mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid discharge head comprising: a nozzle plate having a nozzle from which a liquid is dischargeable; a first housing having a first face fixed to the nozzle plate and having a liquid chamber communicating with the nozzle to supply the liquid to the nozzle ; a valve body : movable between a liquid supply position and a liquid block position in a valve moving direction, the valve body: at the liquid supply position separated from the nozzle to allow the liquid flowing from the liquid chamber to the nozzle ; and at the liquid block position contacting the nozzle to block the liquid flowing from the liquid chamber to the nozzle ; and a second housing over a second face of the first housing opposite to the first face in the valve moving direction, characterised in that the second housing is deformable relative to the first housing ; and includes a fixing portion to be secured to a support of a liquid discharge apparatus to support the liquid discharge head . a nozzle plate having a nozzle from which a liquid is dischargeable; a first housing having a first face fixed to the nozzle plate and having a liquid chamber communicating with the nozzle to supply the liquid to the nozzle ; a valve body : movable between a liquid supply position and a liquid block position in a valve moving direction, the valve body: at the liquid supply position separated from the nozzle to allow the liquid flowing from the liquid chamber to the nozzle ; and at the liquid block position contacting the nozzle to block the liquid flowing from the liquid chamber to the nozzle ; and at the liquid supply position separated from the nozzle to allow the liquid flowing from the liquid chamber to the nozzle ; and at the liquid block position contacting the nozzle to block the liquid flowing from the liquid chamber to the nozzle ; and a second housing over a second face of the first housing opposite to the first face in the valve moving direction, characterised in that the second housing is deformable relative to the first housing ; and includes a fixing portion to be secured to a support of a liquid discharge apparatus to support the liquid discharge head .
An event monitoring method, comprising: in a mobility management network element reselection process, when a user equipment, UE, moves from a first mobility management network element to a second mobility management network element, receiving , by the second mobility management network element, a first duration value from the first mobility management network element, wherein the first duration value is a current value of a first timer corresponding to the UE maintained by the first mobility management network element; starting , by the second mobility management network element, a second timer corresponding to the UE maintained by the second mobility management network element, and setting an initial value of the second timer based on the first duration value; and sending , by the second mobility management network element, a suppressed location reporting notification of the UE when the second timer expires. in a mobility management network element reselection process, when a user equipment, UE, moves from a first mobility management network element to a second mobility management network element, receiving , by the second mobility management network element, a first duration value from the first mobility management network element, wherein the first duration value is a current value of a first timer corresponding to the UE maintained by the first mobility management network element; starting , by the second mobility management network element, a second timer corresponding to the UE maintained by the second mobility management network element, and setting an initial value of the second timer based on the first duration value; and sending , by the second mobility management network element, a suppressed location reporting notification of the UE when the second timer expires.
An electrolyte solution comprising: (i) a solvent; (ii) an electrolyte salt; (iii) at least one compound (X) of formula : R 11 X 11 -SO 3 M 11 wherein R 11 is C 1-12 alkyl, C 2-6 -alkenyl or C 2-6 -alkynyl, each linear or branched; C 3-6 -cycloalkyl; C 3-6 -cycloalkenyl or C 3-6 -alkylsilyl; and the alkyl, cycloalkyl and alkylsilyl group each optionally contain a halogen atom substituting a hydrogen atom binding to a carbon atom, optionally have a cyclic structure, and optionally contain an ether bond or a thioether bond; X 11 is O or S; and M 11 is at least one of Li, Na, K, and Cs; and (iv) at least one organosilicon compound of formula (R 31 ) n31 -M 31 -O-SiR 32 R 33 R 34 wherein M 31 is a metal atom, P or P=O; R 31 each independently is C 1-11 -alkyloxy, silyloxy or C 1-11 -alkylsilyloxy; n 31 is the number of R 31 s binding to M 31 , and is the oxidation number of M 31 minus 1 or the oxidation number of M 31 minus 3; and R 32 -R 34 each independently are C 1-11 -alkyl, C 2-11 -alkenyl, C 1-11 -alkyloxy or C 6-11 -aryl. (i) a solvent; (ii) an electrolyte salt; (iii) at least one compound (X) of formula : R 11 X 11 -SO 3 M 11 wherein R 11 is C 1-12 alkyl, C 2-6 -alkenyl or C 2-6 -alkynyl, each linear or branched; C 3-6 -cycloalkyl; C 3-6 -cycloalkenyl or C 3-6 -alkylsilyl; and the alkyl, cycloalkyl and alkylsilyl group each optionally contain a halogen atom substituting a hydrogen atom binding to a carbon atom, optionally have a cyclic structure, and optionally contain an ether bond or a thioether bond; X 11 is O or S; and M 11 is at least one of Li, Na, K, and Cs; and R 11 is C 1-12 alkyl, C 2-6 -alkenyl or C 2-6 -alkynyl, each linear or branched; C 3-6 -cycloalkyl; C 3-6 -cycloalkenyl or C 3-6 -alkylsilyl; and the alkyl, cycloalkyl and alkylsilyl group each optionally contain a halogen atom substituting a hydrogen atom binding to a carbon atom, optionally have a cyclic structure, and optionally contain an ether bond or a thioether bond; X 11 is O or S; and M 11 is at least one of Li, Na, K, and Cs; and (iv) at least one organosilicon compound of formula (R 31 ) n31 -M 31 -O-SiR 32 R 33 R 34 wherein M 31 is a metal atom, P or P=O; R 31 each independently is C 1-11 -alkyloxy, silyloxy or C 1-11 -alkylsilyloxy; n 31 is the number of R 31 s binding to M 31 , and is the oxidation number of M 31 minus 1 or the oxidation number of M 31 minus 3; and R 32 -R 34 each independently are C 1-11 -alkyl, C 2-11 -alkenyl, C 1-11 -alkyloxy or C 6-11 -aryl. M 31 is a metal atom, P or P=O; R 31 each independently is C 1-11 -alkyloxy, silyloxy or C 1-11 -alkylsilyloxy; n 31 is the number of R 31 s binding to M 31 , and is the oxidation number of M 31 minus 1 or the oxidation number of M 31 minus 3; and R 32 -R 34 each independently are C 1-11 -alkyl, C 2-11 -alkenyl, C 1-11 -alkyloxy or C 6-11 -aryl.
Front-end device of an auto-injector (A) for administering a dose of a liquid medicament, comprising - a support sleeve (1.2) with a first screw thread (1.2.1) adapted to engage a housing (3.1) of a back-end device of the auto-injector (A) to attach the front-end device to the back-end device and - an outer sleeve (1.1) mounted onto said support sleeve (1.2) of the front-end device by a second screw thread (1.2.3), wherein the front-end device is adapted to receive a syringe with an injection needle (2.2) and a barrel (2.3) containing the dose of the medicament and wherein the direction of rotation of the first screw thread (1.2.1) is opposite to the direction of rotation of the second screw thread (1.2.3), characterized in that the support sleeve (1.2) comprises a support collar (1.2.6) which separates the first screw thread (1.2.1) from the second screw thread (1.2.3) and a latch (1.2.7) is formed to the outer sleeve (1.1), the latch (1.2.7) being arranged to latch to the support collar (1.2.6) of the support sleeve (1.2) to initially prevent a relative rotation between the outer sleeve (1.1) and the support sleeve (1.2). - a support sleeve (1.2) with a first screw thread (1.2.1) adapted to engage a housing (3.1) of a back-end device of the auto-injector (A) to attach the front-end device to the back-end device and - an outer sleeve (1.1) mounted onto said support sleeve (1.2) of the front-end device by a second screw thread (1.2.3), wherein the front-end device is adapted to receive a syringe with an injection needle (2.2) and a barrel (2.3) containing the dose of the medicament and wherein the direction of rotation of the first screw thread (1.2.1) is opposite to the direction of rotation of the second screw thread (1.2.3), characterized in that the support sleeve (1.2) comprises a support collar (1.2.6) which separates the first screw thread (1.2.1) from the second screw thread (1.2.3) and a latch (1.2.7) is formed to the outer sleeve (1.1), the latch (1.2.7) being arranged to latch to the support collar (1.2.6) of the support sleeve (1.2) to initially prevent a relative rotation between the outer sleeve (1.1) and the support sleeve (1.2).
A speculum comprising: a body portion comprising a handle configured to be grasped by a user of the speculum , a lower bill , and a transition portion between the handle and the lower bill ; an upper bill rotatably coupled to the lower bill at the transition portion , allowing the upper bill to move relative to the lower bill to move the speculum into an open position; a window frame coupled to the upper bill defining a viewing window; an actuation mechanism coupled to the upper bill to cause separation of the upper bill from the lower bill ; and a locking mechanism configured to hold the speculum in the open position by preventing movement of the upper bill toward the lower bill when the locking mechanism is engaged, the locking mechanism comprising: a locking strip contained within the handle , the locking strip having an engagement element; a pawl for interacting with the engagement element which, when interacting, prevents movement of the locking strip in at least one direction relative to the pawl ; and a lock switch configured to be actuated to cause interaction of the pawl with the engagement element; wherein the transition portion creates an angle greater than 90 degrees between the handle and the lower bill . a body portion comprising a handle configured to be grasped by a user of the speculum , a lower bill , and a transition portion between the handle and the lower bill ; an upper bill rotatably coupled to the lower bill at the transition portion , allowing the upper bill to move relative to the lower bill to move the speculum into an open position; a window frame coupled to the upper bill defining a viewing window; an actuation mechanism coupled to the upper bill to cause separation of the upper bill from the lower bill ; and a locking mechanism configured to hold the speculum in the open position by preventing movement of the upper bill toward the lower bill when the locking mechanism is engaged, the locking mechanism comprising: a locking strip contained within the handle , the locking strip having an engagement element; a pawl for interacting with the engagement element which, when interacting, prevents movement of the locking strip in at least one direction relative to the pawl ; and a lock switch configured to be actuated to cause interaction of the pawl with the engagement element; a locking strip contained within the handle , the locking strip having an engagement element; a pawl for interacting with the engagement element which, when interacting, prevents movement of the locking strip in at least one direction relative to the pawl ; and a lock switch configured to be actuated to cause interaction of the pawl with the engagement element; wherein the transition portion creates an angle greater than 90 degrees between the handle and the lower bill .
Procedure for stripping a film from plastic profiled elements, comprising the steps of: - providing at least a plastic profiled element (P) having at least an area to seal (Z) and a flat surface (S) at least in part covered with a film (E) to strip; - providing at least a stripping roller having a high friction coefficient surface; - placing said stripping roller in rotation around its own axis; and - placing in reciprocal movement at least one of said profiled element (P) and said stripping roller along a direction of forward movement (A; A1, A2) wherein said high friction coefficient surface is placed in sliding contact on said flat surface (S) to remove said film (E). - providing at least a plastic profiled element (P) having at least an area to seal (Z) and a flat surface (S) at least in part covered with a film (E) to strip; - providing at least a stripping roller having a high friction coefficient surface; - placing said stripping roller in rotation around its own axis; and - placing in reciprocal movement at least one of said profiled element (P) and said stripping roller along a direction of forward movement (A; A1, A2) wherein said high friction coefficient surface is placed in sliding contact on said flat surface (S) to remove said film (E).
A support unit for spark gaps that are adapted to be connected in series and stacked, consisting of an insulating body which has a recess corresponding to the contour of a disc-shaped spark gap electrode , and comprising means for contacting the spark gap electrode , characterized in that the insulating body is formed to be box-shaped and has a plurality of chamber-like recesses , wherein a respective spark gap electrode can be inserted into each chamber-like recess , the respective isolating distances can be formed by the chamber partition walls , and the spark gap electrodes are adapted to be fixed laterally by the chamber side walls , wherein the box-shaped insulating body has an opening side for fitting in or inserting the spark gap electrodes , the opening side can be closed, and a contacting of the spark gap electrodes can be performed from the opening side.
A phosphorus doped silicon single crystal having a diameter in the range of 175 mm to 225 mm, an axial length in the range of 50 mm to 1000 mm and an oxygen content below 2·10 16 cm -3 , the phosphorus doped silicon single crystal in a transverse plane having a density of dopant atoms providing a target resistivity, ρ NTD , in the range of 55 Ωcm to 2000 Ωcm for a wafer cut from the phosphorus doped silicon ingot, wherein a RRV value of 2% or less as determined according to the SEMI standard SEMI MF81 is obtained for at least 75% of wafers cut from the phosphorus doped silicon single crystal when the resistivity is measured after annealing the silicon at a temperature in the range of 800°C to 1300°C.
A disconnecting device designed for multiple disconnections of a load greater than 12 KW of a DC voltage vehicle electrical system from an energy accumulator of a motor vehicle consisting of a base and an insulating housing , wherein a switching arrangement is provided inside the housing and a first energy accumulator terminal and a second energy accumulator terminal protrude from the housing , wherein furthermore a first electrical switching path (S1) between a bi-stable relay and a first signal line protruding out of the housing for connection to a mechanical toggle switch or a pushbutton and a second electrical switching path (S2) between the bi-stable relay and a second signal line protruding out of the housing for connection to the mechanical toggle switch or a pushbutton are provided, wherein furthermore a respective stable switching state of the bi-stable relay is alternately producible via the one or the other switching path (S1, S2) by actuating a switch or pushbutton , whereby at least two flatly formed switching contact pairs (55a, 55b and 56a, 56b) of the relay are each simultaneously brought into a contacting position or a position spaced apart from one another.
A method of producing a composite, said method comprising the steps of; - providing a suspension comprising calcium hydroxide, - performing carbonation of said calcium hydroxide to form precipitated calcium carbonate (PCC), wherein microfibrillated cellulose (MFC) is added to said suspension during said carbonation of calcium hydroxide whereby calcium carbonate is at least partly precipitated onto fibers or fibrils of the MFC, wherein MFC is added to the suspension at a time when between 50 % and 95 % of the calcium hydroxide has been reacted with carbon dioxide to form calcium carbonate. - providing a suspension comprising calcium hydroxide, - performing carbonation of said calcium hydroxide to form precipitated calcium carbonate (PCC), wherein microfibrillated cellulose (MFC) is added to said suspension during said carbonation of calcium hydroxide whereby calcium carbonate is at least partly precipitated onto fibers or fibrils of the MFC, wherein MFC is added to the suspension at a time when between 50 % and 95 % of the calcium hydroxide has been reacted with carbon dioxide to form calcium carbonate.
A component (64;164) for a gas turbine engine comprising: an exterior surface providing pressure and suction sides , a cooling passage in the component includes a serpentine passageway (94;194) having first and second passes respectively configured to provide fluid flow in opposite directions from one another; characterised in that : the first pass includes first and second portions nested relative to one another and overlapping in a thickness direction, the first and second portions adjacent to one another by sharing a common wall , the first portion provided on the suction side , and the second portion provided on the pressure side .
A medical infusion device, comprising: a base ; a flexible catheter movable from a first catheter position disposed substantially entirely within said base to a second catheter position in which a free end of said catheter is disposed externally of said base ; and an introducer needle located within said catheter and movable between a first introducer needle position disposed substantially entirely within said base and a second introducer needle position in which a free end of said introducer needle is disposed externally of said base ; wherein the medical infusion device further comprises a torsion spring for initially rotating a rotating member in a rotational direction to move said catheter from said first to said second catheter position and said introducer needle from said first to said second introducer needle position to facilitate insertion of said catheter, said torsion spring then further rotating said rotating member in the same rotational direction to move said introducer needle back toward said first introducer needle position to store said introducer needle within said base with said free end of said catheter remaining disposed externally of said base characterised in that a linking arm is coupled to said introducer needle and to said rotating member , the coupling between said rotating member and said linking arm being at fixed points on each of said rotating member and said linking arm , wherein said rotating member and said linking arm together form a rotary crank mechanism for converting rotary motion from said torsion spring to linear motion of said introducer needle . a base ; a flexible catheter movable from a first catheter position disposed substantially entirely within said base to a second catheter position in which a free end of said catheter is disposed externally of said base ; and an introducer needle located within said catheter and movable between a first introducer needle position disposed substantially entirely within said base and a second introducer needle position in which a free end of said introducer needle is disposed externally of said base ; wherein the medical infusion device further comprises a torsion spring for initially rotating a rotating member in a rotational direction to move said catheter from said first to said second catheter position and said introducer needle from said first to said second introducer needle position to facilitate insertion of said catheter, said torsion spring then further rotating said rotating member in the same rotational direction to move said introducer needle back toward said first introducer needle position to store said introducer needle within said base with said free end of said catheter remaining disposed externally of said base characterised in that a linking arm is coupled to said introducer needle and to said rotating member , the coupling between said rotating member and said linking arm being at fixed points on each of said rotating member and said linking arm , wherein said rotating member and said linking arm together form a rotary crank mechanism for converting rotary motion from said torsion spring to linear motion of said introducer needle .
A flow cytometer comprising: a flow cell including a particle interrogation zone; at least one dichroic element configured to direct the converging light beams to the flow cell; and at least two optical subunits, each comprising: a light source producing a light beam wherein the light beam passes through the particle interrogation zone, and a converging element configured to convert the light beam into a converging light beam, wherein each of the light beams passes through a converging element in a one light beam per converging element ratio; and wherein the light beams leaving the converging elements are converging light beams, and wherein both of the converging light beams are combined by the at least one dichroic element before reaching the interrogation zone, and wherein the converging light beams are spatially separated from one another upon entering the interrogation zone within the flow cell . a flow cell including a particle interrogation zone; at least one dichroic element configured to direct the converging light beams to the flow cell; and at least two optical subunits, each comprising: a light source producing a light beam wherein the light beam passes through the particle interrogation zone, and a converging element configured to convert the light beam into a converging light beam, wherein each of the light beams passes through a converging element in a one light beam per converging element ratio; and a light source producing a light beam wherein the light beam passes through the particle interrogation zone, and a converging element configured to convert the light beam into a converging light beam, wherein each of the light beams passes through a converging element in a one light beam per converging element ratio; and wherein the light beams leaving the converging elements are converging light beams, and wherein both of the converging light beams are combined by the at least one dichroic element before reaching the interrogation zone, and wherein the converging light beams are spatially separated from one another upon entering the interrogation zone within the flow cell .