mhurhangee/patent-ind-claim-en huggingface dataset:
A surgical impacting tool, comprising: a drive mechanism ; a motor ; an energy storage means; an electronic control means operatively coupled to the motor and to the drive mechanism and configured to control the motor and thereby cause movement of the drive mechanism ; an adapter configured to receive a surgical implement configured to strike an object; a striker operatively coupled to the adapter , operatively coupled to the drive mechanism , and configured to, in response to the movement of the drive mechanism , provide a repeatable, controlled striking force to the adapter that includes impact of the striker on a first surface , thereby moving the adapter in a forward direction, the tool being characterised in that said repeatable, controlled striking force provided to the adaptor by the striker further includes impact of the striker on a second, different surface , thereby moving the adapter in a rearward direction that is opposite to the forward direction. a drive mechanism ; a motor ; an energy storage means; an electronic control means operatively coupled to the motor and to the drive mechanism and configured to control the motor and thereby cause movement of the drive mechanism ; an adapter configured to receive a surgical implement configured to strike an object; a striker operatively coupled to the adapter , operatively coupled to the drive mechanism , and configured to, in response to the movement of the drive mechanism , provide a repeatable, controlled striking force to the adapter that includes impact of the striker on a first surface , thereby moving the adapter in a forward direction, the tool being characterised in that said repeatable, controlled striking force provided to the adaptor by the striker further includes impact of the striker on a second, different surface , thereby moving the adapter in a rearward direction that is opposite to the forward direction. impact of the striker on a first surface , thereby moving the adapter in a forward direction, the tool being characterised in that said repeatable, controlled striking force provided to the adaptor by the striker further includes impact of the striker on a second, different surface , thereby moving the adapter in a rearward direction that is opposite to the forward direction.
A powder filling method comprising: introducing a tube into a can so that the lower end of the tube is near a bottom of the can ; introducing powder into the can through the tube ; agitating the powder in the can by rotary agitation, with a fan ; controlling proximity of the lower end of the tube to the powder in the can by retracting the tube as powder fills the can ; and wherein the rotary agitation is performed by the fan located near the lower end of the tube characterised in that a vacuum or an inert gas is present in the can and the fan is formed of the same composition as the powder. introducing a tube into a can so that the lower end of the tube is near a bottom of the can ; introducing powder into the can through the tube ; agitating the powder in the can by rotary agitation, with a fan ; controlling proximity of the lower end of the tube to the powder in the can by retracting the tube as powder fills the can ; and wherein the rotary agitation is performed by the fan located near the lower end of the tube characterised in that a vacuum or an inert gas is present in the can and the fan is formed of the same composition as the powder.
A protective film, comprising: a transparent film; a coating layer formed on one surface of the transparent film; and a primer layer formed on the other surface of the transparent film, wherein the transparent film is an acrylic film, wherein the coating layer is formed using a coating composition including a first polymer resin, a first cross-linking agent and first water dispersible particles, the primer layer is formed using a primer composition including a second polymer resin and second water dispersible particles, as well as including a second cross-linking agent in an amount lower than that of the first cross-linking agent, wherein the first polymer resin is a polyurethane resin, an acrylic resin, or a combination thereof, wherein the second polymer resin is a polyurethane resin, an acrylic resin, or a combination thereof, wherein the second cross-linking agent is included in the primer layer in an amount corresponding to 85% or less of that of the first cross-linking agent in the coating layer, wherein the primer layer has a thickness of 50 to 2000nm, the coating layer has a thickness of 50 to 2000nm, and the cross-linking agents include at least one selected from a group consisting of an oxazoline cross-linking agent, an organosilane cross-linking agent, a blocked isocyanate cross-linking agent, a carbodiimide cross-linking agent, an organic titanate cross-linking agent, an organic zirconate cross-linking agent, and an epoxy cross-linking agent.
Method for rinsing an overflow chamber at the bath-side end of a snout of a device for hot-dip coating of a metal strip , wherein the snout serves for guiding the metal strip in a protective gas atmosphere prior to coating of the metal strip with a metal melt , comprising the following steps: conducting a rinsing circuit in the overflow chamber by feeding the metal melt from a melt bath into the overflow chamber on the one hand and simultaneous pumping of the melt out of the overflow chamber into the melt bath with the help of a suction pump on the other hand; characterised in that the snout together with the overflow chamber is moved out of the melt bath at least to such an extent that no melt can flow over an overflow edge in the interior of the snout into the overflow chamber; and the rinsing circuit is operated, even when the snout is moved out of the melt, by feeding the melt from the melt bath into the overflow chamber with the help of a conveying pump . conducting a rinsing circuit in the overflow chamber by feeding the metal melt from a melt bath into the overflow chamber on the one hand and simultaneous pumping of the melt out of the overflow chamber into the melt bath with the help of a suction pump on the other hand; characterised in that the snout together with the overflow chamber is moved out of the melt bath at least to such an extent that no melt can flow over an overflow edge in the interior of the snout into the overflow chamber; and the rinsing circuit is operated, even when the snout is moved out of the melt, by feeding the melt from the melt bath into the overflow chamber with the help of a conveying pump .
A system for deploying a blocker door of a nacelle, comprising: a gear box comprising one or more gears, the gear box configured to be coupled to a translating sleeve of the nacelle and to convert linear motion of the translating sleeve to rotational motion; a first door crank ; a first door link pivotally attached to the first door crank ; a first blocker door coupled to the first door link ; and a first driveshaft coupled to the gear box and to the first door crank and configured to transfer the rotational motion from the gear box to the first door crank , such that translation of the translating sleeve in an aft direction drives the first door link via the first door crank to move the first blocker door into a bypass air duct defined by the nacelle. a gear box comprising one or more gears, the gear box configured to be coupled to a translating sleeve of the nacelle and to convert linear motion of the translating sleeve to rotational motion; a first door crank ; a first door link pivotally attached to the first door crank ; a first blocker door coupled to the first door link ; and a first driveshaft coupled to the gear box and to the first door crank and configured to transfer the rotational motion from the gear box to the first door crank , such that translation of the translating sleeve in an aft direction drives the first door link via the first door crank to move the first blocker door into a bypass air duct defined by the nacelle.
A camera arrangement comprising an image capturing device and a lens defining an image plane for capturing an image in a direction defined by an optical path , said camera arrangement comprising: a generally disc-shaped optical element (9;9') and a cleaning unit for removing contaminants from at least one surface (9a; 9a') of said optical element (9; 9'), characterized in that the optical element (9; 9') is inclined with a first angle (α) in relation to said image plane and that the optical element (9; 9') is inclined with a second angle (β) in relation to said optical path , wherein each of said first angle (α) and said second angle (β) is within the interval 25°-65°.
An antibody-like binding protein comprising four polypeptide chains that form four antigen binding sites capable of specifically binding one or more antigen targets, wherein two polypeptide chains have a structure represented by the formula: V L1 -L 1 -V L2 -L 2 -C L [I] and two polypeptide chains have a structure represented by the formula: V H2 -L 3 -V H1 -L 4 -C H1 -Fc [II] wherein: V L1 is a first immunoglobulin light chain variable domain; V L2 is a second immunoglobulin light chain variable domain; V H1 is a first immunoglobulin heavy chain variable domain; V H2 is a second immunoglobulin heavy chain variable domain; C L is an immunoglobulin light chain constant domain; C H1 is the immunoglobulin C H1 heavy chain constant domain; Fc is the immunoglobulin hinge region and C H2 , C H3 immunoglobulin heavy chain constant domains; and L 1 , L 2 , L 3 , and L 4 are amino acid linkers; wherein the length of L 4 is at least twice the length of L 2 ; and the length of L 3 is at least twice the length of L 1 ; and wherein the linkers provide sufficient mobility for pairing of V L1 and V H1 , and for pairing of V L2 and V H2 , and the polypeptides of formula I and the polypeptides of formula II form a cross-over light chain-heavy chain pair. V L1 is a first immunoglobulin light chain variable domain; V L2 is a second immunoglobulin light chain variable domain; V H1 is a first immunoglobulin heavy chain variable domain; V H2 is a second immunoglobulin heavy chain variable domain; C L is an immunoglobulin light chain constant domain; C H1 is the immunoglobulin C H1 heavy chain constant domain; Fc is the immunoglobulin hinge region and C H2 , C H3 immunoglobulin heavy chain constant domains; and L 1 , L 2 , L 3 , and L 4 are amino acid linkers; wherein the length of L 4 is at least twice the length of L 2 ; and the length of L 3 is at least twice the length of L 1 ;
An apparatus comprising: - means for receiving, from a wireless terminal , a second connection request message in a random access procedure, the second connection request message including an uplink reference signal sequence; - means for transmitting, in response to receiving the second connection request message, a contention resolution message to the wireless terminal, the contention resolution message comprising a temporary identifier associated with the wireless terminal and an identifier of the uplink reference signal sequence; and - means for transmitting a random access response message to the wireless terminal, wherein the random access response message comprises the temporary identifier associated with the wireless terminal and a part reserved for identifying the uplink reference signal sequence. - means for receiving, from a wireless terminal , a second connection request message in a random access procedure, the second connection request message including an uplink reference signal sequence; - means for transmitting, in response to receiving the second connection request message, a contention resolution message to the wireless terminal, the contention resolution message comprising a temporary identifier associated with the wireless terminal and an identifier of the uplink reference signal sequence; and - means for transmitting a random access response message to the wireless terminal, wherein the random access response message comprises the temporary identifier associated with the wireless terminal and a part reserved for identifying the uplink reference signal sequence.
A signal light interruption detection device comprising: an optical interleaver configured to demultiplex wavelength-multiplexed light into light in first frequency ranges corresponding to a first frequency grid including frequencies at regular frequency intervals in which main signal light components can be arranged and light in second frequency ranges corresponding to a second frequency grid shifted from the first frequency grid by a half cycle of the regular frequency intervals in which ASE noise light components exist; a first optical detector configured to detect first light power as total power of the light in the first frequency ranges received from the optical interleaver; a second optical detector configured to detect second light power as total power of the light in the second frequency ranges received from the optical interleaver; and a judgment unit configured to output a notification signal based on a difference between the first light power detected by the first optical detector and the second light power detected by the second optical detector , wherein the judgment unit is configured to output the notification signal indicating a signal light interruption state in which no main signal light components exist in the wavelength-multiplexed light when the difference obtained by subtracting a value of a signal outputted from the second optical detector from a value of a signal outputted from the first optical detector is smaller than or equal to a predetermined threshold value. an optical interleaver configured to demultiplex wavelength-multiplexed light into light in first frequency ranges corresponding to a first frequency grid including frequencies at regular frequency intervals in which main signal light components can be arranged and light in second frequency ranges corresponding to a second frequency grid shifted from the first frequency grid by a half cycle of the regular frequency intervals in which ASE noise light components exist; a first optical detector configured to detect first light power as total power of the light in the first frequency ranges received from the optical interleaver; a second optical detector configured to detect second light power as total power of the light in the second frequency ranges received from the optical interleaver; and a judgment unit configured to output a notification signal based on a difference between the first light power detected by the first optical detector and the second light power detected by the second optical detector , wherein the judgment unit is configured to output the notification signal indicating a signal light interruption state in which no main signal light components exist in the wavelength-multiplexed light when the difference obtained by subtracting a value of a signal outputted from the second optical detector from a value of a signal outputted from the first optical detector is smaller than or equal to a predetermined threshold value.
A stannous complex, wherein the complex comprises a stannous (SnII) ascorbyl phosphate complex.
A packet sending method, comprising: receiving, by a first node, a first broadcast data packet sent by a second node; and if a sequence number of the first broadcast data packet equals 1 plus a sequence number of a latest data packet saved by the first node, and the first node does not receive, within a first preset time period, a first acknowledgement indication for the first broadcast data packet of the second node, sending, by the first node, a first broadcast acknowledgement packet when the first preset time period elapses, wherein the first broadcast acknowledgement packet comprises the first acknowledgement indication, and the first acknowledgement indication comprises the sequence number of the first broadcast data packet and an address of the second node. receiving, by a first node, a first broadcast data packet sent by a second node; and if a sequence number of the first broadcast data packet equals 1 plus a sequence number of a latest data packet saved by the first node, and the first node does not receive, within a first preset time period, a first acknowledgement indication for the first broadcast data packet of the second node, sending, by the first node, a first broadcast acknowledgement packet when the first preset time period elapses, wherein the first broadcast acknowledgement packet comprises the first acknowledgement indication, and the first acknowledgement indication comprises the sequence number of the first broadcast data packet and an address of the second node.
A furniture hinge , comprising: - a first fitting portion configured to be fixed to a furniture carcass , - a second fitting portion configured to be fixed to a movably-supported furniture part , the second fitting portion being hingedly connected to the first fitting portion , - at least one helical spring having an operational direction (X), wherein the furniture hinge is configured to be moved by the helical spring from a predetermined angular position into the fully closed position and/or into the fully open position, - a damping device for dampening a movement of the furniture hinge , wherein the damping device , for performing a damping hub extending in a direction (Y), includes at least one fluid chamber in which a piston with a piston rod is received, wherein the operational direction (X) of the helical spring and the direction (Y) of the damping hub extend laterally spaced from one another in a parallel relationship or inclinedly to one another, - wherein the helical spring and the damping device are arranged in or on a common carrier integrated into the furniture hinge , characterized in that the carrier includes a first cavity for receiving the helical spring and a second cavity for receiving the damping device . - a first fitting portion configured to be fixed to a furniture carcass , - a second fitting portion configured to be fixed to a movably-supported furniture part , the second fitting portion being hingedly connected to the first fitting portion , - at least one helical spring having an operational direction (X), wherein the furniture hinge is configured to be moved by the helical spring from a predetermined angular position into the fully closed position and/or into the fully open position, - a damping device for dampening a movement of the furniture hinge , wherein the damping device , for performing a damping hub extending in a direction (Y), includes at least one fluid chamber in which a piston with a piston rod is received, wherein the operational direction (X) of the helical spring and the direction (Y) of the damping hub extend laterally spaced from one another in a parallel relationship or inclinedly to one another, - wherein the helical spring and the damping device are arranged in or on a common carrier integrated into the furniture hinge ,
Process for manufacturing aromatic polyimides, characterized in that it comprises the following steps: (a) preparing one or more solid salts by reacting one or more aromatic tetracarboxylic acids and one or more diamines in a mole ratio ranging from 0.95 to 1.05; (b) drying the solid salt(s); (c) adding to the dry salt derived from step (b) one or more compounds (C); (d) solid-state polymerization of said solid salt(s) in the presence of the compound(s) (C); characterized in that the compound(s) (C) are chosen from pyromellitic acid, phthalic acid and mixtures thereof. (a) preparing one or more solid salts by reacting one or more aromatic tetracarboxylic acids and one or more diamines in a mole ratio ranging from 0.95 to 1.05; (b) drying the solid salt(s); (c) adding to the dry salt derived from step (b) one or more compounds (C); (d) solid-state polymerization of said solid salt(s) in the presence of the compound(s) (C);
A design method for designing a drill tool for implant surgery for a specific orthopedic implant comprising a circular implant hat and a centrally placed circular extending implant post protruding from the implant hat in a longitudinal y-axis direction of the implant , the drill tool comprising a first central drill part having a first diameter for drilling a recess for the implant post , and a second drill part having a second diameter for drilling a recess for the implant hat , the method comprising: a) selecting the first diameter of the first central drill part to correspond to, or to be slightly smaller than, the diameter of the implant post ; b) selecting the length of the first central drill part to correspond to, or to be slightly longer than, the length of the implant post ; c) selecting the second diameter of the second drill part to correspond to, or to be slightly smaller than, the diameter of the implant hat ; and d) selecting the curvature of one or more shape cutting edges arranged peripherally around the first central drill part to correspond to the curvature of a bone contacting surface of the implant ; characterized in that the method further comprises: e) adding one or more sharp pre-cutting edges to extend beyond the one or more shape cutting edges and beyond the curvature of the bone contacting surface of the implant , the one or more sharp pre-cutting edges being arranged for cutting sharply through the cartilage, leaving the cartilage edges nice and even, before drilling the recess in the bone tissue, wherein the at least one shape cutting edge in side view is designed to correspond to the shape of the bone contacting surface of the implant in a cross-sectional view, and wherein the one or more sharp pre-cutting edges extends beyond the bone contacting surface of the implant in a cross-sectional view, wherein the bone contacting surface is substantially flat and comprises a protruding anchoring ring portion , and the one or more sharp pre-cutting edges is designed to extend beyond the edge of the protruding anchoring ring portion . a) selecting the first diameter of the first central drill part to correspond to, or to be slightly smaller than, the diameter of the implant post ; b) selecting the length of the first central drill part to correspond to, or to be slightly longer than, the length of the implant post ; c) selecting the second diameter of the second drill part to correspond to, or to be slightly smaller than, the diameter of the implant hat ; and d) selecting the curvature of one or more shape cutting edges arranged peripherally around the first central drill part to correspond to the curvature of a bone contacting surface of the implant ;