.9 α t) or greater; wherein the pile yarn has an English yarn count of a range between 50 (11.81 tex) and 120 (4.92 tex); wherein the loop pile has a snarl; wherein a plurality of the pile yarns is arranged in parallel with the warp yarn; wherein a gap between the neighboring pile yarns is not greater than 0.5 mm; wherein the snarls on the neighboring loop piles entwine together; and wherein a plurality of the pile yarns is arranged between the neighboring warp yarns.
Electrical assembly comprising: - a support, comprising a cooling device configured to dissipate heat emitted by a link capacitor; - a separating element disposed between the cooling device and the link capacitor configured to produce an electrical insulation between the link capacitor and the cooling device; - said link capacitor comprising at least one capacitive coil and at least one electrical connection bar (12, 13) fixed to said at least one capacitive coil, said at least one electrical connection bar (12, 13) being at least partly disposed on the side of the separating element; the electrical assembly comprising first securing members for securing the separating element on said support, said separating element also incorporating second securing members designed to ensure the securing of the link capacitor on the separating element and said separating element being made of plastic and the second securing members comprising riveting heads made in one piece with the separating element and extending from the separating element to the link capacitor, said heads being configured to be crushed under the pressure, when the electrical assembly is assembled, so as to form link zones between the separating element and the link capacitor. - a support, comprising a cooling device configured to dissipate heat emitted by a link capacitor; - a separating element disposed between the cooling device and the link capacitor configured to produce an electrical insulation between the link capacitor and the cooling device; - said link capacitor comprising at least one capacitive coil and at least one electrical connection bar (12, 13) fixed to said at least one capacitive coil, said at least one electrical connection bar (12, 13) being at least partly disposed on the side of the separating element; the electrical assembly comprising first securing members for securing the separating element on said support, said separating element also incorporating second securing members designed to ensure the securing of the link capacitor on the separating element and said separating element being made of plastic and the second securing members comprising riveting heads made in one piece with the separating element and extending from the separating element to the link capacitor, said heads being configured to be crushed under the pressure, when the electrical assembly is assembled, so as to form link zones between the separating element and the link capacitor.
Compound of formula: where R 1, R 2, R 3, R 4 are selected from: -(C 1 -C 12) -alkyl, - O-(C 1 -C 12)-alkyl, and R 5 is selected from: -(C 1 -C 12)-alkyl, -O-(C 1 -C 12)-alkyl, - Ph. where R 1, R 2, R 3, R 4 are selected from: -(C 1 -C 12) -alkyl, - O-(C 1 -C 12)-alkyl, and R 5 is selected from: -(C 1 -C 12)-alkyl, -O-(C 1 -C 12)-alkyl, - Ph.
An engineered polypeptide having transaminase activity, comprising an amino acid sequence having at least 80% identity to SEQ ID NO:4, wherein the transaminase has at least 1.2 fold increased stability as compared to the polypeptide of SEQ ID NO:4 and wherein the amino acid sequence comprises a residue difference selected from: X163L/I/R/V.
Fuel injection valve, comprising - a valve body with a central longitudinal axis comprising a cavity with a fluid inlet portion and a fluid outlet portion, - a valve needle axially moveable in the cavity, the valve needle preventing a fluid flow through the fluid outlet portion in a closing position and releasing the fluid flow through the fluid outlet portion in further positions, - an electro-magnetic actuator unit being designed to actuate the valve needle, - at least one anti-reflection device for preventing the reflection of pressure waves inside the fuel injection valve, the anti-reflection device being arranged inside the cavity and comprising: - an essentially cylindrical base body with a first base side, a second base side and an outer surface; - a longitudinal axis L intended to be orientated parallel to a propagation direction of a pressure wave, the longitudinal axis L penetrating the first base side and the second base side; - a flow path for fuel formed between the first base side and the second base side, the flow path forming a curve around the longitudinal axis L, wherein the flow path has the form of a helical curve around the longitudinal axis L, wherein the first base side being directed towards the fluid inlet portion, characterized in that the anti-reflection device is arranged upstream of an armature of the electro-magnetic actuator unit. - a valve body with a central longitudinal axis comprising a cavity with a fluid inlet portion and a fluid outlet portion, - a valve needle axially moveable in the cavity, the valve needle preventing a fluid flow through the fluid outlet portion in a closing position and releasing the fluid flow through the fluid outlet portion in further positions, - an electro-magnetic actuator unit being designed to actuate the valve needle, - at least one anti-reflection device for preventing the reflection of pressure waves inside the fuel injection valve, the anti-reflection device being arranged inside the cavity and comprising: - an essentially cylindrical base body with a first base side, a second base side and an outer surface; - a longitudinal axis L intended to be orientated parallel to a propagation direction of a pressure wave, the longitudinal axis L penetrating the first base side and the second base side; - a flow path for fuel formed between the first base side and the second base side, the flow path forming a curve around the longitudinal axis L, wherein the flow path has the form of a helical curve around the longitudinal axis L, wherein the first base side being directed towards the fluid inlet portion, characterized in that the anti-reflection device is arranged upstream of an armature of the electro-magnetic actuator unit.
A method for deactivating a carrier, comprising: receiving, by a terminal from a network device, second information, wherein the second information is used to enable or disable a secondary carrier deactivation function, wherein when the second information corresponds to enabling the secondary carrier deactivation function, the terminal is enabled to deactivate one or more secondary carriers based on a default bandwidth part, BWP, and when the second information corresponds to disabling the secondary carrier deactivation function, the terminal is disabled to deactivate one or more secondary carriers based on a default bandwidth part, BWP; the method further comprising: when the secondary carrier deactivation function is enabled in the terminal: receiving, by the terminal from the network device, first information, wherein the first information indicates the default BWP; and deactivating, by the terminal, one or more secondary carriers that do not include the default BWP; wherein the default BWP is a BWP configured by a network device, or the default BWP is a BWP used by the terminal for initial access. receiving, by a terminal from a network device, second information, wherein the second information is used to enable or disable a secondary carrier deactivation function, wherein when the second information corresponds to enabling the secondary carrier deactivation function, the terminal is enabled to deactivate one or more secondary carriers based on a default bandwidth part, BWP, and when the second information corresponds to disabling the secondary carrier deactivation function, the terminal is disabled to deactivate one or more secondary carriers based on a default bandwidth part, BWP; the method further comprising: when the secondary carrier deactivation function is enabled in the terminal: receiving, by the terminal from the network device, first information, wherein the first information indicates the default BWP; and deactivating, by the terminal, one or more secondary carriers that do not include the default BWP; wherein the default BWP is a BWP configured by a network device, or the default BWP is a BWP used by the terminal for initial access. receiving, by the terminal from the network device, first information, wherein the first information indicates the default BWP; and deactivating, by the terminal, one or more secondary carriers that do not include the default BWP; wherein the default BWP is a BWP configured by a network device, or the default BWP is a BWP used by the terminal for initial access.
Meat emulsion product comprising a protein and a fat, a body defined by a plurality of linear strands of fibrous material and a plurality of axial strands of fibrous material that afford the meat emulsion product a realistic meat-like appearance obtainable by (i) Passing meat material through a grinder to reduce the meat material into pieces of uniform size; (ii) Mixing the resulting mix of meat particles in a mixing tank until uniform; (iii)Optionally heating the resulting meat mix to a temperature of between -1°C to 7°C; (iv)Comminuting the meat mix to emulsify the meat mix and form a meat emulsion in which the protein and water of the meat mixture form a matrix that encapsulates the fat globules; (v) Comminuting the meat emulsion having a temperature of between 30 °C to 40 °C and rapidly heating it within a period of less than 60 seconds to a temperature of 100 °C to 165 °C and subjecting the meat emulsion to a pressure of at least 0.55 MPa; (vi)Transferring the hot meat emulsion into a confined processing zone with a positive displacement pump at high pressures of 0.55 MPa to 4.14 MPa, wherein a heat exchanging step occurs in the confined processing zone; (vii) Discharging the product in the form of long strips having a temperature of 65°C to 100°C, and a moisture content of 47% to 65%, with the pieces varying in size, from the confined processing zone and rapidly cooling the product to a temperature between 60°C and 93°C by evaporating cooling; wherein, the meat emulsion is subjected to a longitudinal spiraling flow before, during or after the heat exchanging step. (i) Passing meat material through a grinder to reduce the meat material into pieces of uniform size; (ii) Mixing the resulting mix of meat particles in a mixing tank until uniform; (iii)Optionally heating the resulting meat mix to a temperature of between -1°C to 7°C; (iv)Comminuting the meat mix to emulsify the meat mix and form a meat emulsion in which the protein and water of the meat mixture form a matrix that encapsulates the fat globules; (v) Comminuting the meat emulsion having a temperature of between 30 °C to 40 °C and rapidly heating it within a period of less than 60 seconds to a temperature of 100 °C to 165 °C and subjecting the meat emulsion to a pressure of at least 0.55 MPa; (vi)Transferring the hot meat emulsion into a confined processing zone with a positive displacement pump at high pressures of 0.55 MPa to 4.14 MPa, wherein a heat exchanging step occurs in the confined processing zone; (vii) Discharging the product in the form of long strips having a temperature of 65°C to 100°C, and a moisture content of 47% to 65%, with the pieces varying in size, from the confined processing zone and rapidly cooling the product to a temperature between 60°C and 93°C by evaporating cooling;
Device for ejecting an at least diphasic mixture for extinguishing a fire, for fire prevention by moistening or cooling the material, comprising at least one injection inlet (IN1, IN2) for a liquid and a gas, a distribution chamber for producing a first liquid/gas mixture, an ejection nozzle (EJ, EJ2) of the first liquid/gas mixture in a main direction defined by a vector axis, characterised in that the ejection nozzle (EJ, EJ2) has a geometry comprising, at least over its length, a minimum cross-section, or neck, at a location along the vector axis (AX, AX2), the nozzle inlet as illustrated in Figure 2 for the ejection nozzle principally consisting of a first converging access zone with a steep gradient (La) followed by a second converging zone with a shallow gradient (Lb), of a portion at the neck of the nozzle, and for which geometry pressure reduction is brought about within the ejection nozzle (EJ, EJ2) allowing the first liquid/gas mixture originating from the distribution chamber to be converted, in the direction of the flow configuration, into a second liquid/gas mixture at the nozzle outlet, the ejection range of which second mixture and the particle size of the liquid in droplet form (GOUT) being controllable as a function of the mass flow rates of the liquid and the gas and of the absolute pressure at the injection inlet.