mhurhangee/ep-ind-claims huggingface dataset:
A sheet manufacturing apparatus comprising: a supply unit adapted to cut feedstock into shreds in air and to supply the shreds to a defibrating unit; the defibrating unit adapted to receive the shreds from the supply unit and to defibrate the shreds to produce defibrated material; a sieve unit adapted to receive at least part of the defibrated material from the defibrating unit, the sieve unit being adapted to pass the defibrated material through multiple openings disposed in a main section thereof; a forming unit adapted to form a sheet using precipitate that passed through the openings of the sieve unit; and a control unit adapted to control driving the supply unit, the defibrating unit, the sieve unit and the forming unit, wherein: the control unit is adapted to drive the sieve unit to move at a first speed while the defibrated material is introduced into the sieve unit, and wherein the control unit is adapted to stop driving of the supply unit, the sieve unit and the defibrating unit in that order when stopping sheet manufacturing, whereby the sheet manufacturing apparatus is adapted to stop the sieve unit with defibrated material that was introduced stored inside the sieve unit. a supply unit adapted to cut feedstock into shreds in air and to supply the shreds to a defibrating unit; the defibrating unit adapted to receive the shreds from the supply unit and to defibrate the shreds to produce defibrated material; a sieve unit adapted to receive at least part of the defibrated material from the defibrating unit, the sieve unit being adapted to pass the defibrated material through multiple openings disposed in a main section thereof; a forming unit adapted to form a sheet using precipitate that passed through the openings of the sieve unit; and a control unit adapted to control driving the supply unit, the defibrating unit, the sieve unit and the forming unit, wherein: the control unit is adapted to drive the sieve unit to move at a first speed while the defibrated material is introduced into the sieve unit, and wherein the control unit is adapted to stop driving of the supply unit, the sieve unit and the defibrating unit in that order when stopping sheet manufacturing, whereby the sheet manufacturing apparatus is adapted to stop the sieve unit with defibrated material that was introduced stored inside the sieve unit. the control unit is adapted to drive the sieve unit to move at a first speed while the defibrated material is introduced into the sieve unit, and wherein the control unit is adapted to stop driving of the supply unit, the sieve unit and the defibrating unit in that order when stopping sheet manufacturing, whereby the sheet manufacturing apparatus is adapted to stop the sieve unit with defibrated material that was introduced stored inside the sieve unit.
Personal weather protection device for the protection of a user using a wheeled vehicle, the device comprising a protective wall, consisting of a flexible wall which extends from a carrying system to be positioned above the user's head up to the front while fixing means are provided for fixing the front free end of the protective wall to the steering member of the wheeled vehicle and comprising a framework consisting of at least one elastically deformable flexible rod (22a, 22b) or at least one tensioning arch (31, 33, 35) in order to fold the device into the non-use position, said device being carried on the user's back by the carrying system, characterised in that the carrying system is of the type of a back wall, of a backpack, provided with carrying shoulder straps (40a, 40b), and in that the flexible wall comprises a rear skirt protecting the lower back and the pelvis of the user,and forming a cover accommodating the framework and the flexible wall in the folded state.
A printed antenna working in at least two frequency bands, said antenna consisting of a slot produced on a ground plane situated on a face of a substrate and having an open end which radiates and a closed end, said antenna having a first port produced by a first microstrip line having an open-circuit end and situated on an opposite face of the substrate to the ground plane, the coupling between the first line and the slot being produced at a first distance from the closed end of the slot, and at a third distance from the open-circuit end of the first line, said first port forming an access for one frequency band, characterized in that the antenna has at least a second port produced by a second microstrip line having an open-circuit end and situated on an opposite face of the substrate to the ground plane, the coupling between the second line and the slot being produced at a second distance from the closed end of the slot, and at a fourth distance from the open-circuit end of the second line, said second port forming an access to an other frequency band, the second distance being different from the first distance. and the fourth distance being different from the third distance.
A method for selecting a network for originating a voice call on a voice over IP, VoIP,-capable mobile device, comprising: receiving an input to initiate a voice call to a target mobile device; determining on the mobile device whether the target mobile device is a VoIP-capable device based on whether a user profile for the target mobile device is registered with an application server associated with a VoIP network; determining on the mobile device whether the target mobile device is available to communicate on the VoIP network in response to determining that the target mobile device is a VoIP-capable device; initiating the voice call on the VoIP network in response to determining that the target mobile device is available to communicate on the VoIP network; and initiating the voice call on a circuit switched, CS, network in response to determining that the target mobile device is not available to communicate on the VoIP network. receiving an input to initiate a voice call to a target mobile device; determining on the mobile device whether the target mobile device is a VoIP-capable device based on whether a user profile for the target mobile device is registered with an application server associated with a VoIP network; determining on the mobile device whether the target mobile device is available to communicate on the VoIP network in response to determining that the target mobile device is a VoIP-capable device; initiating the voice call on the VoIP network in response to determining that the target mobile device is available to communicate on the VoIP network; and initiating the voice call on a circuit switched, CS, network in response to determining that the target mobile device is not available to communicate on the VoIP network.
A nucleic acid detection device comprising at least one target detection portion and a control detection portion, wherein a probe for capturing a target nucleic acid is immobilized on the target detection portion, and a probe for capturing a control nucleic acid and at least one probe for capturing the target nucleic acid are immobilized on the control detection portion, wherein the target nucleic acid and the control nucleic acid are amplification reaction products that have undergone an amplification step, wherein the probe is a nucleic acid. wherein the target nucleic acid and the control nucleic acid are amplification reaction products that have undergone an amplification step, wherein the probe is a nucleic acid.
Use of an oxygenated aqueous fluid composition in manufacture of a medicament for treating an eye condition, the composition comprising an oxygen enriched saline solution of oxygen-containing micro-bubbles, predominantly having a diameter of less than 100 nanometers, the treatment comprising administering to a subject in need thereof, a therapeutically effective amount of the fluid for treating an eye condition upon contacting the eye of a subject by the fluid composition, and wherein the fluid comprises at least 15 ppm dissolved oxygen at atmospheric pressure.
A method for obtaining an elastic feature of an object, the method comprising: inducing a first shear wave in the object by transmitting a first push ultrasound signal which is generated by a probe of an ultrasound apparatus and a first grating lobe signal which relates to the first push ultrasound signal toward the object; transmitting a first tracking ultrasound signal to an area of the object where the first shear wave has propagated, and receiving, from the object, a first reflection signal which relates to the first tracking ultrasound signal; measuring a first shear wave parameter which indicates a shear wave characteristic of the first shear wave based on the first reflection signal; and obtaining an elastic feature of the object by using the measured first shear wave parameter characterized in that: the strength of the first grating lobe signal is equal to the strength of the first push ultrasound signal; and the step of inducing the first shear wave in the object further comprises synthesizing a first sub-shear wave induced in the object by the first push ultrasound signal and a second sub-shear wave induced in the object by the first grating lobe signal. inducing a first shear wave in the object by transmitting a first push ultrasound signal which is generated by a probe of an ultrasound apparatus and a first grating lobe signal which relates to the first push ultrasound signal toward the object; transmitting a first tracking ultrasound signal to an area of the object where the first shear wave has propagated, and receiving, from the object, a first reflection signal which relates to the first tracking ultrasound signal; measuring a first shear wave parameter which indicates a shear wave characteristic of the first shear wave based on the first reflection signal; and obtaining an elastic feature of the object by using the measured first shear wave parameter characterized in that: the strength of the first grating lobe signal is equal to the strength of the first push ultrasound signal; and the step of inducing the first shear wave in the object further comprises synthesizing a first sub-shear wave induced in the object by the first push ultrasound signal and a second sub-shear wave induced in the object by the first grating lobe signal. the strength of the first grating lobe signal is equal to the strength of the first push ultrasound signal; and the step of inducing the first shear wave in the object further comprises synthesizing a first sub-shear wave induced in the object by the first push ultrasound signal and a second sub-shear wave induced in the object by the first grating lobe signal.
Cutting machine blade to be fitted into a cutting tool of a cutting machine, formed and accurately provided in order to cut a multiwalled composite plate - particularly a sandwich plate - made of cardboard or paperboard material or plastic, which has at least an upper wall and separated therefrom a lower wall (21, 22), which are respectively relatively thick and difficult to cut, and an intermediate layer lying between them, which is relatively easy to cut, particularly in the form of a structure between five and 60 millimeters high made of material with cavities, in particular formed as a repeating cell pattern structure or from foam, • wherein the cutting machine blade is intended for use in the scope of an automatic cutting mode, in which the cutting machine blade is guided by the cutting machine in a forward direction along the composite plate, having • a holding section for fitting the cutting machine blade into a blade holder of the cutting tool, and • a cutter with an edge, a first zone of the edge extending obliquely relative to the forward direction being provided for cutting the lower wall, and a second zone of the edge extending obliquely relative to the forward direction being provided for cutting the upper wall, respective profiles of the edge in the region of the first and second zones (12, 11) respectively making a first angle (41, 42) of between about 30° and about 70° with the forward direction, characterized in that there is an intermediate zone of the edge between the first and second zones (12, 11), with a profile that makes a second angle with the forward direction which is greater than the first angle (41, 42), in particular greater than 90°. • wherein the cutting machine blade is intended for use in the scope of an automatic cutting mode, in which the cutting machine blade is guided by the cutting machine in a forward direction along the composite plate, having • a holding section for fitting the cutting machine blade into a blade holder of the cutting tool, and • a cutter with an edge, a first zone of the edge extending obliquely relative to the forward direction being provided for cutting the lower wall, and a second zone of the edge extending obliquely relative to the forward direction being provided for cutting the upper wall, respective profiles of the edge in the region of the first and second zones (12, 11) respectively making a first angle (41, 42) of between about 30° and about 70° with the forward direction,
An orthodontic bracket for coupling an archwire with a tooth, the orthodontic bracke comprising a bracket body (412, 612) including a first surface configured to be mounted to the tooth, a second surface, and an archwire slot in the second surface, the archwire slot including opposing first and second slot sides (442a, 442c) and a third slot side extending between the opposing first and second slot sides, a hinge pin (416, 616) including a first shaft portion operatively coupled with the bracket body (412, 612) and a second shaft portion, and a latch (414, 614) operatively coupled to the bracket body (412, 612) by the second shaft portion of the hinge pin (416, 616) for rotational movement about an axis of rotation defined by the hinge pin, the latch (414, 614) being movable between an opened position in which the archwire is insertable into the archwire slot and a closed position in which the latch retains the archwire in the archwire slot, wherein the latch (414, 614) is movable relative to the bracket body (412, 612) when the latch (414, 614) is in at least the closed position, characterized in that a cross-sectional profile of the first shaft portion and/or the second shaft portion of the hinge pin (416, 616) is configured to elastically deform to impart a spring bias to the latch (414, 614) in a direction toward the third slot side, keeping the latch in the closed position.
A method of flow oscillating cancellation in a mixer, the mixer comprising a housing, a duct within the housing, a first and a second injector (12, 13) arranged to inject a fluid at a centre zone of the duct, a third and a fourth injector (14, 15) arranged to inject the fluid at a wall zone of the duct, the method comprising injecting the fluid through the first, the second, the third and the fourth injector, wherein the first injector is at a distance D1=v/2f 1 or odd integer multiples of it from the second injector in the absence of an acoustic node between the second injector and the first injector, or at a distance D1=λ conv =v/f 1 or full wave length integer multiples of it in the presence of an acoustic node between the second injector and the first injector, and the third injector is at a distance D2=v/2f 2 or odd integer multiples of it from the fourth injector in the absence of an acoustic node between the third injector and the first injector, or at a distance D2=v/f 2 from the first injector in the presence of an acoustic node between the third injector and the first injector, wherein f 1 is the oscillating frequency to be damped at the wall zone of the duct, f 2 is the oscillating frequency to be damped at the centre zone of the duct, v is the fluid flow speed through the duct, wherein f 1 is greater than f 2. f 1 is the oscillating frequency to be damped at the wall zone of the duct, f 2 is the oscillating frequency to be damped at the centre zone of the duct, v is the fluid flow speed through the duct, wherein f 1 is greater than f 2.
A method for preforming automatic BIOS optimization, comprising: detecting, by a processor of a computer, a change to the computer; comparing, by a BIOS optimization function included in a memory that is in communication with the processor, a current BIOS configuration to an optimized BIOS configuration associated with the change to identify a corresponding setting between the current BIOS configuration and the BIOS configuration that does not match; identifying by the BIOS optimization function a suggested setting for each BIOS feature; configuring, by the BIOS optimization function that is in communication with the processor, the setting of the current BIOS configuration to match a corresponding setting of the optimized BIOS configuration; changing the setting in the current BIOS configuration to match the corresponding setting in the optimized Bios configuration; and operating, by the processor, the computer with the optimized BIOS configuration associated with the change, wherein the BIOS optimization function includes a plurality of different optimized BIOS configurations for different changes so that based on the change that is detected, the BIOS optimization function may use the appropriate optimized BIOS configuration that corresponds to the change. detecting, by a processor of a computer, a change to the computer; comparing, by a BIOS optimization function included in a memory that is in communication with the processor, a current BIOS configuration to an optimized BIOS configuration associated with the change to identify a corresponding setting between the current BIOS configuration and the BIOS configuration that does not match; identifying by the BIOS optimization function a suggested setting for each BIOS feature; configuring, by the BIOS optimization function that is in communication with the processor, the setting of the current BIOS configuration to match a corresponding setting of the optimized BIOS configuration; changing the setting in the current BIOS configuration to match the corresponding setting in the optimized Bios configuration; and operating, by the processor, the computer with the optimized BIOS configuration associated with the change, wherein the BIOS optimization function includes a plurality of different optimized BIOS configurations for different changes so that based on the change that is detected, the BIOS optimization function may use the appropriate optimized BIOS configuration that corresponds to the change.
A method for monitoring Multicast Control Channel, MCCH, notification information, characterized in that, comprising: in a Multicast Broadcast Single Frequency Network, MBSFN, cell that includes more than two MCCHs, when user equipment, UE, determines that a required MBMS service is not started, determining by the UE whether there Is a correspondence relationship between the required MBMS service and the MCCHs, if there is, only monitoring notification information of an MCCH corresponding to the required MBMS service, otherwise, monitoring notification information of all the MCCHs in the MBSFN cell, wherein the MBSFN cell includes more than two MCCHs is: the MBSFN cell is located in an area where more than two MBSFN areas are overlapped; the UE determining whether there is a correspondence relationship between the required MBMS service and the MCCHs is: the UE obtains a correspondence relationship between an MBMS service and the MCCHs according to at least one of received Electronic Service Guide, ESG, MCCH information, short message, multimedia message, system message, Radio Resource Control, RRC, information and MCCH notification information, and further determines whether the required MBMS service has a corresponding MCCH. in a Multicast Broadcast Single Frequency Network, MBSFN, cell that includes more than two MCCHs, when user equipment, UE, determines that a required MBMS service is not started, determining by the UE whether there Is a correspondence relationship between the required MBMS service and the MCCHs, if there is, only monitoring notification information of an MCCH corresponding to the required MBMS service, otherwise, monitoring notification information of all the MCCHs in the MBSFN cell, wherein the MBSFN cell includes more than two MCCHs is: the MBSFN cell is located in an area where more than two MBSFN areas are overlapped; the UE determining whether there is a correspondence relationship between the required MBMS service and the MCCHs is: the UE obtains a correspondence relationship between an MBMS service and the MCCHs according to at least one of received Electronic Service Guide, ESG, MCCH information, short message, multimedia message, system message, Radio Resource Control, RRC, information and MCCH notification information, and further determines whether the required MBMS service has a corresponding MCCH.
A monoclonal antibody or antigen-binding fragment thereof, which immunospecifically binds to a D4/D5 region of human KIT having SEQ ID NO: 15, wherein the antibody comprises: (i) a variable light ("VL") chain region comprising a VL CDR1, VL CDR2, and VL CDR3 having the amino acid sequences of SEQ ID NO: 20, SEQ ID NO: 21, and SEQ ID NO: 22, respectively; and (ii) a variable heavy ("VH") chain region comprising a VH CDR1, VH CDR2, and VH CDR3 having the amino acid sequences of SEQ ID NO: 23, SEQ ID NO: 24, and SEQ ID NO: 25, respectively; wherein the antibody inhibits KIT tyrosine phosphorylation by at least 25% as determined by a solid phase ELISA assay. (i) a variable light ("VL") chain region comprising a VL CDR1, VL CDR2, and VL CDR3 having the amino acid sequences of SEQ ID NO: 20, SEQ ID NO: 21, and SEQ ID NO: 22, respectively; and (ii) a variable heavy ("VH") chain region comprising a VH CDR1, VH CDR2, and VH CDR3 having the amino acid sequences of SEQ ID NO: 23, SEQ ID NO: 24, and SEQ ID NO: 25, respectively;
A dough composition comprising flour, water, fat, and flavorant salt, the dough composition comprising fat particles comprising solid fat and flavorant salt, wherein the amount of flavorant salt in the fat particles is at least 20 percent of a total amount of flavorant salt in the dough composition.
Use of a Cu-Zn wrought alloy of the following composition (stated as wt. %): Cu: 80-85, Si: 2.0-6.0, Al: 0.55-2.0, Fe: max. 0.8, Ni: max. 0.5, Sn: max. 0.5, Mn: max. 0.1, Pb: max. 0.3, remainder Zn and unavoidable impurities as a product with increased cavitation resistance on the surface. remainder Zn and unavoidable impurities as a product with increased cavitation resistance on the surface.