mhurhangee/ep-ind-claims huggingface dataset:
A dual-clutch assembly for a dual-clutch transmission, having an input shaft, a first friction clutch, a second friction clutch, a first output shaft, a second output shaft, a first piston/cylinder assembly, and a second piston/cylinder assembly; wherein input elements (28, 38) of the friction clutches (24, 26) are connected to the input shaft; wherein output elements (30, 40) of the friction clutches (24, 26) are each connected to one of the two output shafts (32, 42); wherein the friction clutches (24, 26) can each be actuated by means of one of the piston/cylinder assemblies (60, 62); and wherein each piston/cylinder assembly (60, 62) has a piston (64, 76), which is supported so as to be axially movable in relation to an associated cylinder (66, 78); wherein each cylinder (66, 78) is supported on a support (68, 80) on the side facing away from the piston (64, 76) in a region lying radially outside; and wherein each cylinder (66, 78) is spaced apart from the support (68, 80) on the side facing away from the piston (64, 76) in a region lying radially inside, characterized in that each support (68, 80) is arched away from the associated cylinder (66, 78) along the axial alignment of said support, at least in some region or regions.
A construction unit, comprising: a main body formed from a flexible material, the main body having a first side and a second side; the main body having a plurality of free end areas, each free end area having a free edge; and a plurality of magnetic connectors attached to the main body, one of the magnetic connectors being disposed in one of the free end areas of the main body, the one of the magnetic connectors being circumscribed by an entirety of the flexible material of the free end area and spaced apart from the free edge of the free end area, wherein the one of the magnetic connectors has a total thickness, the total thickness of the one of the magnetic connectors being greater than a maximum thickness of the main body; characterised in that the main body has a hub, a plurality of arms disposed on the hub, and each free end area is disposed at an end of each arm opposite the hub; the maximum thickness of the main body is between 0.1 millimeter and 5 millimeters; and a minimum width across each arm of the main body is less than a width across the respective free end area along an axis of that free end area which passes through a centre of the magnetic connector therein. a main body formed from a flexible material, the main body having a first side and a second side; the main body having a plurality of free end areas, each free end area having a free edge; and a plurality of magnetic connectors attached to the main body, one of the magnetic connectors being disposed in one of the free end areas of the main body, the one of the magnetic connectors being circumscribed by an entirety of the flexible material of the free end area and spaced apart from the free edge of the free end area, wherein the one of the magnetic connectors has a total thickness, the total thickness of the one of the magnetic connectors being greater than a maximum thickness of the main body; characterised in that the main body has a hub, a plurality of arms disposed on the hub, and each free end area is disposed at an end of each arm opposite the hub; the maximum thickness of the main body is between 0.1 millimeter and 5 millimeters; and a minimum width across each arm of the main body is less than a width across the respective free end area along an axis of that free end area which passes through a centre of the magnetic connector therein.
A method for controlling different parts of a terminal that are able to communicate over at least a first radio access technology protocol and a second radio access technology protocol, where said first and second radio access technology protocols are different and wherein said method includes the steps of: - detecting in logical parts that operate a first radio access technology protocol that at least parts of a second radio access technology protocol should be activated or deactivated; - transmitting an indication from logical parts that operate a first radio access technology protocol to logical parts that operate a second radio access technology protocol where said indication is an input to said logical parts that operate the second radio access technology protocol to activate or deactivate parts of second radio access technology protocol; characterized in that wherein detecting in the logical parts that operates the first radio access technology protocol that at least parts of the second radio access technology protocol should be activated or deactivated includes receiving a request for transmitting such an indication from the network node of said first radio access technology protocol. - detecting in logical parts that operate a first radio access technology protocol that at least parts of a second radio access technology protocol should be activated or deactivated; - transmitting an indication from logical parts that operate a first radio access technology protocol to logical parts that operate a second radio access technology protocol where said indication is an input to said logical parts that operate the second radio access technology protocol to activate or deactivate parts of second radio access technology protocol; characterized in that wherein detecting in the logical parts that operates the first radio access technology protocol that at least parts of the second radio access technology protocol should be activated or deactivated includes receiving a request for transmitting such an indication from the network node of said first radio access technology protocol.
Electrosurgical device with a socket insert for an electrosurgical device, wherein the socket insert comprises: - a front plate, which has at least one plug opening, - first and second side walls (12, 13), which are connected to the front plate and bound a receiving space for electronic components, and - at least one latching means, which is connected to the first side wall and can be transferred from a locking position into an unlocking position, wherein at least the first side wall has a guide channel, which forms an access opening in the front plate and through which the latching means can be actuated for unlocking, wherein an axially displaceable actuating rod is arranged in the guide channel, and wherein a first end of the actuating rod is designed for unlocking the latching means and can be moved out of the guide channel. - a front plate, which has at least one plug opening, - first and second side walls (12, 13), which are connected to the front plate and bound a receiving space for electronic components, and - at least one latching means, which is connected to the first side wall and can be transferred from a locking position into an unlocking position,
A method of controlling fluid discharge from an applicator head for a fluid, said method characterized by comprising the steps of: - supplying a primary discharge signal for controlling the applicator head, - analysing only the primary discharge signal for a recurrent pattern, - transforming the primary discharge signal into a secondary discharge signal when a recurrent pattern has been detected, and - supplying the secondary discharge signal to the applicator head, wherein the secondary discharge signal has a plurality of successive, spaced-apart signal portions which are each determined as part of the length of the primary signal, preferably as a percentual part, and whose total length is less than the length of the primary signal. - supplying a primary discharge signal for controlling the applicator head, - analysing only the primary discharge signal for a recurrent pattern, - transforming the primary discharge signal into a secondary discharge signal when a recurrent pattern has been detected, and - supplying the secondary discharge signal to the applicator head, wherein the secondary discharge signal has a plurality of successive, spaced-apart signal portions which are each determined as part of the length of the primary signal, preferably as a percentual part, and whose total length is less than the length of the primary signal.
A wireless patient monitoring system comprising: one or more optical sensors configured to obtain physiological information; and a wireless monitor (902, 1202) configured to receive the physiological information and to wirelessly transmit physiological data reflective of the physiological information to a bedside monitor (916, 1216), wherein the wireless monitor (902, 1202) comprises a removable battery (904, 1204), the removable battery (904, 1204) including a data storage component, wherein when connected to the bedside monitor (916, 1216), the removable battery (904, 1204) is configured to receive, from the bedside monitor (916, 1216), wireless communication information for the wireless monitor (902, 1202) to wirelessly communicate with the bedside monitor (916, 1216), and wherein when the removable battery (904, 1204) is disconnected from the bedside monitor (916, 1216) and connected to the wireless monitor (902, 1202), the removable battery (904, 1204) is configured to transfer the wireless communication information received from the bedside monitor (916, 1216) to the wireless monitor (902, 1202). one or more optical sensors configured to obtain physiological information; and a wireless monitor (902, 1202) configured to receive the physiological information and to wirelessly transmit physiological data reflective of the physiological information to a bedside monitor (916, 1216), wherein the wireless monitor (902, 1202) comprises a removable battery (904, 1204), the removable battery (904, 1204) including a data storage component, wherein when connected to the bedside monitor (916, 1216), the removable battery (904, 1204) is configured to receive, from the bedside monitor (916, 1216), wireless communication information for the wireless monitor (902, 1202) to wirelessly communicate with the bedside monitor (916, 1216), and wherein when the removable battery (904, 1204) is disconnected from the bedside monitor (916, 1216) and connected to the wireless monitor (902, 1202), the removable battery (904, 1204) is configured to transfer the wireless communication information received from the bedside monitor (916, 1216) to the wireless monitor (902, 1202).
A display device comprising a plurality of thin-film transistors formed on a substrate on which a display area is formed, wherein at least one of the plurality of thin-film transistors comprising: a gate electrode; a gate insulating film formed to cover the gate electrode; an interlayer insulating film formed on an upper surface of the gate insulating film and having an opening formed in an area where the gate electrode is formed, as seen in plan view; a pair of heavily-doped semiconductor films arranged on an upper surface of the interlayer insulating film with the opening interposed there between; a polycrystalline semiconductor film formed across the opening of the interlayer insulating film and formed within the area where the gate electrode is formed, as seen in plan view, the polycrystalline semiconductor film being electrically connected to the pair of heavily-doped semiconductor films; and a pair of electrodes (DT, ST) formed to overlap the pair of heavily-doped semiconductor films, respectively, without overlapping the polycrystalline semiconductor film; wherein each of the pair of electrodes (DT, ST) is formed of a laminate of the heavily-doped amorphous semiconductor film and a metal film sequentially laminated; wherein the pair of electrodes (DT, ST) overlaps the heavily-doped amorphous semiconductor film; characterised in that each of the pair of electrodes (DT, ST) is respectively electrically connected to the polycrystalline semiconductor film via the heavily-doped amorphous semiconductor film serving as the contact layer so as to avoid direct contact between the polycrystalline semiconductor film and each of the pair of electrodes (DT, ST). a gate electrode; a gate insulating film formed to cover the gate electrode; an interlayer insulating film formed on an upper surface of the gate insulating film and having an opening formed in an area where the gate electrode is formed, as seen in plan view; a pair of heavily-doped semiconductor films arranged on an upper surface of the interlayer insulating film with the opening interposed there between; a polycrystalline semiconductor film formed across the opening of the interlayer insulating film and formed within the area where the gate electrode is formed, as seen in plan view, the polycrystalline semiconductor film being electrically connected to the pair of heavily-doped semiconductor films; and a pair of electrodes (DT, ST) formed to overlap the pair of heavily-doped semiconductor films, respectively, without overlapping the polycrystalline semiconductor film; wherein each of the pair of electrodes (DT, ST) is formed of a laminate of the heavily-doped amorphous semiconductor film and a metal film sequentially laminated; wherein the pair of electrodes (DT, ST) overlaps the heavily-doped amorphous semiconductor film; characterised in that each of the pair of electrodes (DT, ST) is respectively electrically connected to the polycrystalline semiconductor film via the heavily-doped amorphous semiconductor film serving as the contact layer so as to avoid direct contact between the polycrystalline semiconductor film and each of the pair of electrodes (DT, ST).
A synthetic peptide for use in promoting tendon regeneration in a subject, consisting of an amino acid sequence having 20-39 amino acid residues in length and at least 80% amino acid sequence identity to SEQ ID NO: 1, wherein the amino acid sequence comprises at least 20 consecutive residues having at least 90% amino acid sequence identity to residues 11-30 of SEQ ID NO: 1.
A method of making a laminated polyester film comprising a polyester film, the method comprising the steps of forming a coating layer on at least one surface of the polyester film, wherein the coating layer is produced by applying a coating solution comprising an active methylene-blocked polyisocyanate compound and a urethane resin thereonto, wherein the urethane resin is synthesized by the reaction between a polycarbonate polyol and an isocyanate, and wherein the coating layer is provided on a surface thereof with a functional layer that is formed by applying a solvent-free active energy ray-curable coating material thereonto.
An ethylene/α-olefin block interpolymer comprising a hard segment and a soft segment, wherein the ethylene/a-olefin block interpolymer: (a) has a Mw/Mn from 1.7 to 3.5; (b) has an ethylene content in the hard segment in the range of from 60 wt% to 95 wt% based on total monomer content in hard segment; (c) (i) has a hard segment composition of at least 40%, at least one melting point, Tm, in degrees Celsius and an amount of ethylene in weight percent, wt% C 2, wherein the numerical values of Tm and wt% C 2 correspond to the relationship: 90 °C ≥ Tm ≥ 4.1276 wt % C 2 − 244.76; or (ii) has a hard segment composition of less than 40%, at least one melting point, Tm, in degrees Celsius and an amount of ethylene in weight percent, wt% C 2, wherein the numerical values of Tm and wt% C 2 correspond to the relationship: 80 ° C ≥ Tm ≤ 4.1276 wt % C 2 − 264.95; or (iii) is characterized by an average block index greater than zero and up to 1.0 and a molecular weight distribution, Mw/Mn, greater than 1.3; and (d) has a turbidity in a 1.0 wt% solution of the ethylene/a-olefin block interpolymer in oil or a 1.5 wt% solution in dodecane that is less than 1.5 NTU and a DSC enthalpy (J/g) at greater than 55 °C of less than 2 J/g. (a) has a Mw/Mn from 1.7 to 3.5; (b) has an ethylene content in the hard segment in the range of from 60 wt% to 95 wt% based on total monomer content in hard segment; (c) (i) has a hard segment composition of at least 40%, at least one melting point, Tm, in degrees Celsius and an amount of ethylene in weight percent, wt% C 2, wherein the numerical values of Tm and wt% C 2 correspond to the relationship: 90 °C ≥ Tm ≥ 4.1276 wt % C 2 − 244.76; or (ii) has a hard segment composition of less than 40%, at least one melting point, Tm, in degrees Celsius and an amount of ethylene in weight percent, wt% C 2, wherein the numerical values of Tm and wt% C 2 correspond to the relationship: 80 ° C ≥ Tm ≤ 4.1276 wt % C 2 − 264.95; or (iii) is characterized by an average block index greater than zero and up to 1.0 and a molecular weight distribution, Mw/Mn, greater than 1.3; and (i) has a hard segment composition of at least 40%, at least one melting point, Tm, in degrees Celsius and an amount of ethylene in weight percent, wt% C 2, wherein the numerical values of Tm and wt% C 2 correspond to the relationship: 90 °C ≥ Tm ≥ 4.1276 wt % C 2 − 244.76; or (ii) has a hard segment composition of less than 40%, at least one melting point, Tm, in degrees Celsius and an amount of ethylene in weight percent, wt% C 2, wherein the numerical values of Tm and wt% C 2 correspond to the relationship: 80 ° C ≥ Tm ≤ 4.1276 wt % C 2 − 264.95; or (iii) is characterized by an average block index greater than zero and up to 1.0 and a molecular weight distribution, Mw/Mn, greater than 1.3; and (d) has a turbidity in a 1.0 wt% solution of the ethylene/a-olefin block interpolymer in oil or a 1.5 wt% solution in dodecane that is less than 1.5 NTU and a DSC enthalpy (J/g) at greater than 55 °C of less than 2 J/g.
A method for determining a set point for a primary thermal sensor in an apparatus for the layer-by-layer manufacture of a three-dimensional object from particulate material; the method comprising a calibration process, comprising: (a) distributing a layer of particulate material, the layer providing a build bed surface; (b) measuring a first temperature value TD within a test region with one of a primary thermal sensor and a secondary thermal sensor positioned above the build bed surface; (c) depositing an amount of absorption modifier over at least one of the test region and a surrounding area surrounding the test region; (d) heating the test region over a period of time; (e) measuring with the primary thermal sensor a second temperature value TR within the test region; (f) distributing a further layer of material over the preceding layer of material, the new layer providing the build bed surface; - repeating the steps (b) to (f) of the layer cycle, such that the test region of each further layer reaches a higher temperature value TR than that of the test region of the preceding layer, at least until the test region starts to melt; - determining a set point for the primary thermal sensor from a characteristic in the evolution of the measured first and second temperature values of TD and TR of the test region; and - applying the determined set point to subsequent measurements of the primary thermal sensor. (a) distributing a layer of particulate material, the layer providing a build bed surface; (b) measuring a first temperature value TD within a test region with one of a primary thermal sensor and a secondary thermal sensor positioned above the build bed surface; (c) depositing an amount of absorption modifier over at least one of the test region and a surrounding area surrounding the test region; (d) heating the test region over a period of time; (e) measuring with the primary thermal sensor a second temperature value TR within the test region; (f) distributing a further layer of material over the preceding layer of material, the new layer providing the build bed surface; - repeating the steps (b) to (f) of the layer cycle, such that the test region of each further layer reaches a higher temperature value TR than that of the test region of the preceding layer, at least until the test region starts to melt; - determining a set point for the primary thermal sensor from a characteristic in the evolution of the measured first and second temperature values of TD and TR of the test region; and - applying the determined set point to subsequent measurements of the primary thermal sensor. - repeating the steps (b) to (f) of the layer cycle, such that the test region of each further layer reaches a higher temperature value TR than that of the test region of the preceding layer, at least until the test region starts to melt; - determining a set point for the primary thermal sensor from a characteristic in the evolution of the measured first and second temperature values of TD and TR of the test region; and - applying the determined set point to subsequent measurements of the primary thermal sensor.
A crosslinkable copolymer comprising: a) first monomeric units of Formula wherein R 1 is an alkyl; R 2 is an alkyl; R 3 is an alkylene; R 4 is hydrogen or methyl; X is oxy or -NR- where R is hydrogen or alkyl; and b) second monomeric units of Formula wherein R 5 is a cationic, nitrogen-containing group free of a polymerizable group; and c) third monomeric units of Formula (III-1), Formula (III-2), or a mixture thereof wherein R 6 is halo, hydroxy, or alkoxy; and wherein any cationic group in the copolymer has a corresponding anionic group and wherein each asterisk (*) is the point of attachment to another group or monomeric unit in the copolymer. a) first monomeric units of Formula wherein R 1 is an alkyl; R 2 is an alkyl; R 3 is an alkylene; R 4 is hydrogen or methyl; X is oxy or -NR- where R is hydrogen or alkyl; and R 1 is an alkyl; R 2 is an alkyl; R 3 is an alkylene; R 4 is hydrogen or methyl; X is oxy or -NR- where R is hydrogen or alkyl; and b) second monomeric units of Formula wherein R 5 is a cationic, nitrogen-containing group free of a polymerizable group; and c) third monomeric units of Formula (III-1), Formula (III-2), or a mixture thereof wherein R 6 is halo, hydroxy, or alkoxy; and
An apparatus comprising: (a) at least one platform (318; 418) configured to be positioned between opposing first and second jaws (16, 18) of an end effector of a surgical stapler, wherein the at least one platform (318; 418) is configured to transition between a first state and a second state; (b) at least one adjunct element (110, 112) positioned on the at least one platform (318; 418); (c) a driver (320; 424) configured to selectively transition the at least one platform (318; 418) from the first state to the second state in a direction toward at least one of the first or second jaws (16, 18) for placing the at least one adjunct element (100, 112) in contact with a corresponding surface of the at least one of the first or second jaws (16, 18); and characterized by: (d) at least one detector (328; 428) configured to detect a predetermined portion of the end effector, wherein the driver (320; 424) is configured to selectively transition the at least one platform (318; 428) from the first state to the second state in the direction toward at least one of the first or second jaws (16, 18) when the at least one detector (328; 428) detects the predetermined portion of the end effector. (a) at least one platform (318; 418) configured to be positioned between opposing first and second jaws (16, 18) of an end effector of a surgical stapler, wherein the at least one platform (318; 418) is configured to transition between a first state and a second state; (b) at least one adjunct element (110, 112) positioned on the at least one platform (318; 418); (c) a driver (320; 424) configured to selectively transition the at least one platform (318; 418) from the first state to the second state in a direction toward at least one of the first or second jaws (16, 18) for placing the at least one adjunct element (100, 112) in contact with a corresponding surface of the at least one of the first or second jaws (16, 18); and characterized by: (d) at least one detector (328; 428) configured to detect a predetermined portion of the end effector, wherein the driver (320; 424) is configured to selectively transition the at least one platform (318; 428) from the first state to the second state in the direction toward at least one of the first or second jaws (16, 18) when the at least one detector (328; 428) detects the predetermined portion of the end effector.