mhurhangee/ep-ind-claims huggingface dataset:
An artificial joint stem comprising: a base extending in a vertical direction when a proximal side of a human body in use is defined as an upward direction; a coating film on a part of the base, containing a calcium phosphate-based material and an antimicrobial material; and one or more boundary lines (1, 2) on the base defined by a presence or absence of the coating film, and comprising a first boundary line located on a lower side of the base with respect to the coating film, and that intersects the vertical direction, wherein a component along the vertical direction of the first boundary line is smaller than a component along a width direction of the base, characterized in that the artificial joint stem further comprising: a layer member having a rough surface located on a surface of the base: one or more boundary lines (3, 4) on the base defined by a presence or absence of the rough surface, and comprising a third boundary line that is located on a lower side of the base with respect to the rough surface, wherein the third boundary line is located farther on an upper side of the base than the first boundary line, and the coating film is formed as to straddle the third boundary line such that an edge of the layer member is covered with the coating film. a base extending in a vertical direction when a proximal side of a human body in use is defined as an upward direction; a coating film on a part of the base, containing a calcium phosphate-based material and an antimicrobial material; and one or more boundary lines (1, 2) on the base defined by a presence or absence of the coating film, and comprising a first boundary line located on a lower side of the base with respect to the coating film, and that intersects the vertical direction, wherein a component along the vertical direction of the first boundary line is smaller than a component along a width direction of the base, characterized in that the artificial joint stem further comprising: a layer member having a rough surface located on a surface of the base: one or more boundary lines (3, 4) on the base defined by a presence or absence of the rough surface, and comprising a third boundary line that is located on a lower side of the base with respect to the rough surface, wherein the third boundary line is located farther on an upper side of the base than the first boundary line, and the coating film is formed as to straddle the third boundary line such that an edge of the layer member is covered with the coating film. one or more boundary lines (3, 4) on the base defined by a presence or absence of the rough surface, and comprising a third boundary line that is located on a lower side of the base with respect to the rough surface, wherein the third boundary line is located farther on an upper side of the base than the first boundary line, and the coating film is formed as to straddle the third boundary line such that an edge of the layer member is covered with the coating film.
A sheet feeding device comprising: a sheet storing portion having a sheet stacking portion which stacks sheets thereon and can be lifted and lowered; a sheet feeding roller which is provided above the sheet stacking portion and feeds the sheets stacked on the sheet stacking portion; a supporting portion which supports the sheet feeding roller so that the sheet feeding roller is movable in an up-down direction; characterized in that a roller biasing member which biases the sheet feeding roller in a direction pressing the sheet feeding roller onto the sheets stacked on the sheet stacking portion; a separating member which is pressed onto the sheet feeding roller and separates the sheets fed by the sheet feeding roller one by one; and a guide portion which guides the sheets to a pressing portion between the sheet feeding roller and the separating member, wherein the guide portion is linearly lowered together with the separating member with the downward movement of the sheet feeding roller biased by the roller biasing member. a sheet storing portion having a sheet stacking portion which stacks sheets thereon and can be lifted and lowered; a sheet feeding roller which is provided above the sheet stacking portion and feeds the sheets stacked on the sheet stacking portion; a supporting portion which supports the sheet feeding roller so that the sheet feeding roller is movable in an up-down direction; characterized in that a roller biasing member which biases the sheet feeding roller in a direction pressing the sheet feeding roller onto the sheets stacked on the sheet stacking portion; a separating member which is pressed onto the sheet feeding roller and separates the sheets fed by the sheet feeding roller one by one; and a guide portion which guides the sheets to a pressing portion between the sheet feeding roller and the separating member, wherein the guide portion is linearly lowered together with the separating member with the downward movement of the sheet feeding roller biased by the roller biasing member.
Use of a refractory material by self-expanding to have a maximum expansion rate of 250% or higher when the refractory material is brought close to a heat source or comes into contact with flame, the refractory material at least comprising: discontinuous reinforcing fibers having a thermal conductivity of 4 W/(m·K) or higher; and a flame-retardant thermoplastic resin having a limiting oxygen index of from 30 to 95, wherein the discontinuous reinforcing fibers are dispersed in the refractory material, the refractory material after expansion has a porosity of 30% or higher, wherein the maximum expansion rate is determined according to the measurement method disclosed in the description, wherein the thermal conductivity of fiber is determined according to the measurement method disclosed in the description, wherein the limiting oxygen index is determined in accordance with JIS K 7201-2 as disclosed in the description, and wherein the porosity of the refractory material after expansion is determined according to the measurement method in accordance with JIS K 7075. the refractory material after expansion has a porosity of 30% or higher, wherein the maximum expansion rate is determined according to the measurement method disclosed in the description, wherein the thermal conductivity of fiber is determined according to the measurement method disclosed in the description, wherein the limiting oxygen index is determined in accordance with JIS K 7201-2 as disclosed in the description, and wherein the porosity of the refractory material after expansion is determined according to the measurement method in accordance with JIS K 7075.
A molten glass cutting apparatus, comprising: a pair of shear blades (30, 40) arranged below a spout storing molten glass (Gm) and above a funnel; and a control unit that controls a pair of the shear blades to relatively move toward each other, wherein: the control unit controls a pair of the shear blades to relatively move so that tip parts of a pair of the shear blades overlap, and shearing force by cutting edges (31a, 41a) of a pair of the shear blade cuts molten glass extruded from an orifice formed at a bottom part of the spout; and when a central part of molten glass at a predetermined position between being extruded from the orifice and reaching the funnel is offset with respect to a central axis (Lct) of the orifice, the control unit offsets a position of cutting by a pair of the cutting edges to a side of the central part with respect to the central axis. a pair of shear blades (30, 40) arranged below a spout storing molten glass (Gm) and above a funnel; and a control unit that controls a pair of the shear blades to relatively move toward each other, wherein: the control unit controls a pair of the shear blades to relatively move so that tip parts of a pair of the shear blades overlap, and shearing force by cutting edges (31a, 41a) of a pair of the shear blade cuts molten glass extruded from an orifice formed at a bottom part of the spout; and when a central part of molten glass at a predetermined position between being extruded from the orifice and reaching the funnel is offset with respect to a central axis (Lct) of the orifice, the control unit offsets a position of cutting by a pair of the cutting edges to a side of the central part with respect to the central axis.
A method for producing a component from a TiAl alloy with 42 to 45 at% Ti, 3.5 to 4.5 at% Nb, 0.75 to 1.5 at% Mo, 0.05 to 0.15 at% B, and the remainder aluminum and unavoidable impurities, wherein the component is formed by forging, in particular isothermal forging, and then subjected to at least one heat treatment, the temperature of a first heat treatment being between 1100 and 1200°C and being maintained for 6 to 10 hours, whereupon the component is cooled, characterized in that, in a second heat treatment, the component is heated to a temperature above the solvus line of γ-TiAl, and after the second heat treatment above the solvus line, the component is rapidly cooled by quenching in water or oil or by air cooling with a fan.
A bar dispensing system for the simultaneous drawing off of beer from a reservoir into a plurality of containers such as glasses, comprising a supply section with an adjacent distribution zone with a plurality of outlets, wherein the beer can be fed via the supply section into the distribution zone, and via the latter into the containers such as glasses, characterised in that the supply section is connected to the distribution zone such that when the supply section is partially filled the distribution zone can be completely filled with beer.
A compound represented by Formula I, its enantiomers, diastereoisomers or a pharmaceutically acceptable salt thereof, wherein: R 1 is substituted or unsubstituted C 1-10 alkyl, substituted or unsubstituted heterocycle, substituted or unsubstituted C 3-10 cycloalkyl, substituted or unsubstituted C 3-10 cycloalkenyl or substituted or unsubstituted C 6-10 aryl; R 2 is substituted or unsubstituted C 1-6 alkyl; R 3 is H, substituted or unsubstituted C 1-6 alkyl, halogen, substituted or unsubstituted - OC 1-3 alkyl, CN, NO 2, C 2-6 alkenyl, C 2-6 alkynyl, C R 6, NR 7 R 8 or hydroxyl; R 4 is H, substituted or unsubstituted C 1-6 alkyl, halogen, substituted or unsubstituted - OC 1-3 alkyl, CN, NO 2, C 2-6 alkenyl, C 2-6 alkynyl, C R 6, NR 7 R 8 or hydroxyl; R 5 is H, substituted or unsubstituted C 1-6 alkyl, halogen, substituted or unsubstituted - OC 1-3 alkyl, CN, NO 2, C 2-6 alkenyl, C 2-6 alkynyl, C R 6, NR 7 R 8 or hydroxyl; X is O, S or NH; R 6 is H or substituted or unsubstituted C 1-6 alkyl; R 7 is H or substituted or unsubstituted C 1-6 alkyl; R 8 is H or substituted or unsubstituted C 1-6 alkyl; with the proviso that the compound of Formula I does not have one of the following structures: R 1 is substituted or unsubstituted C 1-10 alkyl, substituted or unsubstituted heterocycle, substituted or unsubstituted C 3-10 cycloalkyl, substituted or unsubstituted C 3-10 cycloalkenyl or substituted or unsubstituted C 6-10 aryl; R 2 is substituted or unsubstituted C 1-6 alkyl; R 3 is H, substituted or unsubstituted C 1-6 alkyl, halogen, substituted or unsubstituted - OC 1-3 alkyl, CN, NO 2, C 2-6 alkenyl, C 2-6 alkynyl, C R 6, NR 7 R 8 or hydroxyl; R 4 is H, substituted or unsubstituted C 1-6 alkyl, halogen, substituted or unsubstituted - OC 1-3 alkyl, CN, NO 2, C 2-6 alkenyl, C 2-6 alkynyl, C R 6, NR 7 R 8 or hydroxyl; R 5 is H, substituted or unsubstituted C 1-6 alkyl, halogen, substituted or unsubstituted - OC 1-3 alkyl, CN, NO 2, C 2-6 alkenyl, C 2-6 alkynyl, C R 6, NR 7 R 8 or hydroxyl; X is O, S or NH; R 6 is H or substituted or unsubstituted C 1-6 alkyl; R 7 is H or substituted or unsubstituted C 1-6 alkyl; R 8 is H or substituted or unsubstituted C 1-6 alkyl;
An electrical control system for controlling the transmission of a plurality of variable transmission windows, said control system characterized in that it comprises: a master control circuit; a plurality of window control circuits provided for individual variable transmission windows and being enabled to communicate with said master control circuit, each window control circuit configured to control the transmission of at least one of the variable transmission windows; and one of a display and a light emitting diode coupled to at least one of said window control circuits, and configured to indicate a working status during normal operation. a master control circuit; a plurality of window control circuits provided for individual variable transmission windows and being enabled to communicate with said master control circuit, each window control circuit configured to control the transmission of at least one of the variable transmission windows; and one of a display and a light emitting diode coupled to at least one of said window control circuits, and configured to indicate a working status during normal operation.
A method performed by a transmitting node for handling transmissions to a receiving node in a first service and in a second service over a radio channel where feedback signaling is employed to indicate either an acknowledgement, ACK, or a non-acknowledgement, NACK, of correct reception of the transmissions, the method comprising: - adjusting a first Outer Loop Compensation, OLC, for the first service, based on feedback signaling from the receiving node for the transmissions in the first service, by increasing the first OLC with a first adding value ΔOLC+1 when an ACK is received and reducing the first OLC with a first reducing value ΔOLC-1 when a NACK is received, - performing a first link adaptation of the radio channel for transmissions in the first service based on an actual Signal-to-Noise Ratio, SNR, of signals in the first service and the adjusted first OLC, - performing transmissions in the first service over the radio channel using the first link adaptation, - repeating a subset of the transmissions in the first service, - adjusting a second OLC for the second service before the second service becomes active, based on feedback signaling from the receiving node for said repeated subset of transmissions, by increasing the second OLC with a second adding value ΔOLC+2 when an ACK is received and reducing the second OLC with a second reducing value ΔOLC-2 when a NACK is received, - performing a second link adaptation of the radio channel for transmissions in the second service based on said actual SNR and the adjusted second OLC, and - performing transmissions in the second service over the radio channel using the second link adaptation, once the second service becomes active. - adjusting a first Outer Loop Compensation, OLC, for the first service, based on feedback signaling from the receiving node for the transmissions in the first service, by increasing the first OLC with a first adding value ΔOLC+1 when an ACK is received and reducing the first OLC with a first reducing value ΔOLC-1 when a NACK is received, - performing a first link adaptation of the radio channel for transmissions in the first service based on an actual Signal-to-Noise Ratio, SNR, of signals in the first service and the adjusted first OLC, - performing transmissions in the first service over the radio channel using the first link adaptation, - repeating a subset of the transmissions in the first service, - adjusting a second OLC for the second service before the second service becomes active, based on feedback signaling from the receiving node for said repeated subset of transmissions, by increasing the second OLC with a second adding value ΔOLC+2 when an ACK is received and reducing the second OLC with a second reducing value ΔOLC-2 when a NACK is received, - performing a second link adaptation of the radio channel for transmissions in the second service based on said actual SNR and the adjusted second OLC, and - performing transmissions in the second service over the radio channel using the second link adaptation, once the second service becomes active.
Fluid conduit element, having a body for through-flow which has a through-passage and on which is mounted a measuring-device receptacle, and having a measuring device, arranged in the measuring-device receptacle, which has a sensor unit by which at least one measured value associated with a fluid flowing through the through-passage can be measured, the measuring device receptacle having a support platform which has a receiving opening, there being an insert sleeve, having a sampling passage, which is arranged in the receiving opening and which opens into the through-passage at a fluid end, there being a sealing unit (21, 22, 23) by which the insert sleeve can be sealed against the measuring-device receptacle, and the sensor unit being connected with a fluid-tight seal to the sensor end of the insert sleeve, which is remote from the fluid end thereof, characterised in that there are formed on the support platform L-shaped supporting ribs (13, 14, 15, 16) on which the sensor unit rests, in that the measuring-device receptacle is formed to have an outer wall and an inner wall which define a receiving groove and has a top-mounted part which is formed to have a descending wall which descends into the receiving groove, in that the top-mounted part is formed to have walls for abutment (30, 31) which rest on the sensor unit, and in that the top-mounted part is connected to the body for through-flow by means of a latching arrangement having a plurality of locking noses (40, 41).
A method comprising, at a mobile terminal: communicating with a serving base station over broadcast or multicast; receiving a first broadcast or multicast signal from the serving base station; determining an indication of the length of a first cyclic prefix of the first broadcast or multicast signal; the method characterised by: receiving a second signal from a second base station, determining an indication of the length of a second cyclic prefix of the second signal, and where the mobile terminal determines that the lengths of the first and second cyclic prefixes are different, initiating a switch in communication between the mobile terminal and the serving base station to unicast. communicating with a serving base station over broadcast or multicast; receiving a first broadcast or multicast signal from the serving base station; determining an indication of the length of a first cyclic prefix of the first broadcast or multicast signal; the method characterised by: receiving a second signal from a second base station, determining an indication of the length of a second cyclic prefix of the second signal, and where the mobile terminal determines that the lengths of the first and second cyclic prefixes are different, initiating a switch in communication between the mobile terminal and the serving base station to unicast. receiving a second signal from a second base station, determining an indication of the length of a second cyclic prefix of the second signal, and where the mobile terminal determines that the lengths of the first and second cyclic prefixes are different, initiating a switch in communication between the mobile terminal and the serving base station to unicast.
A material provision device having a trough for a stereolithography apparatus to provide embossing material to be cured, especially a photopolymer, wherein the trough is otherwise able to be moved into and out of the material provision device, wherein the material provision device comprises a material cartridge which receives the embossing material enclosing it on all sides, and in that the material cartridge comprises an outlet through which the embossing material is dispensable and which is provided in a connection or a spout in the material provision device and is supported at least partially thereon or therein or seals against it, and wherein the outlet projects into the movable trough, which is completely retractable into the material provision device and/or is movably mounted therein. wherein the material provision device comprises a material cartridge which receives the embossing material enclosing it on all sides, and in that the material cartridge comprises an outlet through which the embossing material is dispensable and which is provided in a connection or a spout in the material provision device and is supported at least partially thereon or therein or seals against it, and wherein the outlet projects into the movable trough, which is completely retractable into the material provision device and/or is movably mounted therein.
A method for configuring a constellation of moving satellites to implement communication in transparent mode between at least two ground stations (14, 16) via said constellation of satellites, the configuration method comprising the following steps: - determining a geographical area to be covered in transparent mode, said geographical area to be covered comprising said ground stations (14, 16); - forming and communicating configuration data to the satellites of the constellation in order to switch into transparent mode a payload of each satellite (20-1,..., 20-N) covering said geographical area to be covered, the configuration data comprising a definition of said geographical area to be covered and a definition of at least one radio frequency sub-band to be transmitted in transparent mode within said geographical area to be covered; the payload of each satellite (20-1,..., 20-N) in transparent mode being able to retransmit signals of the corresponding radio frequency sub-band received from a ground transmitting station via a radio frequency link to the payload of an adjacent satellite (20-1,..., 20-N) via an optical link, the adjacent satellite (20-1,..., 20-N) covering the same geographical area to be covered as said satellite (20-1,..., 20-N) in transparent mode. - determining a geographical area to be covered in transparent mode, said geographical area to be covered comprising said ground stations (14, 16); - forming and communicating configuration data to the satellites of the constellation in order to switch into transparent mode a payload of each satellite (20-1,..., 20-N) covering said geographical area to be covered, the configuration data comprising a definition of said geographical area to be covered and a definition of at least one radio frequency sub-band to be transmitted in transparent mode within said geographical area to be covered;
A method comprising: a) providing a semiconductor substrate comprising a PN junction, an anti-reflective coating on a front side and an electrode comprising aluminum on a back side of the semiconductor substrate having the PN junction; b) selectively applying a hot melt etch resist to the anti-reflective coating on the semiconductor substrate with the PN junction; c) applying an etchant to exposed portions of the anti-reflective coating of the semiconductor substrate with the PN junction to remove the exposed portions of the anti-reflective coating and selectively exposing the front side of the semiconductor substrate with the PN junction; and d) applying a stripping composition comprising potassium carbonate and potassium silicate to the semiconductor substrate with the PN junction to remove the hot melt etch resist from the anti-reflective coating. a) providing a semiconductor substrate comprising a PN junction, an anti-reflective coating on a front side and an electrode comprising aluminum on a back side of the semiconductor substrate having the PN junction; b) selectively applying a hot melt etch resist to the anti-reflective coating on the semiconductor substrate with the PN junction; c) applying an etchant to exposed portions of the anti-reflective coating of the semiconductor substrate with the PN junction to remove the exposed portions of the anti-reflective coating and selectively exposing the front side of the semiconductor substrate with the PN junction; and d) applying a stripping composition comprising potassium carbonate and potassium silicate to the semiconductor substrate with the PN junction to remove the hot melt etch resist from the anti-reflective coating.