mhurhangee/ep-ind-claims huggingface dataset:
A nozzle for controlling extruded material flowing from an extrusion machine, comprising: a main body defining a cavity for the receipt of material flowing into the nozzle along a first direction; an inlet connected with the cavity so as to allow extruded material to flow into the cavity; a plurality of channels connected with the cavity to allow for the flow of extruded material out of the cavity and through each of the channels, the plurality of channels arranged adjacent to each other along said first direction of the nozzle, wherein each channel has a channel axis and defines a channel outlet and a direction of material flow through each channel along a second direction that is orthogonal to the first direction; and a plurality of pins, each pin associated with at least one channel and movable in and out of the channel along a third direction such that the flow of material through each channel can be selectively adjusted by controlling the amount of obstruction of the channel with the pin, wherein the third direction is orthogonal to both the first and the second direction (FD, SD); characterized in that the nozzle further comprises a die and a die holder, and the die holder is attached to the main body and positioned downstream of the plurality of channels, wherein said die holder is configured to receive the flow of extruded material from the plurality of channels and the die holder defines a slot into which the die is received. a main body defining a cavity for the receipt of material flowing into the nozzle along a first direction; an inlet connected with the cavity so as to allow extruded material to flow into the cavity; a plurality of channels connected with the cavity to allow for the flow of extruded material out of the cavity and through each of the channels, the plurality of channels arranged adjacent to each other along said first direction of the nozzle, wherein each channel has a channel axis and defines a channel outlet and a direction of material flow through each channel along a second direction that is orthogonal to the first direction; and a plurality of pins, each pin associated with at least one channel and movable in and out of the channel along a third direction such that the flow of material through each channel can be selectively adjusted by controlling the amount of obstruction of the channel with the pin, wherein the third direction is orthogonal to both the first and the second direction (FD, SD); characterized in that the nozzle further comprises a die and a die holder, and the die holder is attached to the main body and positioned downstream of the plurality of channels, wherein said die holder is configured to receive the flow of extruded material from the plurality of channels and the die holder defines a slot into which the die is received.
A process for preparing C 2 to C 3 hydrocarbons comprising: introducing a feed stream comprising hydrogen gas and a carbon-containing gas selected from the group consisting of carbon monoxide, carbon dioxide, and mixtures thereof into a reaction zone of a reactor; and converting the feed stream into a product stream comprising C 2 to C 3 hydrocarbons in the reaction zone in the presence of a hybrid catalyst, the hybrid catalyst comprising: a mixed metal oxide catalyst component; and a microporous catalyst component comprising 8-MR pore openings having a size less than or equal to 0.51 nm (5.1 Ǻ) and a cage defining ring size less than or equal to 0.745 nm (7.45 Ǻ), wherein: a C 2 /C 3 carbon molar ratio of the product stream is greater than or equal to 0.7. introducing a feed stream comprising hydrogen gas and a carbon-containing gas selected from the group consisting of carbon monoxide, carbon dioxide, and mixtures thereof into a reaction zone of a reactor; and converting the feed stream into a product stream comprising C 2 to C 3 hydrocarbons in the reaction zone in the presence of a hybrid catalyst, the hybrid catalyst comprising: a mixed metal oxide catalyst component; and a microporous catalyst component comprising 8-MR pore openings having a size less than or equal to 0.51 nm (5.1 Ǻ) and a cage defining ring size less than or equal to 0.745 nm (7.45 Ǻ), wherein: a C 2 /C 3 carbon molar ratio of the product stream is greater than or equal to 0.7. a mixed metal oxide catalyst component; and a microporous catalyst component comprising 8-MR pore openings having a size less than or equal to 0.51 nm (5.1 Ǻ) and a cage defining ring size less than or equal to 0.745 nm (7.45 Ǻ), wherein: a C 2 /C 3 carbon molar ratio of the product stream is greater than or equal to 0.7.
A method for assigning a unique device address from a first control device to an unaddressed remotely-located control device (112, 114, 116) in a control system, the remotely-located control device adapted to be coupled to a source of power, a switch (124, 126) for operation by a user coupled in series between the source of power and the unaddressed remotely-located control device (112, 114, 116), the method characterized by: operating the switch (124, 126) to cycle power to the remotely-located control device (112, 114, 116) to off and then back on (step 214); the remotely-located control device (112, 114, 116) transmitting to the first control device a signal uniquely identifying the remotely-located control device within a predetermined amount of time after the step of operating the switch; identifying the remotely-located control device at the first control device using the signal uniquely identifying the remotely-located control device (step 222, step 224); transmitting from the first control device the unique device address to the remotely-located control device in response to the step of identifying the remotely-located control device (step 226); and the remotely-located control device subsequently receiving the unique device address. operating the switch (124, 126) to cycle power to the remotely-located control device (112, 114, 116) to off and then back on (step 214); the remotely-located control device (112, 114, 116) transmitting to the first control device a signal uniquely identifying the remotely-located control device within a predetermined amount of time after the step of operating the switch; identifying the remotely-located control device at the first control device using the signal uniquely identifying the remotely-located control device (step 222, step 224); transmitting from the first control device the unique device address to the remotely-located control device in response to the step of identifying the remotely-located control device (step 226); and the remotely-located control device subsequently receiving the unique device address.
An ultrasound system which is programmed by software contained in an ultrasound probe connected to the system comprising: an ultrasound probe having a memory device which stores firmware data; a connector by which the memory device is coupled to the ultrasound system; a display and display software for presenting an image on the display; and an ultrasound signal acquisition subsystem, located in the ultrasound system and responsive to the firmware stored in the probe, wherein the acquisition subsystem is configured by the firmware data, characterized in that the ultrasound signal acquisition subsystem includes programmable analog circuitry which is configured by the firmware stored in the probe. an ultrasound probe having a memory device which stores firmware data; a connector by which the memory device is coupled to the ultrasound system; a display and display software for presenting an image on the display; and an ultrasound signal acquisition subsystem, located in the ultrasound system and responsive to the firmware stored in the probe, wherein the acquisition subsystem is configured by the firmware data, characterized in that the ultrasound signal acquisition subsystem includes programmable analog circuitry which is configured by the firmware stored in the probe.
Transmission system for transmitting signals between an inner and an outer unit separated by an annular pipe section wall providing a pressure barrier between the inside and outside of said pipe and an annular gap adapted to contain a fluid, wherein said inner unit is provided with a first antenna and the outer unit is provided with a second antenna, the antennas being adapted to be brought into essentially the same positions along the pipe section, characterised in that said pipe section wall is made from a material having low magnetic permeability and wherein at least one of the antennas is provided with a magnetic shield having high magnetic permeability, the corresponding antenna being positioned between the pipe wall and the magnetic shield and the magnetic shield extending along the axial length of the antenna.
A method for use in a system comprising a visited network operator, VNO, a machine-to-machine equipment, M2ME, having a trusted environment, TRE, and a registration operator, RO, which communicate via a network, the method performed by the M2ME and comprising the steps of: transmitting, to the VNO, a network attach request message comprising a temporary private identifier; authenticating with the VNO using the temporary private identifier, the temporary private identifier being a provisional connectivity identification, PCID; receiving authentication vectors if a platform validation authority validates an authenticity and an integrity of the TRE of the M2ME; after the M2ME is authenticated with the VNO and after the TRE is validated by the platform validation authority, establishing IP connectivity with the RO via the VNO; receiving a manageable identity, MID, from the RO; and provisioning the MID on the M2ME and reporting a success message to the RO. transmitting, to the VNO, a network attach request message comprising a temporary private identifier; authenticating with the VNO using the temporary private identifier, the temporary private identifier being a provisional connectivity identification, PCID; receiving authentication vectors if a platform validation authority validates an authenticity and an integrity of the TRE of the M2ME; after the M2ME is authenticated with the VNO and after the TRE is validated by the platform validation authority, establishing IP connectivity with the RO via the VNO; receiving a manageable identity, MID, from the RO; and provisioning the MID on the M2ME and reporting a success message to the RO.
An aqueous slicing fluid comprising 0.01 to 20% by weight of a modified silicone; 1 to 20% by weight of water and 60 to 98.99% by weight of a hydrophilic polyhydric alcohol and/or a derivative thereof, wherein the modified silicone is a polyether-modified silicone.
Compressor system with a compressor for the supply of compressed air to a commercial vehicle having an engine possessing a turbocharger, air precompressed by the turbocharger being capable of being sucked in by the compressor via a first air feed, characterized - in that non-precompressed ambient air can be sucked in by the compressor via a second air feed, - in that a charge-air valve device is arranged in the first air feed and an ambient-air valve device is arranged in the second air feed, - in that a pressure sensor is arranged in the first air feed, which pressure sensor determines a boost pressure, provided by the turbocharger, upstream of the charge-air valve device, - in that the charge-air valve device is designed to allow precompressed air provided by the turbocharger to be sucked in by the compressor via the first air feed only when the boost pressure provided by the turbocharger lies below an adjustable boost-pressure threshold, and - in that the ambient-air valve device is designed to allow non-precompressed ambient air to be sucked in by the compressor via the second air feed only when the boost pressure provided by the turbocharger lies above an adjustable boost-pressure threshold. - in that non-precompressed ambient air can be sucked in by the compressor via a second air feed, - in that a charge-air valve device is arranged in the first air feed and an ambient-air valve device is arranged in the second air feed, - in that a pressure sensor is arranged in the first air feed, which pressure sensor determines a boost pressure, provided by the turbocharger, upstream of the charge-air valve device, - in that the charge-air valve device is designed to allow precompressed air provided by the turbocharger to be sucked in by the compressor via the first air feed only when the boost pressure provided by the turbocharger lies below an adjustable boost-pressure threshold, and - in that the ambient-air valve device is designed to allow non-precompressed ambient air to be sucked in by the compressor via the second air feed only when the boost pressure provided by the turbocharger lies above an adjustable boost-pressure threshold.
Cartridge controlled by a valve operated by a pushbutton for the mixing of water and/or for directing water coming from an inlet to one or more outlets which comprises the valve closing and opening the fluid flow between at least one inlet and outlet, in which a control valve is arranged operated by a double position mechanism by which the control valve can be set into open and closed positions by the subsequent pressings of the pushbutton, wherein the control valve, the valve and the double position mechanism constitute a common mechanical unit all having a common axis, and the double position mechanism, the control valve and the valve are arranged along the axis after one another in a housing, and the housing is surrounded in a sealed way by a case in which the housing can be turned around the axis within a predetermined angular range, and in the interior of the case under the lower end of the housing a ceramic stationary disc (42, 69, 75, 84) is arranged, and directly above the ceramic stationary disc (42, 69, 75, 84) with a common contacting plane a ceramic moving disc (43, 70, 76, 85) is arranged which can be turned together with the housing, and said inlet or inlets and outlet or outlets are arranged at the bottom of the case and leading to the ceramic stationary disc (42, 69, 75, 84), characterized in that said valve is a flow controlled piston valve having a valve piston guided in the interior of the housing for axial displacement, and the bottom of the piston valve comprises a valve seat belonging to the housing, wherein no mechanical connection exists between the control valve and the valve piston, and the inlet or inlets are lead through inlet openings of the ceramic stationary disc (42, 69, 75, 84) and the ceramic moving disc (43, 70, 76, 85) and through a vertical lateral passage completely provided in the interior of the housing to an intermediate space arranged in the closed state of the valve piston between the top of the valve piston and the bottom of the control valve, and an interior space of the housing located under the valve seat of the valve piston is separated from said lateral passage and constitutes an outlet space communicating through said ceramic moving and stationary discs to said outlet(s) and the outlet space is connected through a further passage with an upper space defined between the control valve and said double position mechanism, and both said inlet and outlet openings provided in the ceramic stationary and moving discs (42, 69, 75, 84) and (43, 70, 76, 85) are arranged asymmetrically at opposing sides of the axis.
A repertoire of peptide ligands which is displayed using a genetic display system, wherein each peptide ligand comprises a polypeptide variant linked to a molecular scaffold at n attachment points, wherein said polypeptide is cyclised and forms n separate loops subtended between said n attachment points on the molecular scaffold, wherein n separate loops = n attachment points and n is 2 or 3, and said molecular scaffold possesses n scaffold reactive groups and n-fold molecular symmetry.
A process for preparing precursors for transition metal mixed oxides, wherein a material having the formula M(CO 3) b O c d A m B e (SO 4) f X g (PO 4) h where the variables are defined as follows: M is one or more transition metals, A is sodium or potassium, B is one or more metals of groups 1 to 3 of the Periodic Table, excluding Na and potassium, X is halide, nitrate or carboxylate, b is in the range from 0.75 to 0.98, c is in the range from zero to 0.50, d is in the range from zero to 0.50, where the sum (c + d) is in the range from 0.02 to 0.50, e is in the range from zero to 0.1, f is in the range from zero to 0.05, g is in the range from zero to 0.05, h is in the range from zero to 0.10, m is in the range from 0.002 to 0.1, is precipitated from aqueous solution at a pH in the range from 8.0 to 9.0 by combining aqueous solution of transition metal salt(s) in one or more steps with aqueous solution of one or more alkali metal carbonate(s), where the molar ratio of carbonate ions to M is in the range from 0.7 to 1.3, and the precipitated material is separated off from the mother liquor, where the particles of material of the general formula have a spherical shape. a material having the formula M(CO 3) b O c d A m B e (SO 4) f X g (PO 4) h where the variables are defined as follows: M is one or more transition metals, A is sodium or potassium, B is one or more metals of groups 1 to 3 of the Periodic Table, excluding Na and potassium, X is halide, nitrate or carboxylate, b is in the range from 0.75 to 0.98, c is in the range from zero to 0.50, d is in the range from zero to 0.50, where the sum (c + d) is in the range from 0.02 to 0.50, e is in the range from zero to 0.1, f is in the range from zero to 0.05, g is in the range from zero to 0.05, h is in the range from zero to 0.10, m is in the range from 0.002 to 0.1, is precipitated from aqueous solution at a pH in the range from 8.0 to 9.0 by combining aqueous solution of transition metal salt(s) in one or more steps with aqueous solution of one or more alkali metal carbonate(s), where the molar ratio of carbonate ions to M is in the range from 0.7 to 1.3, and M is one or more transition metals, A is sodium or potassium, B is one or more metals of groups 1 to 3 of the Periodic Table, excluding Na and potassium, X is halide, nitrate or carboxylate, b is in the range from 0.75 to 0.98, c is in the range from zero to 0.50, d is in the range from zero to 0.50, where the sum (c + d) is in the range from 0.02 to 0.50, e is in the range from zero to 0.1, f is in the range from zero to 0.05, g is in the range from zero to 0.05, h is in the range from zero to 0.10, m is in the range from 0.002 to 0.1, the precipitated material is separated off from the mother liquor,
An apparatus for managing a battery system having a plurality of battery cells connected in series, the apparatus comprising: a performance measurement section for measuring a performance of each of the battery cells; a cell switching section for turning on or off a connection of each battery cell to other battery cells; and a controlling section configured to compare the performance of each battery cell measured by the performance measurement section with a reference performance and, in the presence of the battery cell(s) having measured performance lower than the reference performance, configured to control the cell switching section to interrupt the connection of the relevant battery cell(s) to other battery cells, characterized in that: - the apparatus for managing a battery system further comprises a system switching section for turning on or off a current flow path for the whole plurality of battery cells, and - the controlling section is configured to turn off the system switching section before turning on or off the cell switching section. a performance measurement section for measuring a performance of each of the battery cells; a cell switching section for turning on or off a connection of each battery cell to other battery cells; and a controlling section configured to compare the performance of each battery cell measured by the performance measurement section with a reference performance and, in the presence of the battery cell(s) having measured performance lower than the reference performance, configured to control the cell switching section to interrupt the connection of the relevant battery cell(s) to other battery cells, characterized in that: - the apparatus for managing a battery system further comprises a system switching section for turning on or off a current flow path for the whole plurality of battery cells, and - the controlling section is configured to turn off the system switching section before turning on or off the cell switching section. - the apparatus for managing a battery system further comprises a system switching section for turning on or off a current flow path for the whole plurality of battery cells, and - the controlling section is configured to turn off the system switching section before turning on or off the cell switching section.
A channel measurement method, comprising: sending, by an access point AP, a channel measurement trigger frame TF-S to at least two stations STAs, to trigger the at least two STAs to send null data packets NDPs which are used for uplink channel measurement, the TF-S comprises parameter indication information of a transmission parameter used by each STA to send the NDP, and the parameter indication information is used by the STA to determine the transmission parameter and a transmission time; and receiving, by the AP, an NDP sent by each of the at least two STAs based on a corresponding transmission parameter of the STA at a transmission time corresponding to the STA, and performing channel measurement, wherein there is no interframe gap between NDPs sent by any two adjacent STAs of the at least two STAs, and wherein the AP sends the TF-S to the at least two STAs simultaneously on at least a primary preset-bandwidth channel. sending, by an access point AP, a channel measurement trigger frame TF-S to at least two stations STAs, to trigger the at least two STAs to send null data packets NDPs which are used for uplink channel measurement, the TF-S comprises parameter indication information of a transmission parameter used by each STA to send the NDP, and the parameter indication information is used by the STA to determine the transmission parameter and a transmission time; and receiving, by the AP, an NDP sent by each of the at least two STAs based on a corresponding transmission parameter of the STA at a transmission time corresponding to the STA, and performing channel measurement, wherein there is no interframe gap between NDPs sent by any two adjacent STAs of the at least two STAs, and wherein the AP sends the TF-S to the at least two STAs simultaneously on at least a primary preset-bandwidth channel.