mhurhangee/patent-ind-claim-en huggingface dataset:
A bicycle battery system, comprising: a battery assembly that includes a battery and a handle assembly mounted to the battery, wherein the handle assembly includes a handle mount , a handle plunger , and a handle mounted to the handle mount such that the handle pivots in unison with the handle mount; and a battery lock mounted within a cavity of a frame of a bicycle and configured to secure the battery assembly within the cavity, wherein the battery lock includes a lock plunger , a movable latch , and a stationary latch ; wherein the lock plunger is configured to press a portion of the handle mount against the movable latch when the battery lock is in a locked position such that the battery assembly is securely mounted within the cavity; and wherein, responsive to the battery lock being in an unlocked position, the handle plunger is configured to cause the handle mount and the handle to pivot away from a face of the battery such that at least the portion of the handle mount engages the stationary latch of the battery lock . a battery assembly that includes a battery and a handle assembly mounted to the battery, wherein the handle assembly includes a handle mount , a handle plunger , and a handle mounted to the handle mount such that the handle pivots in unison with the handle mount; and a battery lock mounted within a cavity of a frame of a bicycle and configured to secure the battery assembly within the cavity, wherein the battery lock includes a lock plunger , a movable latch , and a stationary latch ; wherein the lock plunger is configured to press a portion of the handle mount against the movable latch when the battery lock is in a locked position such that the battery assembly is securely mounted within the cavity; and wherein, responsive to the battery lock being in an unlocked position, the handle plunger is configured to cause the handle mount and the handle to pivot away from a face of the battery such that at least the portion of the handle mount engages the stationary latch of the battery lock .
A seat core member comprising: a plurality of ridges that extend in a rising direction of the seat core member in a rising portion of the seat core member being in contact with a cushion layer and opposing to calves of a body, in the seat core member of a seat portion provided with the seat core member including a hard synthetic resin foam and the cushion layer including a soft synthetic resin foam and covering the seat core member, wherein the ridges are respectively formed in parallel, and a length of each of the ridges in the rising direction of the seat core member is, at least ten times or more a width of the ridge.
A miniature electrode apparatus for trapping charged particles, the apparatus comprising, along a longitudinal direction: a first end cap electrode ; a central electrode having an aperture ; and a second end cap electrode , wherein the first and second end cap electrodes are aligned along a common central longitudinal axis; wherein the aperture extends through the central electrode along the longitudinal direction and the central electrode surrounds the aperture in a lateral plane perpendicular to the longitudinal direction to define, together with the first and second end cap electrodes , a cavity for trapping charged particles, the apparatus being configured such that positions along the common central longitudinal axis within the aperture of the central electrode are within the cavity; and wherein the aperture in the central electrode is elongated in the lateral plane characterized in that the aperture in the central electrode comprises a channel portion having a lateral length and a lateral width, the lateral width being substantially uniform along the channel portion. a first end cap electrode ; a central electrode having an aperture ; and a second end cap electrode , wherein the first and second end cap electrodes are aligned along a common central longitudinal axis; wherein the aperture extends through the central electrode along the longitudinal direction and the central electrode surrounds the aperture in a lateral plane perpendicular to the longitudinal direction to define, together with the first and second end cap electrodes , a cavity for trapping charged particles, the apparatus being configured such that positions along the common central longitudinal axis within the aperture of the central electrode are within the cavity; and wherein the aperture in the central electrode is elongated in the lateral plane
A method of wireless communication of a base station, comprising: transmitting, on a plurality of anchor channels, information indicating a narrowband frequency hopping pattern to at least one user equipment, UE, the narrowband frequency hopping pattern including a plurality of frames, the plurality of frames including at least one non-anchor channel and the plurality of anchor channels, the at least one non-anchor channel in each of the plurality of frames includes M non-anchor channels within a wideband, the M non-anchor channels are grouped into M carriers across a plurality of frames, and each of the M carriers occupying a set of adjacent non-anchor channels in each of the plurality of frames; and communicating with the at least one UE using the narrowband frequency hopping pattern, wherein communication on the plurality of anchor channels occurs during the plurality of frames. transmitting, on a plurality of anchor channels, information indicating a narrowband frequency hopping pattern to at least one user equipment, UE, the narrowband frequency hopping pattern including a plurality of frames, the plurality of frames including at least one non-anchor channel and the plurality of anchor channels, the at least one non-anchor channel in each of the plurality of frames includes M non-anchor channels within a wideband, the M non-anchor channels are grouped into M carriers across a plurality of frames, and each of the M carriers occupying a set of adjacent non-anchor channels in each of the plurality of frames; and communicating with the at least one UE using the narrowband frequency hopping pattern, wherein communication on the plurality of anchor channels occurs during the plurality of frames.
A bone harvesting tool for extraction of bone and/or cellular material from a patient during a surgical procedure, the tool comprising: a chamber having a first aperture , a second aperture , an internal cavity , and a suction source fluidly connected with the chamber ,; a reamer having a reaming portion , the reamer being sized to extend through the first and second apertures of the chamber , wherein the reamer is movable relative to the chamber ; and a storage container threadably coupled to the chamber and fluidly connected to the internal cavity of the chamber and effective to receive bone and/or cellular material extracted from the patient, the bone and/or cellular material being extracted during reaming a bone of the patient with the reamer , characterized in that the chamber further includes an opening sized and configured to accept a connector engaging with the opening to connect a suction tubing fluidly coupling to a suction source being effective to generate negative pressure within the internal cavity of the chamber , and in that the opening is spaced apart from the storage container . a chamber having a first aperture , a second aperture , an internal cavity , and a suction source fluidly connected with the chamber ,; a reamer having a reaming portion , the reamer being sized to extend through the first and second apertures of the chamber , wherein the reamer is movable relative to the chamber ; and a storage container threadably coupled to the chamber and fluidly connected to the internal cavity of the chamber and effective to receive bone and/or cellular material extracted from the patient, the bone and/or cellular material being extracted during reaming a bone of the patient with the reamer , characterized in that the chamber further includes an opening sized and configured to accept a connector engaging with the opening to connect a suction tubing fluidly coupling to a suction source being effective to generate negative pressure within the internal cavity of the chamber , and in that the opening is spaced apart from the storage container .
Energy storage arrangement, comprising: - a stack of multiple battery modules , which are arranged one above the other in the stack , wherein the battery modules each comprise a large number of battery cells and at least one cooling plate for cooling the battery cells , - a first side plate and a second side plate for carrying the stack of the multiple battery modules , wherein the battery modules are fastened to the first and second side plate , - at least one cooling circuit system for cooling the battery cells by means of a coolant, characterised in that - the at least one cooling circuit system is arranged on one of the first and second side plates , - the at least one cooling circuit system comprises a cooling distributor for distributing the coolant to the multiple battery modules and the cooling distributor comprises at least one forward pipe and one return pipe , wherein the forward pipe and the return pipe are arranged on the one of the first and the second side plate , - the at least one cooling circuit system has multiple forward lines for transporting the coolant from the forward pipe to one of the cooling plates in each case and multiple return lines for transporting the coolant away from the cooling plates to the return pipe , and - the forward lines are in each case connected to the forward pipe by means of a screw-in bracket and the return lines are in each case connected to the return pipe by means of a screw-in bracket , wherein the screw-in brackets are in each case screwed into a bore of the forward pipe and of the return pipe . - a stack of multiple battery modules , which are arranged one above the other in the stack , wherein the battery modules each comprise a large number of battery cells and at least one cooling plate for cooling the battery cells , - a first side plate and a second side plate for carrying the stack of the multiple battery modules , wherein the battery modules are fastened to the first and second side plate , - at least one cooling circuit system for cooling the battery cells by means of a coolant, characterised in that - the at least one cooling circuit system is arranged on one of the first and second side plates , - the at least one cooling circuit system comprises a cooling distributor for distributing the coolant to the multiple battery modules and the cooling distributor comprises at least one forward pipe and one return pipe , wherein the forward pipe and the return pipe are arranged on the one of the first and the second side plate , - the at least one cooling circuit system has multiple forward lines for transporting the coolant from the forward pipe to one of the cooling plates in each case and multiple return lines for transporting the coolant away from the cooling plates to the return pipe , and - the forward lines are in each case connected to the forward pipe by means of a screw-in bracket and the return lines are in each case connected to the return pipe by means of a screw-in bracket , wherein the screw-in brackets are in each case screwed into a bore of the forward pipe and of the return pipe .
A user input device , for providing an input to an elevator controller , comprising: a plurality of input regions (204A-204F, 304A-304F, 404A-404L) each of which correspond to a different input command; and a single touchless sensor arranged to detect the presence of an object in any of the plurality of input regions (204A-204F, 304A-304F, 404A-404L); characterized in that the single touchless sensor is arranged behind a faceplate , and in that the plurality of input regions (204A-204F, 304A-304F, 404A-404L) are behind the faceplate and at least partially defined by a plurality of apertures within the faceplate . a plurality of input regions (204A-204F, 304A-304F, 404A-404L) each of which correspond to a different input command; and a single touchless sensor arranged to detect the presence of an object in any of the plurality of input regions (204A-204F, 304A-304F, 404A-404L); characterized in that the single touchless sensor is arranged behind a faceplate , and in that the plurality of input regions (204A-204F, 304A-304F, 404A-404L) are behind the faceplate and at least partially defined by a plurality of apertures within the faceplate .
A compound of formula (II): and salts, solvates and protected forms thereof.
A compound represented by the following formula : Q-L-CHR 2 (wherein, Q is a non-cationic aliphatic group that does not contain nitrogen but contains an oxy structure other than a -O- contained within a carboxylato group; L is a single bond or an aliphatic group containing no nitrogen, and contains an ester structure selected from the group consisting of -C(=O)-O-, -O-C(=O)-, -O-C(=O)-O-, -C(=S)-O-, - O-C(=S)-, -O-C(=S)-O-, -S-C(=O)-, -C(=O)-S-, and -OP(=O)OR'-O- (wherein R' is hydrogen, a non-cationic aliphatic group, or -CHR 2 ); Rs are C 12 -C 24 aliphatic groups, the same or different, represented by the following formula : -L C1 -C(=O)-O-L C2 (where, L C1 is alkylene; and L C2 is alkenyl)). Q is a non-cationic aliphatic group that does not contain nitrogen but contains an oxy structure other than a -O- contained within a carboxylato group; L is a single bond or an aliphatic group containing no nitrogen, and contains an ester structure selected from the group consisting of -C(=O)-O-, -O-C(=O)-, -O-C(=O)-O-, -C(=S)-O-, - O-C(=S)-, -O-C(=S)-O-, -S-C(=O)-, -C(=O)-S-, and -OP(=O)OR'-O- (wherein R' is hydrogen, a non-cationic aliphatic group, or -CHR 2 ); Rs are C 12 -C 24 aliphatic groups, the same or different, represented by the following formula : -L C1 -C(=O)-O-L C2 (where, L C1 is alkylene; and L C2 is alkenyl)). L C1 is alkylene; and L C2 is alkenyl)).
An article of apparel , comprising: a first layer comprising a base layer and forming at least a first leg portion and a second leg portion ; and a second layer secured to the first layer , the second layer comprising at least a first panel portion and a second panel portion , wherein the first panel portion is secured to the first layer at least at a first coupling located on a lateral aspect of the first leg portion and a second coupling located on a lateral aspect of the second leg portion , wherein the second panel portion is secured to the first layer at least at a third coupling located on the lateral aspect of the first leg portion and a fourth coupling located on the lateral aspect of the second leg portion , wherein the first coupling is spaced apart from the third coupling to define a first space , and wherein the second coupling is spaced apart from the fourth coupling to define a second space ; and characterized in that the first panel portion is coupled to the second panel portion with at least one crotch seam positioned generally adjacent to a crotch region of the first layer .
Method for determining a four-dimensional ionospheric model of an electron distribution in the Earth's atmosphere, which is used to correct time-of-flight measurements of signals that are transmitted by satellites for determining positions with signal receivers, comprising at least the following steps: a) establishing at least one distribution function which is based on at least one function parameter and is suitable for describing a distribution of electrons as a function of height in the Earth's atmosphere, b) receiving data from a multiplicity of time-of-flight measurements with a multiplicity of mobile dual-frequency signal receivers, in order to determine parameters which are representative of a total quantity of electrons along a signal propagation path from a satellite to a dual-frequency signal receiver, c) determining position-dependent and time-dependent function parameters for the distribution function at least with the parameters, d) providing the function parameters determined in step c) as a four-dimensional ionospheric model; characterized in that the mobile dual-frequency signal receivers used in step b) are arranged in or on vehicles. a) establishing at least one distribution function which is based on at least one function parameter and is suitable for describing a distribution of electrons as a function of height in the Earth's atmosphere, b) receiving data from a multiplicity of time-of-flight measurements with a multiplicity of mobile dual-frequency signal receivers, in order to determine parameters which are representative of a total quantity of electrons along a signal propagation path from a satellite to a dual-frequency signal receiver, c) determining position-dependent and time-dependent function parameters for the distribution function at least with the parameters, d) providing the function parameters determined in step c) as a four-dimensional ionospheric model;
A floating type disc brake device in which a body , a support and a cylinder unit are configured separately, and a first piston and a second piston are accommodated in the cylinder unit , wherein the cylinder unit is fixed to arm portions provided on both a rotation-in side and a rotation-out side of a rotor in the support via cylinder attachment portions disposed on an outer circumference side of the cylinder unit .
An optical fiber cable comprising a plurality of tubes , each of said tubes accommodating an optical unit having a plurality of stranded optical fiber ribbons , and each optical fiber ribbon comprising a plurality of optical fibers, and a cable sheath configured to cover an outer side of an assembly including said plurality of tubes, wherein each of the optical fiber ribbons is intermittently provided with coupling portions , at which adjacent optical fibers of said plurality of optical fibers are coupled therebetween, and non-coupling portions , at which adjacent optical fibers of said plurality of optical fibers are not coupled therebetween, in a longitudinal direction between a part or all of the plurality of optical fibers in a state where the plurality of optical fibers is arranged in parallel, wherein each tube has a Young's modulus lower than a Young's modulus of the cable sheath, wherein the respective tubes of the assembly are assembled stranded with one another, and the assembly is in a state where a part of the plurality of tubes is in surface contact with the cable sheath with each tube being elastically deformed with respect to another tube of said plurality of tubes inside the cable sheath, characterised in that each tube is made of low density polyethylene, and in that a thickness of each tube is equal to or thicker than 0.03 mm and is equal to or thinner than 0.2mm, and the Young's modulus of each tube is equal to or higher than 10MPa and is equal to or lower than 400MPa.
A drug delivery device comprising: a main housing ; a medicament container arranged in the main housing , wherein the medicament container comprises a medicament ; and a pneumatic power pack arranged in the main housing , wherein the pneumatic power pack comprises: (i) a pressurized gas source storing pressurized gas ; (ii) a valve for the pressurized gas source ; (iii) a sleeve having an inner wall ; and (iv) a plunger comprising an inner chamber and a pressure release valve configured to release pressure from the inner chamber when the pressure in the inner chamber reaches a threshold pressure level, wherein the plunger is axially movable with respect to both the sleeve and the medicament container , wherein the plunger is in sliding gas-tight engagement with the inner wall of the sleeve , wherein the sleeve and the inner chamber are configured to receive pressurized gas released from the pressurized gas source , wherein the valve is configured to release the pressurized gas upon activation of the valve , and wherein the released pressurized gas flows into both the sleeve and inner chamber and propels the plunger in a distal direction with respect to the sleeve and the medicament container at a substantially constant force, so as to eject the medicament from the medicament container . a main housing ; a medicament container arranged in the main housing , wherein the medicament container comprises a medicament ; and a pneumatic power pack arranged in the main housing , wherein the pneumatic power pack comprises: (i) a pressurized gas source storing pressurized gas ; (ii) a valve for the pressurized gas source ; (iii) a sleeve having an inner wall ; and (iv) a plunger comprising an inner chamber and a pressure release valve configured to release pressure from the inner chamber when the pressure in the inner chamber reaches a threshold pressure level, (i) a pressurized gas source storing pressurized gas ; (ii) a valve for the pressurized gas source ; (iii) a sleeve having an inner wall ; and (iv) a plunger comprising an inner chamber and a pressure release valve configured to release pressure from the inner chamber when the pressure in the inner chamber reaches a threshold pressure level, wherein the plunger is axially movable with respect to both the sleeve and the medicament container , wherein the plunger is in sliding gas-tight engagement with the inner wall of the sleeve , wherein the sleeve and the inner chamber are configured to receive pressurized gas released from the pressurized gas source , wherein the valve is configured to release the pressurized gas upon activation of the valve , and wherein the released pressurized gas flows into both the sleeve and inner chamber and propels the plunger in a distal direction with respect to the sleeve and the medicament container at a substantially constant force, so as to eject the medicament from the medicament container .
A method for preparation of hygroscopic homogenous salt mixture, the method comprising the steps of: a) contacting at least one alkali metal salt with a metal salt having water of crystallization to form a heterogeneous mixture; b) subjecting said heterogeneous mixture to a temperature of 140 to 180 °C in a closed system to obtain a homogenous mixture; and c) removing water from the homogeneous mixture to obtain a hygroscopic homogenous salt mixture. a) contacting at least one alkali metal salt with a metal salt having water of crystallization to form a heterogeneous mixture; b) subjecting said heterogeneous mixture to a temperature of 140 to 180 °C in a closed system to obtain a homogenous mixture; and c) removing water from the homogeneous mixture to obtain a hygroscopic homogenous salt mixture.
A process for the polymerization of one or more monomers, at least 50 wt% of said monomers being vinyl chloride, wherein at least one anhydride and at least one peroxy compound selected from inorganic peroxides, organic hydroperoxides, and peroxyacids are dosed during the polymerization reaction in a continuous or intermittent fashion to a reaction mixture comprising said monomers.