mhurhangee/ep-ind-claims huggingface dataset:
A pipette device which includes: a pipette main body having a cylinder portion (a); a plunger disposed in an inserted state in the cylinder portion (a) to be movable in an axial direction and changing a cylinder volume; a push rod which is inserted in the pipette main body to be rotatable and movable in the axial direction and to which the plunger is connected; and a nut supported in the pipette main body to be unrotatable and movable in the axial direction, wherein the nut is arranged to convert the rotation of the push rod to the axial-direction movement of the push rod, thereby adjusting the cylinder volume by the axial-direction movement of the plunger caused by the rotation of the push rod, and wherein the pipette device comprises a speed increasing mechanism provided between the pipette main body and the push rod, the speed increasing mechanism being of a planetary gear type that includes: a sun gear provided to be coaxial with the push rod, a planetary gear rotating on an own axis while rotating around an outer periphery of the sun gear; a carrier rotatably supported by the pipette main body and supporting the planetary gear so as to allow the planetary gear to rotate; and an outer ring which is unrotatably supported by the pipette main body and on whose inner peripheral surface an internal gear engaged with the planetary gear is formed, characterized in that the carrier has a holding portion in a bottomed cylindrical shape supporting the planetary gear so as to allow the planetary gear to rotate, and a bearing plate fitted in an opening of the holding portion, wherein the planetary gear is disposed in an opening portion formed in the holding portion, and shaft portions at both ends of the planetary gear are rotatably supported by a bottom wall of the holding portion and the bearing plate, the carrier has a projecting portion integrally formed with the holding portion and projecting out in the axial direction from the pipette main body, and a speed increasing dial is fitted to the projecting portion, and the speed increasing mechanism increases a speed of input rotation and transmits the input rotation with the increased speed to the push rod when the input rotation is input from the speed increasing dial, and transmits input rotation without any change to the push rod when the input rotation is input from the push rod.
A device for observing an object, by lensless imaging, including: - a light source that is able to generate a light wave, called the emission wave, that propagates along a propagation axis; - an image sensor; - a holder (10 s) that is able to hold an object and that is placed between the image sensor and the light source such that the image sensor is able to form an image of said object held on the holder; and - an optical system that is placed between the light source and the holder (10 s) and that is able to form, from said emission wave, a convergent incident wave (12 c) that propagates from said optical system to the holder (10 s); - the holder (10 s) defining a plane, called the object plane (P 10), that is perpendicular to the propagation axis and that passes through the holder, said optical system being able to conjugate said light source with a secondary source (11 s) that is located in a half space defined by said object plane (P 10) and that includes the image sensor; the device being characterized in that: - the optical system is configured such that the secondary source (11 s) is located closer to the image sensor than to the holder, such that the image of the object, held on the holder, on the image sensor is affected by a transverse magnification lower than 1. - a light source that is able to generate a light wave, called the emission wave, that propagates along a propagation axis; - an image sensor; - a holder (10 s) that is able to hold an object and that is placed between the image sensor and the light source such that the image sensor is able to form an image of said object held on the holder; and - an optical system that is placed between the light source and the holder (10 s) and that is able to form, from said emission wave, a convergent incident wave (12 c) that propagates from said optical system to the holder (10 s); - the holder (10 s) defining a plane, called the object plane (P 10), that is perpendicular to the propagation axis and that passes through the holder, said optical system being able to conjugate said light source with a secondary source (11 s) that is located in a half space defined by said object plane (P 10) and that includes the image sensor; - the optical system is configured such that the secondary source (11 s) is located closer to the image sensor than to the holder, such that the image of the object, held on the holder, on the image sensor is affected by a transverse magnification lower than 1.
A rechargeable battery comprising: an electrode assembly through which charging and discharging operations are performed; a case accommodating the electrode assembly and electrically connected to a first electrode of the electrode assembly; and a cap assembly connected to an opening of the case via a gasket and being electrically connected to a second electrode of the electrode assembly, wherein the cap assembly includes: a vent plate electrically connected to a cap plate; a middle plate electrically connected to the second electrode, the said middle plate being separated from the vent plate and comprising a through hole; a vent protruding from the vent plate and into the through hole; an insulator interposed between the vent plate and the middle plate; and a sub-plate electrically connecting the vent with the middle plate; characterized in that protrusions and grooves (G1, P1, G2, P2) facing the insulator are formed in at least one of the vent plate and the middle plate such that they are correspondingly combined with corresponding grooves and corresponding protrusions (CG1, CP1, CG2, CP2) of the insulator; and in that the insulator includes a first polyethylene layer formed in the vent plate, a second polyethylene layer formed in the middle plate, and a poly(butylene terephthalate) fiber layer integrally formed between the first and second polyethylene layers. an electrode assembly through which charging and discharging operations are performed; a case accommodating the electrode assembly and electrically connected to a first electrode of the electrode assembly; and a cap assembly connected to an opening of the case via a gasket and being electrically connected to a second electrode of the electrode assembly, wherein the cap assembly includes: a vent plate electrically connected to a cap plate; a middle plate electrically connected to the second electrode, the said middle plate being separated from the vent plate and comprising a through hole; a vent protruding from the vent plate and into the through hole; an insulator interposed between the vent plate and the middle plate; and a sub-plate electrically connecting the vent with the middle plate; a vent plate electrically connected to a cap plate; a middle plate electrically connected to the second electrode, the said middle plate being separated from the vent plate and comprising a through hole; a vent protruding from the vent plate and into the through hole; an insulator interposed between the vent plate and the middle plate; and a sub-plate electrically connecting the vent with the middle plate; characterized in that protrusions and grooves (G1, P1, G2, P2) facing the insulator are formed in at least one of the vent plate and the middle plate such that they are correspondingly combined with corresponding grooves and corresponding protrusions (CG1, CP1, CG2, CP2) of the insulator; and in that the insulator includes a first polyethylene layer formed in the vent plate, a second polyethylene layer formed in the middle plate, and a poly(butylene terephthalate) fiber layer integrally formed between the first and second polyethylene layers.
A rechargeable battery module comprising: at least one battery cell comprising: an electrode assembly having a first electrode and a second electrode, a case for accommodating the electrode assembly therein, a cap plate for closing an opening of the case, and a short circuit connector provided being electrically connected to the first electrode of the battery cell, and a short circuit member electrically connected to the second electrode and provided on a side surface of the case, the short circuit member having a first state being spaced apart from the short circuit connector and a second state being in contact with the short circuit connector, characterized in that the short circuit connector is provided with a cutout extending from the bottom of the short circuit connector. at least one battery cell comprising: an electrode assembly having a first electrode and a second electrode, a case for accommodating the electrode assembly therein, a cap plate for closing an opening of the case, and an electrode assembly having a first electrode and a second electrode, a case for accommodating the electrode assembly therein, a cap plate for closing an opening of the case, and a short circuit connector provided being electrically connected to the first electrode of the battery cell, and a short circuit member electrically connected to the second electrode and provided on a side surface of the case, the short circuit member having a first state being spaced apart from the short circuit connector and a second state being in contact with the short circuit connector, characterized in that the short circuit connector is provided with a cutout extending from the bottom of the short circuit connector.
A user equipment collision detection method, comprising: sending, by user equipment, a collision detection request on a common enhanced uplink dedicated channel, E-DCH, to a base station, wherein the collision detection request carries a first radio network temporary identifier, RNTI, corresponding to the user equipment, so that the base station determines whether the common E-DCH is occupied by other user equipment than the user equipment; receiving, by the user equipment, an acknowledgement message sent by the base station, wherein the acknowledgement message carries absolute grant, AG, information and a cyclic redundancy check, CRC, code; and determining, by the user equipment according to the first RNTI, the AG information, and the CRC code, whether the common E-DCH is an available resource. characterized in that the first RNTI comprises a first definition portion and a second definition portion; and the method further comprises: de-masking, by the user equipment, the CRC code by using the first definition portion; and if a CRC code is verified successfully, and the second definition portion is comprised in the AG information, determining, by the user equipment, that the common E-DCH is an available resource. sending, by user equipment, a collision detection request on a common enhanced uplink dedicated channel, E-DCH, to a base station, wherein the collision detection request carries a first radio network temporary identifier, RNTI, corresponding to the user equipment, so that the base station determines whether the common E-DCH is occupied by other user equipment than the user equipment; receiving, by the user equipment, an acknowledgement message sent by the base station, wherein the acknowledgement message carries absolute grant, AG, information and a cyclic redundancy check, CRC, code; and determining, by the user equipment according to the first RNTI, the AG information, and the CRC code, whether the common E-DCH is an available resource. characterized in that the first RNTI comprises a first definition portion and a second definition portion; and the method further comprises: de-masking, by the user equipment, the CRC code by using the first definition portion; and if a CRC code is verified successfully, and the second definition portion is comprised in the AG information, determining, by the user equipment, that the common E-DCH is an available resource. de-masking, by the user equipment, the CRC code by using the first definition portion; and if a CRC code is verified successfully, and the second definition portion is comprised in the AG information, determining, by the user equipment, that the common E-DCH is an available resource.
A method of coupling a protein ligand to a solid support, comprising: a) contacting the solid support with an associative group such that the associative group covalently binds to the solid support; b) activating the solid support using an activating group; and c) contacting the solid support with the protein ligand such that the protein ligand binds to the activated solid support and non-covalently interacts with the associative group of a); wherein the associative group and the activating group are both linked separately to the solid support; wherein the associative group (i) is at least one of the following: (a) a ionic species selected from the group consisting of a quaternary amine, a tertiary amine, a secondary amine, a primary amine, a sulfonic acid, a carboxylic acid, and combinations thereof; (b) a hydrophobic species selected from the group consisting of a phenyl group, a butyl group, a propyl group, and combinations thereof, and (ii) contains a functional group via which the associate group covalently binds to the solid support, said functional group being selected from the group consisting of an amine group, a hydroxyl group, a sulfhydryl group, a carboxyl group, an imine group, an aldehyde group, a ketone group, an alkene group, an alkyne group, an azo group, a nitrile group, an epoxide group and an activated carboxylic acid group; and wherein the activating group is at least one of the following: (a) a cyanogen; (b) an aldehyde, (c) an epoxide; (d) an activated carboxylic acid. a) contacting the solid support with an associative group such that the associative group covalently binds to the solid support; b) activating the solid support using an activating group; and c) contacting the solid support with the protein ligand such that the protein ligand binds to the activated solid support and non-covalently interacts with the associative group of a); (i) is at least one of the following: (a) a ionic species selected from the group consisting of a quaternary amine, a tertiary amine, a secondary amine, a primary amine, a sulfonic acid, a carboxylic acid, and combinations thereof; (b) a hydrophobic species selected from the group consisting of a phenyl group, a butyl group, a propyl group, and combinations thereof, and (ii) contains a functional group via which the associate group covalently binds to the solid support, said functional group being selected from the group consisting of an amine group, a hydroxyl group, a sulfhydryl group, a carboxyl group, an imine group, an aldehyde group, a ketone group, an alkene group, an alkyne group, an azo group, a nitrile group, an epoxide group and an activated carboxylic acid group; and
A device (10, 31, 32, 710, 720) comprising a processor (100, 310, 320, 400, 711, 722, 732) to: receive information of a set of devices including at least one network device (20, 40, 730), wherein the received information of the set of devices includes: an operating channel of each network device (20, 40, 730) in the set of devices, a basic service set, BSS, color value of each network device (20, 40, 730) in the set of devices, a received signal strength indication, RSSI, of each network device (20, 40, 730) in the set of devices, and the number of active frames of each network device (20, 40, 730) in the set of devices during a specified period; estimate interferences of each available BSS color value in a specified channel, based on a sum of interferences of the network devices (20, 40, 730) with that available color value, wherein the interference of each network device (20, 40, 730) is a function of the RSSI and number of active frames of the network device (20, 40, 730) in the set of devices during the specified period; and select one BSS color value from the available BSS color values with an estimated interference lower than the estimated interference of others from the available BSS color values. receive information of a set of devices including at least one network device (20, 40, 730), wherein the received information of the set of devices includes: an operating channel of each network device (20, 40, 730) in the set of devices, a basic service set, BSS, color value of each network device (20, 40, 730) in the set of devices, a received signal strength indication, RSSI, of each network device (20, 40, 730) in the set of devices, and the number of active frames of each network device (20, 40, 730) in the set of devices during a specified period; estimate interferences of each available BSS color value in a specified channel, based on a sum of interferences of the network devices (20, 40, 730) with that available color value, wherein the interference of each network device (20, 40, 730) is a function of the RSSI and number of active frames of the network device (20, 40, 730) in the set of devices during the specified period; and select one BSS color value from the available BSS color values with an estimated interference lower than the estimated interference of others from the available BSS color values.
A reinforcement structure for coronal-radicular dental reconstitution comprising: - a plurality of pins having diameters ranging from 0.1 mm to 0.8mm, - an assembly part configured to group the plurality of pins so as to form a bundle of pins, said assembly part partially covering the length of the pins so that each pin presents a free end mobile in flexion and in translation with respect to the other pins of the bundle of pins. - a plurality of pins having diameters ranging from 0.1 mm to 0.8mm, - an assembly part configured to group the plurality of pins so as to form a bundle of pins, said assembly part partially covering the length of the pins so that each pin presents a free end mobile in flexion and in translation with respect to the other pins of the bundle of pins.
A heterobifunctional monodispersed polyethylene glycol represented by the formula: wherein, in the formula, X 1 and Y 1 are each an atomic group containing at least a functional group capable of forming a covalent bond upon a reaction with a functional group present in a biofunctional molecule, the functional group contained in the atomic group X 1 and the functional group contained in the atomic group Y 1 are different from each other; R 1 is a hydrocarbon group having from 1 to 7 carbon atoms or a hydrogen atom; n is an integer of 3 to 72; l is an integer of 2 to 72; A 1 represents -L 1 -(CH 2) m1 - or -L 1 -(CH 2) m1 -L 2 -(CH 2) m2 -, L 1 represents an ether bond, an amide bond, an urethane bond, a secondary amino group or a single bond, L 2 represents an amide bond or an urethane bond, and m1 and m2 represent each independently an integer of 1 to 5; B 1 represents -L 3 -(CH 2) m3 -, -L 3 -(CH 2) m3 -L 4 -(CH 2) m4 - or a single bond, L 3 represents an amide bond or a single bond, L 4 represents an ether bond, an amide bond or an urethane bond, and m3 and m4 represent each independently an integer of 1 to 5; and C 1 represents -L 5 -(CH 2) m5 -, -O-CH 2 - or a single bond, L 5 represents an amide bond, an urethane bond, a secondary amino group or a single bond, and m5 represents an integer of 1 to 5. X 1 and Y 1 are each an atomic group containing at least a functional group capable of forming a covalent bond upon a reaction with a functional group present in a biofunctional molecule, the functional group contained in the atomic group X 1 and the functional group contained in the atomic group Y 1 are different from each other; R 1 is a hydrocarbon group having from 1 to 7 carbon atoms or a hydrogen atom; n is an integer of 3 to 72; l is an integer of 2 to 72; A 1 represents -L 1 -(CH 2) m1 - or -L 1 -(CH 2) m1 -L 2 -(CH 2) m2 -, L 1 represents an ether bond, an amide bond, an urethane bond, a secondary amino group or a single bond, L 2 represents an amide bond or an urethane bond, and m1 and m2 represent each independently an integer of 1 to 5; B 1 represents -L 3 -(CH 2) m3 -, -L 3 -(CH 2) m3 -L 4 -(CH 2) m4 - or a single bond, L 3 represents an amide bond or a single bond, L 4 represents an ether bond, an amide bond or an urethane bond, and m3 and m4 represent each independently an integer of 1 to 5; and C 1 represents -L 5 -(CH 2) m5 -, -O-CH 2 - or a single bond, L 5 represents an amide bond, an urethane bond, a secondary amino group or a single bond, and m5 represents an integer of 1 to 5.
A transmission apparatus comprising: a setting section adapted to perform settings regarding a resource capable of grant-free transmission and a plurality of transmission patterns, wherein a correspondence is set between each transmission pattern and predetermined pieces of information, the predetermined pieces of information of the transmission patterns being different from each other; and a communication processing section adapted to send data in a grant-free manner in the resource capable of grant-free transmission by using a transmission pattern selected from among the plurality of transmission patterns, wherein the predetermined pieces of information include information for processing of receiving the data and the predetermined pieces of information include the number of performed transmissions of the data in retransmission control. a setting section adapted to perform settings regarding a resource capable of grant-free transmission and a plurality of transmission patterns, wherein a correspondence is set between each transmission pattern and predetermined pieces of information, the predetermined pieces of information of the transmission patterns being different from each other; and a communication processing section adapted to send data in a grant-free manner in the resource capable of grant-free transmission by using a transmission pattern selected from among the plurality of transmission patterns, wherein the predetermined pieces of information include information for processing of receiving the data and the predetermined pieces of information include the number of performed transmissions of the data in retransmission control.