mhurhangee/ep-ind-claims huggingface dataset:
A method of producing porous silica-carbon composites, the method comprising steps of: mixing fine particulate carbon dispersed in water by a surfactant, alkali metal silicate aqueous solution, and mineral acid so as to produce a co-dispersion in which silica hydrosol, produced by reaction of the alkali metal silicate and the mineral acid, and the fine particulate carbon are uniformly dispersed: and gelling the silica hydrosol, contained in the co-dispersion, and making the co-dispersion into porous bodies having specific surface area from 20 to 1000 m2/g, pore volume from 0.3 to 2.0 ml/g, and average pore diameter from 2 to 100 nm, wherein the porous silica-carbon composites have a carbon content of 1 to 50%. mixing fine particulate carbon dispersed in water by a surfactant, alkali metal silicate aqueous solution, and mineral acid so as to produce a co-dispersion in which silica hydrosol, produced by reaction of the alkali metal silicate and the mineral acid, and the fine particulate carbon are uniformly dispersed: and gelling the silica hydrosol, contained in the co-dispersion, and making the co-dispersion into porous bodies having specific surface area from 20 to 1000 m2/g, pore volume from 0.3 to 2.0 ml/g, and average pore diameter from 2 to 100 nm, wherein the porous silica-carbon composites have a carbon content of 1 to 50%.
A roller shutter arrangement comprising a door leaf in the form of a casing of door leaf elements such as slats or sections (21; 21"; 21''') which are connected with each other in a manner adapted to be angled and which are each guided in lateral guides by means of guide rollers (23a, 23b; 23c"; 23c'''), wherein the door leaf is motor-driven by a drive and is movable to and fro between an open position and a closed position, wherein the lateral guides each comprise an end portion in which the door leaf is accommodated in the closed position for closing a door opening and a storage portion in which the door leaf is accommodated in the open position, wherein the end portion and the storage portion are angled with respect to each other and are connected with each other via a transition portion of the guides, and wherein the transition portion of the guides provides at least two respective guide lines (423, 424; 424'; 424"; 424''') on which predetermined guide rollers roll, characterized in that here the guide length (425; 425'; 425"; 425''') between two guide rollers corresponds substantially to a partition defined by a breadth of a door leaf element or to an integer multiple thereof.
A method for configuring a controlling device to command functional operations of an intended target appliance (102, 104, 106, 108), comprising: creating on a user interface editing device a graphical user interface for the controlling device whereupon the created graphical user interface is comprised of user interface elements that are associated with functional operations of a generic virtual device; transferring the created graphical user interface to the controlling device from the user interface editing device; and at the controlling device causing the transferred generic virtual device to be linked to the intended target appliance (102, 104, 106, 108) whereupon activation of those user interface elements of the graphical user interface that were associated with functional operations of the generic virtual device will cause the controlling device to transmit commands to control corresponding functional operations of the intended target appliance (102, 104, 106, 108). creating on a user interface editing device a graphical user interface for the controlling device whereupon the created graphical user interface is comprised of user interface elements that are associated with functional operations of a generic virtual device; transferring the created graphical user interface to the controlling device from the user interface editing device; and at the controlling device causing the transferred generic virtual device to be linked to the intended target appliance (102, 104, 106, 108) whereupon activation of those user interface elements of the graphical user interface that were associated with functional operations of the generic virtual device will cause the controlling device to transmit commands to control corresponding functional operations of the intended target appliance (102, 104, 106, 108).
A punching/perforating machine for generating a predefinable punching/perforation pattern in a material unit supplied in a transport direction, comprising - a punching/perforation tool having -- a tool upper part (12.1), which is movable in a stroke direction and which has a plurality of stamping punches/perforating needles which are arranged in a predefined grid in a transverse direction and which are movable by means of a pressure beam which is operatively connected via a control device to a drive unit for generating a punching/perforation stroke, and -- a stationary tool lower part (12.2)/female die, - wherein the material unit is supplied between the tool upper part (12.1) and the tool lower part (12.2), - characterized in that - the material unit is arranged or clamped in a frame apparatus, - the punching/perforating machine comprises a frame accommodation/connection device for accommodation/for connection of the frame apparatus, - wherein the frame apparatus with material unit is supplied between the tool upper part (12.1) and the tool lower part (12.2) for perforation/punching of the material unit. - a punching/perforation tool having -- a tool upper part (12.1), which is movable in a stroke direction and which has a plurality of stamping punches/perforating needles which are arranged in a predefined grid in a transverse direction and which are movable by means of a pressure beam which is operatively connected via a control device to a drive unit for generating a punching/perforation stroke, and -- a stationary tool lower part (12.2)/female die, -- a tool upper part (12.1), which is movable in a stroke direction and which has a plurality of stamping punches/perforating needles which are arranged in a predefined grid in a transverse direction and which are movable by means of a pressure beam which is operatively connected via a control device to a drive unit for generating a punching/perforation stroke, and -- a stationary tool lower part (12.2)/female die, - wherein the material unit is supplied between the tool upper part (12.1) and the tool lower part (12.2), - characterized in that - the material unit is arranged or clamped in a frame apparatus, - the punching/perforating machine comprises a frame accommodation/connection device for accommodation/for connection of the frame apparatus, - wherein the frame apparatus with material unit is supplied between the tool upper part (12.1) and the tool lower part (12.2) for perforation/punching of the material unit.
Iron ore pellets, comprising: a core comprising iron ore; a first coating comprising lime, bauxite, or a combination thereof; and a second coating comprising cement, wherein the first coating is disposed between a surface of the core and the second coating. a core comprising iron ore; a first coating comprising lime, bauxite, or a combination thereof; and a second coating comprising cement, wherein the first coating is disposed between a surface of the core and the second coating.
A transparent substrate with a laminated film, which comprises a transparent substrate and a laminated film formed on at least one surface of the transparent substrate, wherein the laminated film has a first dielectric layer, a crystallinity-improving layer, a functional layer and a second dielectric layer in this order from the transparent substrate side, the crystallinity-improving layer contains ZrN x, wherein x is higher than 1.2 and at most 2.0, the functional layer contains at least one metal nitride selected from the group consisting of titanium nitride, chromium nitride, niobium nitride, molybdenum nitride and hafnium nitride, the concentration of oxygen atoms at a boundary between the crystallinity-improving layer and the functional layer, is at most 20 atom%, the functional layer is formed directly on and in contact with the crystallinity-improving layer, and the transparent substrate is a glass plate.
A physiological sensing device for the measurement of pCO 2, the device comprising: (i) a closed chamber bounded, at least partially, by a carbon dioxide permeable membrane; and (ii) at least two electrodes within said chamber, wherein said chamber contains a substantially electrolyte-free liquid in contact with the electrodes and the membrane; characterized in that the liquid comprises at least one metal or metalloid ion. (i) a closed chamber bounded, at least partially, by a carbon dioxide permeable membrane; and (ii) at least two electrodes within said chamber, wherein said chamber contains a substantially electrolyte-free liquid in contact with the electrodes and the membrane; characterized in that the liquid comprises at least one metal or metalloid ion.
A composition consisting of a seaweed extract in an amount of 60-90 % by weight, a water-soluble cellulose derivative in an amount of 10-40 % by weight and water in an amount of 1-20 % by weight, of the total weight of the composition.
Two-layer multi-strand cord (50; 50'; 50"; 51; 52; 53; 54; 55; 56; 57; 58; 59), comprising: - an internal layer of the cord made up of K > 1 internal strands wound in a helix, each internal strand being an at least two-layer (C1, C3) strand and comprising: • an internal layer made up of Q internal thread(s), and • an external layer made up of N external threads wound around the internal layer, - an external layer of the cord made up of L > 1 external strands wound around the internal layer of the cord, each external strand being a three-layer (C1', C2', C3') strand and comprising: • an internal layer (C1') made up of Q'=1 internal thread (F1'), • an intermediate layer (C2') made up of M' intermediate threads (F2') wound around the internal layer (C1') with a pitch p2', and • an external layer (C3') made up of N' external threads (F3') wound around the intermediate layer (C2') with a pitch p3', wherein: - the intermediate layer (C2') of each external strand is desaturated; - the external layer (C3') of each external strand is desaturated; - the mean inter-strand distance E separating two adjacent external strands is greater than or equal to 70 μm; characterized in that: - the pitches p2' and p3' satisfy the relationship: 0.36 ≤ p 3 ' − p 2 ' / p 3 ' ≤ 0.57 and the inter-thread distance in the intermediate layer of each external strand is greater than or equal to 50 μm. - an internal layer of the cord made up of K > 1 internal strands wound in a helix, each internal strand being an at least two-layer (C1, C3) strand and comprising: • an internal layer made up of Q internal thread(s), and • an external layer made up of N external threads wound around the internal layer, • an internal layer made up of Q internal thread(s), and • an external layer made up of N external threads wound around the internal layer, - an external layer of the cord made up of L > 1 external strands wound around the internal layer of the cord, each external strand being a three-layer (C1', C2', C3') strand and comprising: • an internal layer (C1') made up of Q'=1 internal thread (F1'), • an intermediate layer (C2') made up of M' intermediate threads (F2') wound around the internal layer (C1') with a pitch p2', and • an external layer (C3') made up of N' external threads (F3') wound around the intermediate layer (C2') with a pitch p3', • an internal layer (C1') made up of Q'=1 internal thread (F1'), • an intermediate layer (C2') made up of M' intermediate threads (F2') wound around the internal layer (C1') with a pitch p2', and • an external layer (C3') made up of N' external threads (F3') wound around the intermediate layer (C2') with a pitch p3', - the intermediate layer (C2') of each external strand is desaturated; - the external layer (C3') of each external strand is desaturated; - the mean inter-strand distance E separating two adjacent external strands is greater than or equal to 70 μm; - the pitches p2' and p3' satisfy the relationship: 0.36 ≤ p 3 ' − p 2 ' / p 3 ' ≤ 0.57 and
A saddle type vehicle comprising, supported for rocking motion on a vehicle body frame, a power unit including an OHC type internal combustion engine and a belt-type continuously variable transmission; the OHC type internal combustion engine having a cylinder axial line (Cc) tilted forward greatly and being provided therein with a plurality of rocker arms (57, 58) arrayed and supported for rocking motion in a mutually neighboring relationship on a rocker arm shaft and operable in an interlocking relationship with engine valves (61, 62); a connection pin fitted for movement in an axial direction of the rocker arm shaft in the rocker arms (57, 58) positioned adjacent each other being provided to be movable between a connection position at which the connection pin connects the rocker arms (57, 58) positioned adjacent each other to each other for integral rocking motion and a disconnection position at which the connection pin disconnects the rocker arms (57, 58) from each other to allow independent rocking motion of each of the rocker arms (57, 58); a pressing force transmission member (74, 76) being provided which transmits pressing force of a pressing force generation source disposed outside the OHC type internal combustion engine to the connection pin to move the connection pin in the vehicle widthwise direction, wherein the OHC type internal combustion engine has side walls (100L, 100R) directed in the vehicle widthwise direction and side walls (100U, 100S) directed in the vertical direction, the side walls together assuming a rectangular tubular shape, the pressing force generation source is attached to one of the side walls (100L, 100R) directed in the vehicle widthwise direction, and part of the vehicle body frame is provided on an outer side of the pressing force generation source in the vehicle widthwise direction, wherein the vehicle body frame includes a head pipe, a down tube extending downwardly from the head pipe, and a pair of left and right floor pipes extending rearwardly below a floor section, which is disposed between a vehicle body front section and a vehicle body rear section, from the down tube, rising obliquely upwardly at a rear portion of the floor section and extending rearwardly, and the pressing force generation source is located forwardly of those rear portions of the floor pipes which rise obliquely upwardly and extend rearwardly, as viewed in side view, wherein the vehicle body rear section including the pressing force generation source is covered from left and right sides with a body cover.
A method for performing closed-loop or open-loop control of a semi-active damper apparatus of a motor vehicle, in particular utility vehicle, comprising the steps: determining a load acting on the damper apparatus and therefore on the vehicle; if the determined load is less than or equal to a predetermined load threshold, setting or maintaining a first damper characteristic; and if the determined load exceeds the predetermined load threshold, maintaining the set first damper characteristic for the duration of a delay time and setting a second damper characteristic, which is relatively hard for a driver of the motor vehicle compared to the first setting of the damper apparatus, after the expiry of the delay time if the load acting on the damper apparatus has not dropped back to below the predetermined load threshold during the delay time (S4-S6). determining a load acting on the damper apparatus and therefore on the vehicle; if the determined load is less than or equal to a predetermined load threshold, setting or maintaining a first damper characteristic; and if the determined load exceeds the predetermined load threshold, maintaining the set first damper characteristic for the duration of a delay time and setting a second damper characteristic, which is relatively hard for a driver of the motor vehicle compared to the first setting of the damper apparatus, after the expiry of the delay time if the load acting on the damper apparatus has not dropped back to below the predetermined load threshold during the delay time (S4-S6).
Household appliance having an assemblable exterior housing, characterised in that the exterior housing comprises a first plate-shaped exterior wall with a folding section, in which a projecting bridge section is formed, and a second plate-shaped exterior wall with a tab for insertion below the bridge section.
A pilot stage for a jet type servo-valve, the pilot stage comprising an ejector (20; 120) for ejecting a jet of fluid and that is movable facing a deflector (6; 106) suitable for generating a pressure difference that can be used for moving a spool of the servo-valve, and wherein the ejector (20; 120) extends radially projecting from a column (21; 121), the column (21; 121) has a first end that can be embedded in the servo-valve (23; 123) and through which the fluid is introduced into the column (21; 121), and the column (21; 121) has a second end (24; 124) that is subjected to drive from a torque motor (26; 126) for selectively twisting the column (21; 121) in one direction or the other about a rest position, the stage being characterized in that the column (21; 121) is a single piece, the ejector (20; 120) being fastened at the end of a tube that extends radially from the column (21; 121) and being in fluid-flow communication with a central bore (22; 122) of the column (21; 121) through which the ejector (20; 120) is fed with fluid.
A method of determining a weather condition in an environment around a vehicle operating in an autonomous driving mode along a roadway, the method comprising: receiving, by one or more processors of the vehicle, sensor data of the environment around the vehicle from one or more sensors of the vehicle; causing, by the one or more processors, a subsystem of the vehicle to actuate one or more components of the subsystem during operation in the autonomous driving mode; obtaining pose information comprising position and orientation of the vehicle during the actuation of the one or more components of the subsystem; determining, by one or more processors of the vehicle, an actual pose of the vehicle along the roadway according to the obtained pose information; comparing, by the one or more processors, the actual pose of the vehicle with an expected pose of the vehicle along the roadway; determining, by the one or more processors, a difference between the actual pose and the expected pose based on the comparison; determining, according to the difference between the actual pose and the expected pose, that the difference indicates the presence of an adverse weather condition in the environment around the vehicle, wherein the adverse weather condition is that a region of a roadway on which the vehicle is operating is icy, wet or at least partially covered in snow; and performing an action in response to determining that the difference indicates the presence of the adverse weather condition in the environment around the vehicle. receiving, by one or more processors of the vehicle, sensor data of the environment around the vehicle from one or more sensors of the vehicle; causing, by the one or more processors, a subsystem of the vehicle to actuate one or more components of the subsystem during operation in the autonomous driving mode; obtaining pose information comprising position and orientation of the vehicle during the actuation of the one or more components of the subsystem; determining, by one or more processors of the vehicle, an actual pose of the vehicle along the roadway according to the obtained pose information; comparing, by the one or more processors, the actual pose of the vehicle with an expected pose of the vehicle along the roadway; determining, by the one or more processors, a difference between the actual pose and the expected pose based on the comparison; determining, according to the difference between the actual pose and the expected pose, that the difference indicates the presence of an adverse weather condition in the environment around the vehicle, wherein the adverse weather condition is that a region of a roadway on which the vehicle is operating is icy, wet or at least partially covered in snow; and performing an action in response to determining that the difference indicates the presence of the adverse weather condition in the environment around the vehicle.
A method for a User Equipment, UE, operating in a wireless communication system, the method comprising: configuring a Contention Based uplink, CB UL, grant, wherein the configured CB UL grant is a grant configured to the UE with an opportunity to send UL packets without requiring the UE to send a scheduling request; transmitting a physical uplink shared channel, PUSCH, on the configured CB UL grant; starting a timer associated with the configured CB UL grant when the UE transmits the PUSCH on the configured CB UL grant; determining whether a hybrid automatic repeat request, HARQ, feedback associated with the PUSCH is received while the timer is running; stopping the timer based on a determination that the HARQ feedback is received while the timer is running; and when the UE decides that the transmission of the PUSCH is negative acknowledged based on a determination that the HARQ feedback has not been received until the timer expires, retransmitting the PUSCH on the configured CB UL grant, wherein a value of the timer is configured via a radio resource control, RRC, message per configured CB UL grant, and wherein the HARQ feedback including an Acknowledgement, ACK, indication is received through a physical downlink control channel, PDCCH, masked by a CB-Radio Network Temporary Identifier, RNTI, wherein there is a one-to-one mapping relationship between the CB-RNTI and the configured CB UL grant, wherein the configured CB UL grant is related to a resource that is shared with two or more UEs. configuring a Contention Based uplink, CB UL, grant, wherein the configured CB UL grant is a grant configured to the UE with an opportunity to send UL packets without requiring the UE to send a scheduling request; transmitting a physical uplink shared channel, PUSCH, on the configured CB UL grant; starting a timer associated with the configured CB UL grant when the UE transmits the PUSCH on the configured CB UL grant; determining whether a hybrid automatic repeat request, HARQ, feedback associated with the PUSCH is received while the timer is running; stopping the timer based on a determination that the HARQ feedback is received while the timer is running; and when the UE decides that the transmission of the PUSCH is negative acknowledged based on a determination that the HARQ feedback has not been received until the timer expires, retransmitting the PUSCH on the configured CB UL grant, wherein a value of the timer is configured via a radio resource control, RRC, message per configured CB UL grant, and wherein the HARQ feedback including an Acknowledgement, ACK, indication is received through a physical downlink control channel, PDCCH, masked by a CB-Radio Network Temporary Identifier, RNTI, wherein there is a one-to-one mapping relationship between the CB-RNTI and the configured CB UL grant, wherein the configured CB UL grant is related to a resource that is shared with two or more UEs.