mhurhangee/ep-ind-claims huggingface dataset:
An industrial automation input/output module comprising: a module housing; a power supply contained in said module housing and adapted to connect with an associated electrical power source; a network adapter contained within said module housing and adapted to connect with an associated industrial automation data network; a plurality of I/O sockets located in said module housing, each of said I/O sockets comprising electrical socket contacts for power and data; a plurality of I/O segments located in said module housing, each of said I/O segments comprising an I/O segment housing that contains an I/O circuit for processing data associated with an associated controlled system and for communicating said data between the associated controlled system and said network adapter, each of said I/O segments further comprising electrical segment power and data contacts operably connected to said I/O circuit; each of said I/O segments received and releasably retained in a respective one of said I/O sockets such that the electrical segment power and data contacts of each I/O segment are operably mated with the electrical socket contacts of the I/O socket in which said I/O segment is respectively received and retained for transmission of power and data between said socket contacts and said segment contacts; a plurality of field connectors connected to said module housing and each adapted for operably connecting with a respective one of the associated controlled systems, wherein each of said I/O segments is operably connected to one of said field connectors. a module housing; a power supply contained in said module housing and adapted to connect with an associated electrical power source; a network adapter contained within said module housing and adapted to connect with an associated industrial automation data network; a plurality of I/O sockets located in said module housing, each of said I/O sockets comprising electrical socket contacts for power and data; a plurality of I/O segments located in said module housing, each of said I/O segments comprising an I/O segment housing that contains an I/O circuit for processing data associated with an associated controlled system and for communicating said data between the associated controlled system and said network adapter, each of said I/O segments further comprising electrical segment power and data contacts operably connected to said I/O circuit; each of said I/O segments received and releasably retained in a respective one of said I/O sockets such that the electrical segment power and data contacts of each I/O segment are operably mated with the electrical socket contacts of the I/O socket in which said I/O segment is respectively received and retained for transmission of power and data between said socket contacts and said segment contacts; a plurality of field connectors connected to said module housing and each adapted for operably connecting with a respective one of the associated controlled systems, wherein each of said I/O segments is operably connected to one of said field connectors.
A system, comprising: a robot; a spray gun coupled to the robot and operable to spray a first predefined number of passes of a material onto a substrate at a first flow rate; a measurement device operable to measure one or more properties of the material sprayed onto the substrate while the material is wet; and an analyzer operable to: determine a thickness of the wet material based on the one or more measured properties; and calculate a second flow rate required to achieve a cured thickness of the material within a second predefined number of passes, the calculated second flow rate based on: the first predefined number of passes; an expected thickness of the wet material for one pass of the first predefined number of passes; the determined thickness of the wet material; and the first flow rate. a robot; a spray gun coupled to the robot and operable to spray a first predefined number of passes of a material onto a substrate at a first flow rate; a measurement device operable to measure one or more properties of the material sprayed onto the substrate while the material is wet; and an analyzer operable to: determine a thickness of the wet material based on the one or more measured properties; and calculate a second flow rate required to achieve a cured thickness of the material within a second predefined number of passes, the calculated second flow rate based on: the first predefined number of passes; an expected thickness of the wet material for one pass of the first predefined number of passes; the determined thickness of the wet material; and the first flow rate. determine a thickness of the wet material based on the one or more measured properties; and calculate a second flow rate required to achieve a cured thickness of the material within a second predefined number of passes, the calculated second flow rate based on: the first predefined number of passes; an expected thickness of the wet material for one pass of the first predefined number of passes; the determined thickness of the wet material; and the first flow rate. the first predefined number of passes; an expected thickness of the wet material for one pass of the first predefined number of passes; the determined thickness of the wet material; and the first flow rate.
Cooling structure for a cylinder head of an internal combustion engine with at least two exhaust valves (3, 4) and at least one intake valve (5, 6) - per cylinder, wherein at least one exhaust valve bridge is located between two adjacent exhaust valves (3, 4) and at least two intake-exhaust valve bridges (10, 11) are located each between an exhaust valve (3, 4) and an adjacent intake valve (5, 6), with preferably at least one intake valve bridge being located between two adjacent intake valves (5, 6), the cooling structure comprising a lower first cooling jacket adjacent to a fire deck and an upper second cooling jacket adjacent to an intermediate deck, the first and second cooling jackets being flow connected by at least one transfer opening (27, 31) of the intermediate deck, the first cooling jacket including at least one centre cooling chamber and an outer cooling chamber arrangement with at least one first outer cooling chamber, the outer cooling chamber and the centre cooling chamber being flow connected by at least one exhaust side first radial passage extending in a region of the exhaust valve bridge and by at least one second radial passage (20, 21), preferably comprising an annular cooling channel (22, 23) surrounding a valve seat of the exhaust valve (3, 4), wherein the first radial passage and the second radial passage (20, 21) are streamed hydraulically in parallel, wherein coolant may enter into the first cooling jacket through one or more coolant entrance opening(s), characterised in that the first outer cooling chamber is arranged on an exhaust side of the cylinder head, and the outer cooling chamber arrangement of the first cooling jacket further comprises at least one second outer cooling chamber, which is arranged on an intake side of the cylinder head and separated from the first outer cooling chamber by at least one flow restricting passage (50, 51), wherein the second outer cooling chamber is flow connected with the centre cooling chamber by at least one radial passage (24, 25, 26) extending in a region of the intake valve bridge and/or in a region of the intake-exhaust valve bridge (10, 11).
An implant comprising a freeze-dried porous layer, said freeze-dried porous layer being obtained by: a°) preparing an aqueous solution consisting of chitosan solubilized in water and acetic acid, the chitosan having a degree of acetylation of 2.5%, the aqueous solution having a pH of from 3.0 to 3.5, b°) pouring the aqueous solution onto a substrate, and c°) freeze-drying the aqueous solution to obtain the freeze-dried porous layer. a°) preparing an aqueous solution consisting of chitosan solubilized in water and acetic acid, the chitosan having a degree of acetylation of 2.5%, the aqueous solution having a pH of from 3.0 to 3.5, b°) pouring the aqueous solution onto a substrate, and c°) freeze-drying the aqueous solution to obtain the freeze-dried porous layer.
A drawer side wall having a fastening device for releasable and, preferably adjustable, fastening of a front panel to the drawer side wall, wherein a fitting is pre-assembled to the front panel, and wherein a spring-loaded catch member is arranged in the drawer side wall, the catch member, when the fitting and the catch member are engaged with one another, automatically pulls the fitting towards the drawer side wall, wherein a locking device is provided for the catch member, characterized in that the locking device is in the form of a clamping device.
A method for molding a plastic element comprising a body having a surface from which at least one rib extends, and an insert at least partially arranged against said surface and under said rib, the method comprising the following steps: - installing the insert against a wall of an injection cavity, said wall comprising at least one slit extending at least partially opposite at least one part of the insert, said slit being adapted to form the rib of the plastic element, and - injecting molding material into the injection cavity to create the body and the rib of the plastic element, characterized in that a support element is positioned in the slit, against the insert, to support said insert during the injection. - installing the insert against a wall of an injection cavity, said wall comprising at least one slit extending at least partially opposite at least one part of the insert, said slit being adapted to form the rib of the plastic element, and - injecting molding material into the injection cavity to create the body and the rib of the plastic element,
A device to be associated to an oven, said oven being provided with a cooking surface a front opening and a back wall opposite said opening, the device being adapted to drive food being cooked inside said oven between said opening and said back wall, the device comprising: at least two food supports, each a central axis; a driving mechanism with power supply means adapted to drive a revolution of said at least two food supports inside said oven along a closed loop over a plane, and a turning of each food support around its own axis; characterized in that said mechanism and said food supports are supported by an elongated framework adapted to inserted through said opening and to be laid on said cooking surface with a plane base, the framework extending between a first end to be arranged inside the oven, and a second end remaining out of the oven, said power supply means being arranged on said second outer end of the framework.
A handheld electronic device, comprising: a first casing having a front surface and a rear surface, a display screen being mounted on the front surface; a second casing pivoted to the rear surface of the first casing about a hinge section; and an image-capturing apparatus set up on the second casing for capturing an image, wherein the image-capturing apparatus is set up at a distance away from the hinge section between the first casing and the second casing, and the second casing is permitted to move between first and second positions, wherein at the first position, the second casing is received in an accommodation groove in the rear surface of the first casing, and at the second position, the second casing is located outside the first casing and the image-capturing apparatus and the display screen face a same direction, the handheld electronic device being characterized in that the groove has an opening through a top wall of the first casing, and the image-capturing apparatus extends through the opening when the second casing is located at the second position, and that the top wall of the first casing has an extension plate over the opening, and the second casing has a groove accommodating the extension plate when the second casing is at the second position. a first casing having a front surface and a rear surface, a display screen being mounted on the front surface; a second casing pivoted to the rear surface of the first casing about a hinge section; and an image-capturing apparatus set up on the second casing for capturing an image, wherein the image-capturing apparatus is set up at a distance away from the hinge section between the first casing and the second casing, and the second casing is permitted to move between first and second positions, wherein at the first position, the second casing is received in an accommodation groove in the rear surface of the first casing, and at the second position, the second casing is located outside the first casing and the image-capturing apparatus and the display screen face a same direction, the handheld electronic device being characterized in that the groove has an opening through a top wall of the first casing, and the image-capturing apparatus extends through the opening when the second casing is located at the second position, and that the top wall of the first casing has an extension plate over the opening, and the second casing has a groove accommodating the extension plate when the second casing is at the second position.
A method for handling behavior of a User Equipment, UE, in a wireless communication system supporting inter-band carrier aggregation, wherein said method comprises: receiving a first Time Division Duplex, TDD, configuration for a Primary Cell, PCell, and a second TDD configuration for a Secondary Cell, SCell, wherein the first and second TDD configurations are different; when a first sub frame in the PCell is a downlink sub frame based on the first TDD configuration and the corresponding sub frame in the SCell is an uplink sub frame based on the second TDD configuration, not allowing the UE to transmit any signal or channel on the SCell in the first sub frame, and allowing the UE to monitor a Physical Downlink Control Channel, PDCCH, on at least one of the PCell and the SCell in the first sub frame; and when a second sub frame in the PCell is an uplink sub frame based on the first TDD configuration and the corresponding sub frame in the SCell is a downlink sub frame based on the second TDD configuration, not allowing the UE to monitor any downlink PDCCH transmission on the SCell in the second sub frame, and allowing the UE to transmit a signal or channel on the PCell in the second sub frame; wherein the UE is not capable of simultaneous reception and transmission in the PCell and the SCell. receiving a first Time Division Duplex, TDD, configuration for a Primary Cell, PCell, and a second TDD configuration for a Secondary Cell, SCell, wherein the first and second TDD configurations are different; when a first sub frame in the PCell is a downlink sub frame based on the first TDD configuration and the corresponding sub frame in the SCell is an uplink sub frame based on the second TDD configuration, not allowing the UE to transmit any signal or channel on the SCell in the first sub frame, and allowing the UE to monitor a Physical Downlink Control Channel, PDCCH, on at least one of the PCell and the SCell in the first sub frame; and when a second sub frame in the PCell is an uplink sub frame based on the first TDD configuration and the corresponding sub frame in the SCell is a downlink sub frame based on the second TDD configuration, not allowing the UE to monitor any downlink PDCCH transmission on the SCell in the second sub frame, and allowing the UE to transmit a signal or channel on the PCell in the second sub frame; wherein the UE is not capable of simultaneous reception and transmission in the PCell and the SCell.
A curable composition comprising (a) at least one polyorganosiloxane, fluorinated polyorganosiloxane, or combination thereof comprising reactive silane functionality comprising at least two hydroxysilyl moieties; (b) at least one polyorganosiloxane, fluorinated polyorganosiloxane, or combination thereof comprising reactive silane functionality comprising at least two hydrosilyl moieties; and (c) at least one photoactivatable composition comprising at least one organoborate salt selected from tetraarylborate, triarylorganoborate, diaryldiorganoborate, and aryltriorganoborate salts (and combinations thereof) of at least one base selected from amidines, guanidines, phosphazenes, proazaphosphatranes, and combinations thereof; wherein at least one of said components (a) and (b) has an average reactive silane functionality of at least three. (a) at least one polyorganosiloxane, fluorinated polyorganosiloxane, or combination thereof comprising reactive silane functionality comprising at least two hydroxysilyl moieties; (b) at least one polyorganosiloxane, fluorinated polyorganosiloxane, or combination thereof comprising reactive silane functionality comprising at least two hydrosilyl moieties; and (c) at least one photoactivatable composition comprising at least one organoborate salt selected from tetraarylborate, triarylorganoborate, diaryldiorganoborate, and aryltriorganoborate salts (and combinations thereof) of at least one base selected from amidines, guanidines, phosphazenes, proazaphosphatranes, and combinations thereof;
A method (1400, 1500) for wireless communication, comprising: identifying (1405, 1505) a pilot signal and a payload to be transmitted in a first full symbol, the first full symbol including a first symbol cyclic prefix; formatting the pilot signal and the payload in the time domain into separate sub-symbols that are nested within the first full symbol with each sub-symbol including an associated sub-symbol cyclic prefix, wherein the formatting comprises: identifying a first cyclic prefix length for the first symbol cyclic prefix; identifying a sub-symbol cyclic prefix length as the first cyclic prefix length divided by a number of the separate sub-symbols; formatting the pilot signal in front of the payload to be transmitted; identifying a tail portion of the pilot signal having the sub-symbol cyclic prefix length as a payload sub-symbol cyclic prefix; appending a copy of the payload sub-symbol cyclic prefix to an end of the payload in the payload sub-symbol; identifying a payload sub-symbol tail portion having the first cyclic prefix length; and inserting a copy of the identified payload sub-symbol tail portion in front of the pilot signal sub-symbol; and transmitting the first full symbol, including the nested sub-symbols, to a receiver. identifying (1405, 1505) a pilot signal and a payload to be transmitted in a first full symbol, the first full symbol including a first symbol cyclic prefix; formatting the pilot signal and the payload in the time domain into separate sub-symbols that are nested within the first full symbol with each sub-symbol including an associated sub-symbol cyclic prefix, wherein the formatting comprises: identifying a first cyclic prefix length for the first symbol cyclic prefix; identifying a sub-symbol cyclic prefix length as the first cyclic prefix length divided by a number of the separate sub-symbols; formatting the pilot signal in front of the payload to be transmitted; identifying a tail portion of the pilot signal having the sub-symbol cyclic prefix length as a payload sub-symbol cyclic prefix; appending a copy of the payload sub-symbol cyclic prefix to an end of the payload in the payload sub-symbol; identifying a payload sub-symbol tail portion having the first cyclic prefix length; and inserting a copy of the identified payload sub-symbol tail portion in front of the pilot signal sub-symbol; and identifying a first cyclic prefix length for the first symbol cyclic prefix; identifying a sub-symbol cyclic prefix length as the first cyclic prefix length divided by a number of the separate sub-symbols; formatting the pilot signal in front of the payload to be transmitted; identifying a tail portion of the pilot signal having the sub-symbol cyclic prefix length as a payload sub-symbol cyclic prefix; appending a copy of the payload sub-symbol cyclic prefix to an end of the payload in the payload sub-symbol; identifying a payload sub-symbol tail portion having the first cyclic prefix length; and inserting a copy of the identified payload sub-symbol tail portion in front of the pilot signal sub-symbol; and transmitting the first full symbol, including the nested sub-symbols, to a receiver.
A switch assembly comprising a vacuum switch mounted to an at least partly electrically conductive housing, and comprising a vacuum bottle holder for holding a vacuum bottle of the vacuum switch, which vacuum bottle holder is connected to the housing, wherein the housing comprises at least one gas entry opening (134;142) at a lower end of the housing and at least one gas exit opening at an upper end of the housing, and that a first free heat convection path is provided inside the housing between the at least one gas entry opening (134;142) and the at least one gas exit opening, in order to provide cooling, and characterised in that the vacuum bottle holder comprises an upper end connected to the housing, a holder wall surrounding the vacuum bottle and a lower end, that the vacuum bottle holder further comprises at least one gas entry opening at the lower end thereof and at least one gas exit opening (132; 140) at the upper end thereof, and that a free space is provided between the vacuum bottle and the holder wall of the vacuum bottle holder such that a second free heat convection path is provided from the at least one gas entry opening of the vacuum bottle holder to the at least one gas exit opening (132; 140) of the vacuum bottle holder, via said free space, in order to provide cooling.
An aerosol source member comprising: a substrate portion that includes a substrate material configured to generate a primary inhalable substance upon the application of heat thereupon, the substrate portion defining an outer surface; and an overwrap material substantially surrounding the outer surface of the substrate portion, wherein the overwrap material comprises a plurality of layers, wherein at least one of the layers of the overwrap material contains an aerosol generating component, and wherein upon the application of heat thereupon, the overwrap material is configured to produce an initial inhalable substance prior to production of the primary inhalable substance from the substrate material or a secondary inhalable substance after production of the primary inhalable substance from the substrate material, wherein the overwrap material comprises a three layer laminate that includes an outer layer, an inner layer positioned proximate an outer surface of the substrate material, and an intermediate layer positioned between the outer layer and the inner layer, wherein the outer layer comprises a paper material, the intermediate layer comprises a foil material, and the inner layer comprises an aerosol generating material. a substrate portion that includes a substrate material configured to generate a primary inhalable substance upon the application of heat thereupon, the substrate portion defining an outer surface; and an overwrap material substantially surrounding the outer surface of the substrate portion, wherein the overwrap material comprises a plurality of layers, wherein at least one of the layers of the overwrap material contains an aerosol generating component, and wherein upon the application of heat thereupon, the overwrap material is configured to produce an initial inhalable substance prior to production of the primary inhalable substance from the substrate material or a secondary inhalable substance after production of the primary inhalable substance from the substrate material, wherein the overwrap material comprises a three layer laminate that includes an outer layer, an inner layer positioned proximate an outer surface of the substrate material, and an intermediate layer positioned between the outer layer and the inner layer, wherein the outer layer comprises a paper material, the intermediate layer comprises a foil material, and the inner layer comprises an aerosol generating material.