mhurhangee/ep-ind-claims huggingface dataset:
A rotary latch assembly comprising: a front plate; a back plate connected to the front plate; a pair of axles mounted between the front and back plates; a rotor rotatively mounted on one of the axles for movement between latched and unlatched functional positions; and a catch rotatively mounted on the other one of the axles for movement between latched and unlatched functional positions; the rotary latch assembly characterized by: the front plate being C-shaped with opposite flanges (24, 26) and an interconnecting face, with the axles being mounted to the face of the front plate, and one the flanges having a window (30, 34) to receive a door strike; the rotor and catch each having opposite first and second faces, and each being mountable in a first mounting position on the axles with the first faces directed outwardly to form a right-handed latch and in a second mounting position on the opposite axles with the second faces directed outwardly to form a left-handed latch; and the front and back plates being oriented the same in both the right-handed and left-handed latches. a front plate; a back plate connected to the front plate; a pair of axles mounted between the front and back plates; a rotor rotatively mounted on one of the axles for movement between latched and unlatched functional positions; and a catch rotatively mounted on the other one of the axles for movement between latched and unlatched functional positions; the rotary latch assembly characterized by: the front plate being C-shaped with opposite flanges (24, 26) and an interconnecting face, with the axles being mounted to the face of the front plate, and one the flanges having a window (30, 34) to receive a door strike; the rotor and catch each having opposite first and second faces, and each being mountable in a first mounting position on the axles with the first faces directed outwardly to form a right-handed latch and in a second mounting position on the opposite axles with the second faces directed outwardly to form a left-handed latch; and the front and back plates being oriented the same in both the right-handed and left-handed latches. the front plate being C-shaped with opposite flanges (24, 26) and an interconnecting face, with the axles being mounted to the face of the front plate, and one the flanges having a window (30, 34) to receive a door strike; the rotor and catch each having opposite first and second faces, and each being mountable in a first mounting position on the axles with the first faces directed outwardly to form a right-handed latch and in a second mounting position on the opposite axles with the second faces directed outwardly to form a left-handed latch; and the front and back plates being oriented the same in both the right-handed and left-handed latches.
A method performed by a wireless communication device, comprising: performing sidelink communication on a first sidelink channel resource unit of a first sidelink channel, determining a second sidelink channel resource unit of a second sidelink channel according to the first sidelink channel in a sidelink channel couple; performing sidelink communication on the second sidelink channel resource unit; determining, according to a first number of resource units in a time domain and a third starting symbol position in the time domain of the first sidelink channel resource unit, a first starting symbol position in the time domain of the second sidelink channel resource unit being a starting symbol in a time slot, wherein: the sidelink channel couple comprises the first sidelink channel and the second sidelink channel, the first sidelink channel resource unit comprises the first number of first resource units in a time domain and a second number of second resource units in a frequency domain, and the second sidelink channel resource unit comprises a third number of first resource units in the time domain and a fourth number of second resource units in the frequency domain; and determining, according to an indication in the first sidelink channel, the fourth number of second resource units in the frequency domain of the second sidelink channel resource unit. performing sidelink communication on a first sidelink channel resource unit of a first sidelink channel, determining a second sidelink channel resource unit of a second sidelink channel according to the first sidelink channel in a sidelink channel couple; performing sidelink communication on the second sidelink channel resource unit; determining, according to a first number of resource units in a time domain and a third starting symbol position in the time domain of the first sidelink channel resource unit, a first starting symbol position in the time domain of the second sidelink channel resource unit being a starting symbol in a time slot, wherein: the sidelink channel couple comprises the first sidelink channel and the second sidelink channel, the first sidelink channel resource unit comprises the first number of first resource units in a time domain and a second number of second resource units in a frequency domain, and the second sidelink channel resource unit comprises a third number of first resource units in the time domain and a fourth number of second resource units in the frequency domain; and the sidelink channel couple comprises the first sidelink channel and the second sidelink channel, the first sidelink channel resource unit comprises the first number of first resource units in a time domain and a second number of second resource units in a frequency domain, and the second sidelink channel resource unit comprises a third number of first resource units in the time domain and a fourth number of second resource units in the frequency domain; and determining, according to an indication in the first sidelink channel, the fourth number of second resource units in the frequency domain of the second sidelink channel resource unit.
A location update processing method, comprising: when a User Equipment, UE, leaves the coverage of a first core network device and performs location update, sending, by a second core network device, to the first core network device, a timer, wherein the timer is started at the same time when the first core network device receives the timer or after the first core network device receives the timer; or saving a timer in the first core network device in advance, wherein the timer is started at the same time when or after the first core network device receives instruction information sent by the second core network device; and when the UE enters the coverage of the first core network device again and performs location update, determining, by the first core network device and at least according to that the timer does not time out, that context information of the UE is available, and sending, by the first core network device, to a second core network device, a location update request that at least comprises information that the context information of the UE is available; and executing, by the first core network device, location update at least according to the context information of the UE. when a User Equipment, UE, leaves the coverage of a first core network device and performs location update, sending, by a second core network device, to the first core network device, a timer, wherein the timer is started at the same time when the first core network device receives the timer or after the first core network device receives the timer; or saving a timer in the first core network device in advance, wherein the timer is started at the same time when or after the first core network device receives instruction information sent by the second core network device; and when the UE enters the coverage of the first core network device again and performs location update, determining, by the first core network device and at least according to that the timer does not time out, that context information of the UE is available, and sending, by the first core network device, to a second core network device, a location update request that at least comprises information that the context information of the UE is available; and executing, by the first core network device, location update at least according to the context information of the UE.
A metal-containing sorbent comprising: a) a precursor comprising a reaction product of a mixture comprising 1) a porous siliceous material having mesopores; and 2) a surface treatment agent in an amount in a range of 0.1 to 4.5 mmoles per gram of the porous siliceous material, the surface treatment agent comprising (a) a silane of Formula R 1 -Si(R 2) 3-x (R 3) x wherein R 1 is a hydrocarbon or fluorinated hydrocarbon group; R 2 is a hydrolyzable group; R 3 is a non-hydrolyzable group; x in an integer equal to 0, 1, or 2; or (b) a disilazane of Formula (R 4) 3 -Si-NH-Si(R 4) 3 wherein each R 4 is a hydrocarbon group; or (c) a mixture of the silane of Formula and the disilazane of Formula; and b) a divalent metal impregnated into the precursor in an amount equal to at least 5 weight percent based on the total weight of the sorbent. a) a precursor comprising a reaction product of a mixture comprising 1) a porous siliceous material having mesopores; and 2) a surface treatment agent in an amount in a range of 0.1 to 4.5 mmoles per gram of the porous siliceous material, the surface treatment agent comprising (a) a silane of Formula R 1 -Si(R 2) 3-x (R 3) x wherein R 1 is a hydrocarbon or fluorinated hydrocarbon group; R 2 is a hydrolyzable group; R 3 is a non-hydrolyzable group; x in an integer equal to 0, 1, or 2; or (b) a disilazane of Formula (R 4) 3 -Si-NH-Si(R 4) 3 wherein each R 4 is a hydrocarbon group; or (c) a mixture of the silane of Formula and the disilazane of Formula; and 1) a porous siliceous material having mesopores; and 2) a surface treatment agent in an amount in a range of 0.1 to 4.5 mmoles per gram of the porous siliceous material, the surface treatment agent comprising (a) a silane of Formula R 1 -Si(R 2) 3-x (R 3) x wherein R 1 is a hydrocarbon or fluorinated hydrocarbon group; R 2 is a hydrolyzable group; R 3 is a non-hydrolyzable group; x in an integer equal to 0, 1, or 2; or (b) a disilazane of Formula (R 4) 3 -Si-NH-Si(R 4) 3 wherein each R 4 is a hydrocarbon group; or (c) a mixture of the silane of Formula and the disilazane of Formula; and (a) a silane of Formula R 1 -Si(R 2) 3-x (R 3) x wherein R 1 is a hydrocarbon or fluorinated hydrocarbon group; R 2 is a hydrolyzable group; R 3 is a non-hydrolyzable group; x in an integer equal to 0, 1, or 2; or R 1 is a hydrocarbon or fluorinated hydrocarbon group; R 2 is a hydrolyzable group; R 3 is a non-hydrolyzable group; x in an integer equal to 0, 1, or 2; or (b) a disilazane of Formula (R 4) 3 -Si-NH-Si(R 4) 3 wherein each R 4 is a hydrocarbon group; or (c) a mixture of the silane of Formula and the disilazane of Formula; and b) a divalent metal impregnated into the precursor in an amount equal to at least 5 weight percent based on the total weight of the sorbent.
Process for the manufacture of 2-methylpentamethylenediamine and 3-methylpiperidine by hydrogenation of methylglutaronitrile, characterized in that the hydrogenation is carried out in the presence of a catalyst comprising cobalt and, as doping elements, nickel and chromium at an absolute hydrogen pressure of less than 50 bar.
An electric line wiring structure of a plug (10, 20, 30, 40), the plug (10, 20, 30, 40) comprising a plurality of terminals (12, 13, 22, 23, 32, 33, 42, 43) to be inserted into a power supply, the plurality of terminals (12, 13, 22, 23, 32, 33, 42, 43) protruding on a front side of a plug main body (11, 21, 31, 41); and electric lines (14, 15, 24, 25, 34, 35, 44, 45) connected to the terminals (12, 13, 22, 23, 32, 33, 42, 43), the electric lines (14, 15, 24, 25, 34, 35, 44, 45) being connected on a rear side of the plug main body (11, 21, 31, 41); wherein: an electric line wiring section (17, 27, 37, 47) for wiring the electric lines (14, 15, 24, 25, 34, 35, 44, 45) connected to the terminals (12, 13, 22, 23, 32, 33, 42, 43) is provided in the plug main body (11, 21, 31, 41); an electric line holding section (17a - 17c, 27a - 27c, 37a - 37c, 47a - 47c) configured to hold the electric lines (14, 15, 24, 25, 34, 35, 44, 45) in a deformed state is provided on a wiring path (C1, C2, C3, C4) on which the electric lines (14, 15, 24, 25, 34, 35, 44, 45) are laid out, which are set in the electric line wiring section (17, 27, 37, 47), the electric lines (14, 15, 24, 25, 34, 35, 44, 45) being deformed in a direction perpendicular to the wiring path (C1, C2, C3, C4); and the electric line wiring structure further comprises a thermistor for detecting a temperature and signal lines, wherein the thermistor is connected to the signal lines, characterized in that under load the signal lines are more easily broken than core wires (14a, 15a, 24a, 25a, 34a, 35a, 44a, 45a) of the electric lines (14, 15, 24, 25, 34, 35, 44, 45). an electric line wiring section (17, 27, 37, 47) for wiring the electric lines (14, 15, 24, 25, 34, 35, 44, 45) connected to the terminals (12, 13, 22, 23, 32, 33, 42, 43) is provided in the plug main body (11, 21, 31, 41); an electric line holding section (17a - 17c, 27a - 27c, 37a - 37c, 47a - 47c) configured to hold the electric lines (14, 15, 24, 25, 34, 35, 44, 45) in a deformed state is provided on a wiring path (C1, C2, C3, C4) on which the electric lines (14, 15, 24, 25, 34, 35, 44, 45) are laid out, which are set in the electric line wiring section (17, 27, 37, 47), the electric lines (14, 15, 24, 25, 34, 35, 44, 45) being deformed in a direction perpendicular to the wiring path (C1, C2, C3, C4); and the electric line wiring structure further comprises a thermistor for detecting a temperature and signal lines, wherein the thermistor is connected to the signal lines, characterized in that under load the signal lines are more easily broken than core wires (14a, 15a, 24a, 25a, 34a, 35a, 44a, 45a) of the electric lines (14, 15, 24, 25, 34, 35, 44, 45).
Piece of furniture having a basic furniture structure and a movable furniture flap, which is accommodated on the basic furniture structure and has a device for moving the furniture flap, which is accommodated on the basic furniture structure of the piece of furniture, wherein the furniture flap is panel-like, and wherein guide means of the device are provided, the guide means having at least one pivot arm (14.1 - 14.9) for pivoting the furniture flap and making it possible, when the device has been mounted in place, to move the furniture flap from a closed position into an open position of the furniture flap relative to the basic furniture structure, and back, wherein the device has a base unit, which can be fitted on the basic furniture structure, and a mounting unit, which can be fitted on the furniture flap, wherein the base unit and the mounting unit are connected via the guide means, wherein the mounting unit comprises adjusting means, by means of which it is possible to adjust the relative position between the mounting unit and a part of the guide means that acts on the mounting unit, wherein the adjusting means are accommodated in a lower-level region in relation to an upper side of the mounting unit, wherein the basic furniture structure comprises a side wall, wherein the side wall has an end side, an inner side and an outer side, which is located opposite the inner side, characterized in that the base unit has a base plate and the base unit is inserted, by way of the base plate, into a material recess in the inner side of the side wall, wherein the material recess is present in the form of a depression in the inner side, wherein the material recess has a lower-level region in relation to the planar inner side of the side wall.
Device for bunching sample particles, the device comprising a body, being formed as a chip, from a body material being a chip material, a fluid channel extending through the body, wherein the fluid channel is formed by the body, an acoustic wave guide embedded in the body, and an acoustic wave condenser embedded in the body, wherein the fluid channel forms a fluid path through the body, such that the fluid channel is configured to guide a flow of a sample fluid, in which sample particles are distributed, through the fluid channel along the fluid path, wherein the wave guide is configured to guide an acoustic reference wave, when transmitted via the body to the wave guide, to an application region of the fluid channel, wherein the wave condenser at least partly forms the application region of the fluid channel, and wherein the wave condenser is configured to generate a standing acoustic wave in the application region from the reference wave when the wave guide guides the reference wave into the application region resulting in an acoustic force field in the application region, which pushes sample particles when entering the application region into at least one bunch of sample particles in the application region; characterized in that the wave guide is formed by the body and at least one cavity in the body. a body, being formed as a chip, from a body material being a chip material, a fluid channel extending through the body, wherein the fluid channel is formed by the body, an acoustic wave guide embedded in the body, and an acoustic wave condenser embedded in the body, wherein the fluid channel forms a fluid path through the body, such that the fluid channel is configured to guide a flow of a sample fluid, in which sample particles are distributed, through the fluid channel along the fluid path, wherein the wave guide is configured to guide an acoustic reference wave, when transmitted via the body to the wave guide, to an application region of the fluid channel, wherein the wave condenser at least partly forms the application region of the fluid channel, and wherein the wave condenser is configured to generate a standing acoustic wave in the application region from the reference wave when the wave guide guides the reference wave into the application region resulting in an acoustic force field in the application region, which pushes sample particles when entering the application region into at least one bunch of sample particles in the application region; characterized in that the wave guide is formed by the body and at least one cavity in the body.
A silicon composite material for use as a rechargeable battery anode, comprising (i) an electrically conductive substrate comprising a foil of copper or titanium, (ii) an adhesion layer attached to the foil comprising at least one or more metals and/or metal compounds and (iii) an electrode layer comprising silicon attached to the adhesion layer, wherein the metals and/or metal compounds comprise zinc and/or tin, and oxides of zinc and/or tin, respectively, and wherein the adhesion layer has a thickness of from 0.1 up to and including 5 nm
A method of manufacturing a functionalized implant, comprising the steps of: a) providing a substrate for the implant; b) applying a highly porous, highly hydrophilic coating, wherein at first at least one of the following materials is applied for functionalization: - zirconium, titanium, - zirconium or titanium alloy, and wherein c) a calcium phosphate layer in the form of brushite is applied onto the implant by means of an electrochemical process, wherein the coated substrate is finally placed in a NaOH solution, whereby the layers are chemically converted to calcium titanate or calcium zirconate. a) providing a substrate for the implant; b) applying a highly porous, highly hydrophilic coating, wherein at first at least one of the following materials is applied for functionalization: - zirconium, titanium, - zirconium or titanium alloy, and wherein - zirconium, titanium, - zirconium or titanium alloy, and wherein c) a calcium phosphate layer in the form of brushite is applied onto the implant by means of an electrochemical process, wherein the coated substrate is finally placed in a NaOH solution, whereby the layers are chemically converted to calcium titanate or calcium zirconate.
Balance for horological movement, comprising rigid portions consisting of a hub defining the pivot axis of said balance, a felloe, four arms connecting said felloe to the hub, and including four slots for receiving and gripping in position an inertiablock (6,6'), each slot being delimited on the one hand by an arm, and on the other hand by an elastic arm including a first end integral with said arm, and a second distal end free in relation to said hub, to said arm, and in relation to the felloe, the balance comprising two pairs of inertia-blocks (6,6'), each pair of inertia-blocks (6,6') having different masses to ensure different adjusting powers, a first pair of inertia-blocks for a basic adjustment, and a second pair of inertia-blocks for a precise adjustment.
An input/output receiver (200, 400), comprising: a first transfer gate having a PMOS transistor and an NMOS transistor electrically connected in parallel; a first inverter; a second inverter; a second transfer gate having a PMOS transistor and an NMOS transistor electrically connected in parallel; a third inverter; a fourth inverter; a first power supply (VDDIO) configured to supply power to the first inverter and the second inverter; a second power supply configured to supply power to the third inverter and the fourth inverter; a third power supply (VDDC) connected to a gate of the PMOS transistor of the second transfer gate; and a first signal having a first logic level and a second signal having a second logic level opposite the first logic level, the first and second signal being derived from a core signal configured to enable and disable the IO receiver (200, 400), wherein the first transfer gate, the first inverter, the second inverter, the second transfer gate, the third inverter, and the fourth inverter are connected in series, wherein a gate of the PMOS transistor of the first transfer gate is connected to the first signal, a gate of the NMOS transistor of the first transfer gate is connected to the second signal, and a gate of the NMOS transistor of the second transfer gate is connected to the first power supply (VDDIO). a first transfer gate having a PMOS transistor and an NMOS transistor electrically connected in parallel; a first inverter; a second inverter; a second transfer gate having a PMOS transistor and an NMOS transistor electrically connected in parallel; a third inverter; a fourth inverter; a first power supply (VDDIO) configured to supply power to the first inverter and the second inverter; a second power supply configured to supply power to the third inverter and the fourth inverter; a third power supply (VDDC) connected to a gate of the PMOS transistor of the second transfer gate; and a first signal having a first logic level and a second signal having a second logic level opposite the first logic level, the first and second signal being derived from a core signal configured to enable and disable the IO receiver (200, 400), wherein the first transfer gate, the first inverter, the second inverter, the second transfer gate, the third inverter, and the fourth inverter are connected in series, wherein a gate of the PMOS transistor of the first transfer gate is connected to the first signal, a gate of the NMOS transistor of the first transfer gate is connected to the second signal, and a gate of the NMOS transistor of the second transfer gate is connected to the first power supply (VDDIO).