mhurhangee/ep-ind-claims huggingface dataset:
A sensor insertion device for inserting into a patient's body a sensor for measuring biological information, the sensor insertion device comprising: a cylindrical sheath having a lower end opening and an upper end opening; a cylindrical handle configured to slidably cover an outer peripheral surface of the sheath and to slide up and down in an axial direction of the cylindrical sheath; an operating body that is provided in the handle and configured to move up and down integrally with the handle; a carrier that is provided below the operating body; a guide needle holder that is provided at a lower end of the carrier, and configured to detachably hold a guide needle that is inserted into the patient's body at a specific insertion position for guiding the sensor in an insertion direction; and an arm that is supported rotatably around a rotation shaft fixed to the cylindrical sheath, wherein the arm has an outer end portion disposed on an outer peripheral surface side of the sheath, and an inner end portion disposed on an inner peripheral surface side of the sheath, the handle has an arm operation surface that abuts on the outer end portion of the arm, the carrier has an arm receiver that abuts on the inner end portion of the arm, and the operating body is formed in a cylindrical shape, characterised in that the carrier further has a cylindrical receiver that abuts on the operating body, and the receiver has an abutting protrusion that is provided to a portion that abuts on the operating body, wherein the receiver has a bending portion that is configured to bend inward, and the bending portion has the abutting protrusion. a cylindrical sheath having a lower end opening and an upper end opening; a cylindrical handle configured to slidably cover an outer peripheral surface of the sheath and to slide up and down in an axial direction of the cylindrical sheath; an operating body that is provided in the handle and configured to move up and down integrally with the handle; a carrier that is provided below the operating body; a guide needle holder that is provided at a lower end of the carrier, and configured to detachably hold a guide needle that is inserted into the patient's body at a specific insertion position for guiding the sensor in an insertion direction; and an arm that is supported rotatably around a rotation shaft fixed to the cylindrical sheath, wherein the arm has an outer end portion disposed on an outer peripheral surface side of the sheath, and an inner end portion disposed on an inner peripheral surface side of the sheath, the handle has an arm operation surface that abuts on the outer end portion of the arm, the carrier has an arm receiver that abuts on the inner end portion of the arm, and the operating body is formed in a cylindrical shape, characterised in that the carrier further has a cylindrical receiver that abuts on the operating body, and the receiver has an abutting protrusion that is provided to a portion that abuts on the operating body, wherein the receiver has a bending portion that is configured to bend inward, and the bending portion has the abutting protrusion.
A process for limiting the emission of dust from catalyst grains comprising the following two consecutive steps: - a first step consisting in carrying out a heat treatment of the catalyst grains at a temperature greater than or equal to 100°C, followed by - a second step that consists in carrying out a coating of the surface of the catalyst grains, by placing these grains in contact with one or more coating materials having a melting point T greater than or equal to 45°C and which are introduced in the solid state, said second step being carried out without any fresh supply of heat, at a temperature ranging from T - 60°C to T - 1°C, while remaining greater than or equal to 40°C. - a first step consisting in carrying out a heat treatment of the catalyst grains at a temperature greater than or equal to 100°C, followed by - a second step that consists in carrying out a coating of the surface of the catalyst grains, by placing these grains in contact with one or more coating materials having a melting point T greater than or equal to 45°C and which are introduced in the solid state,
Fall prevention safety device for the head-carrying carriage of drilling machines, wherein said carriage translates on at least one guide-rail of a drilling mast, said translation being controlled by at least one motor unit with at least one driving pinion of a drive chain, said safety device being characterized in that it comprises: at least one safety cable suited to be directly or indirectly constrained between said head-carrying carriage and at least one rotating drum; said at least one rotating drum for winding said safety cable, suited to be mounted in proximity to the motor unit of the guide-rail of the drilling mast, and wherein said drum is mechanically connected to said motor of the drilling machine, so that it rotates according to the translation of said head-carrying carriage in such a way as to maintain said safety cable constantly tight, so that when said drive chain is no longer tight said safety cable holds said carriage and prevents it from falling down. at least one safety cable suited to be directly or indirectly constrained between said head-carrying carriage and at least one rotating drum; said at least one rotating drum for winding said safety cable, suited to be mounted in proximity to the motor unit of the guide-rail of the drilling mast,
An absorbent article comprising, as an absorbent material, fibres of a water-insoluble cellulose alkyl sulfonate, wherein the cellulose is substituted with one type of alkyl sulfonate, the alkyl moiety of the alkyl sulfonate substituent group having 1 to 6 carbon atoms, and the fibres swell when fluid is absorbed, and wherein the absorbent article does not contain hydrogel.
Expansion joint profile system for producing an expansion joint in the manufacture of a rigid floor covering, comprising - a profile having a first profile element made of a first material and having an L-shaped cross-section, extending in a longitudinal direction and having a first support leg intended to rest on a substrate and a first abutment leg connected to one of the longitudinal edges of the support leg and projecting upwardly therefrom, a second profile element made of the first material and having a second abutment leg corresponding to the first abutment leg and extending in particular parallel to the first abutment leg, and a ridge-like formed connecting element made of a second material having a higher elasticity than the first material and extending in the longitudinal direction between the two profile elements (4, 5) connecting them to one another in the lower region and, together with the two abutment legs, forms an insertion opening which is open at the top and extends in the longitudinal direction, and - a sealing element made of a third material having a higher elasticity than the first material and extending in the longitudinal direction, said sealing element has a T-shaped cross-section with a downwardly projecting insertion leg designed for insertion into the insertion opening and with two laterally projecting compression legs, wherein the compression legs, when the insertion leg is arranged in the insertion opening, project outwardly from the abutment legs, respectively, wherein the third material can correspond to the second material, characterized in that the second material is a soft set silicone material. - a profile having a first profile element made of a first material and having an L-shaped cross-section, extending in a longitudinal direction and having a first support leg intended to rest on a substrate and a first abutment leg connected to one of the longitudinal edges of the support leg and projecting upwardly therefrom, a second profile element made of the first material and having a second abutment leg corresponding to the first abutment leg and extending in particular parallel to the first abutment leg, and a ridge-like formed connecting element made of a second material having a higher elasticity than the first material and extending in the longitudinal direction between the two profile elements (4, 5) connecting them to one another in the lower region and, together with the two abutment legs, forms an insertion opening which is open at the top and extends in the longitudinal direction, and - a sealing element made of a third material having a higher elasticity than the first material and extending in the longitudinal direction, said sealing element has a T-shaped cross-section with a downwardly projecting insertion leg designed for insertion into the insertion opening and with two laterally projecting compression legs, wherein the compression legs, when the insertion leg is arranged in the insertion opening, project outwardly from the abutment legs, respectively, wherein the third material can correspond to the second material,
A method comprising: - disposing a compliant bonding structure (32, 42) of a plurality of metal bumps between a semiconductor device and a mount; and - bonding the semiconductor device to the mount by applying pressure, wherein bonding causes the compliant bonding structure (32, 42) to collapse such that the bonding structure (32, 42) electrically and mechanically connects the semiconductor device to the mount, wherein the bonding structure (32, 42) remains in a solid phase during bonding, and wherein the plurality of metal bumps (32, 42) comprise a metal with a Young's modulus less than 150 GPa, characterized in that, after bonding, the collapsed metal bumps have a height less than 50% of the original height. - disposing a compliant bonding structure (32, 42) of a plurality of metal bumps between a semiconductor device and a mount; and - bonding the semiconductor device to the mount by applying pressure, wherein bonding causes the compliant bonding structure (32, 42) to collapse such that the bonding structure (32, 42) electrically and mechanically connects the semiconductor device to the mount,
A topical composition comprising a therapeutically effective quantity of an enzymatically-active ribonuclease as sole active agent, and an aqueous, viscous vehicle that does not unacceptably interfere with the enzymatic activity of the ribonuclease, wherein the aqueous, viscous vehicle is a gel, a lotion, cream, emulsion, ointment or a micellar system.
A reference clock duty cycle calibration circuit, comprising: a first low-noise low-dropout regulator, configured to provide a low-noise voltage; an oscillation circuit, configured to generate a sine wave signal under the driving of the low-noise voltage; a duty cycle adjustment circuit, configured to adjust, based on a first reference voltage, a duty cycle of a first reference clock signal generated based on the sine wave signal; and a duty cycle calibration circuit, comprising: a duty cycle detection circuit, configured to detect the duty cycle of the first reference clock signal, and adjust an amplitude of an output signal of the duty cycle detection circuit based on the duty cycle of the first reference clock signal; and a second low-noise low-dropout regulator, configured to adjust and output the first reference voltage based on the amplitude of the output signal of the duty cycle detection circuit, wherein a value of the first reference voltage is directly proportional to the amplitude of the output signal of the duty cycle detection circuit. a first low-noise low-dropout regulator, configured to provide a low-noise voltage; an oscillation circuit, configured to generate a sine wave signal under the driving of the low-noise voltage; a duty cycle adjustment circuit, configured to adjust, based on a first reference voltage, a duty cycle of a first reference clock signal generated based on the sine wave signal; and a duty cycle calibration circuit, comprising: a duty cycle detection circuit, configured to detect the duty cycle of the first reference clock signal, and adjust an amplitude of an output signal of the duty cycle detection circuit based on the duty cycle of the first reference clock signal; and a second low-noise low-dropout regulator, configured to adjust and output the first reference voltage based on the amplitude of the output signal of the duty cycle detection circuit, wherein a value of the first reference voltage is directly proportional to the amplitude of the output signal of the duty cycle detection circuit. a duty cycle detection circuit, configured to detect the duty cycle of the first reference clock signal, and adjust an amplitude of an output signal of the duty cycle detection circuit based on the duty cycle of the first reference clock signal; and a second low-noise low-dropout regulator, configured to adjust and output the first reference voltage based on the amplitude of the output signal of the duty cycle detection circuit, wherein a value of the first reference voltage is directly proportional to the amplitude of the output signal of the duty cycle detection circuit.
A method for efficient utilization of a transport capacity provided by an Optical Transport Network, OTN, the method comprising the steps of: (a) mapping client signals comprising Lower Order, LO, Optical Data Units, LO ODUk, into Optical Data Tributary Units, ODTU, each requiring a number of Tributary Slots, TS, of an aggregate OPU_N payload area having a size corresponding to the available aggregated OPU payload areas of Nx independent Higher Order, HO, Optical Data Units, HO ODUk, to be transported; (b) multiplexing the Optical Data Tributary Units, ODTU, into the aggregate OPU_N payload area; (c) mapping the Tributary Slots, TS, of the aggregate OPU_N payload area into Tributary Slots, TS, provided by the OPU payload areas of the Nx independent Higher Order, HO, Optical Data Units, HO ODUk, according to a predefined mapping rule, MR; and (d) further multiplexing the Nx independent Optical Data Units, ODUk, containing the OPU payload areas or transmitting them as Optical Transport Units, OTUk; (e) wherein the Lower Order, LO, Optical Data Units, LO ODUk, are mapped into the Optical Data Tributary Units, ODTU, by an asynchronous mapping procedure; and (f) wherein the predefined mapping rule, MR, indicates a mapping between Tributary Slots, TS, of the aggregate OPU_N payload area and Tributary Slots, TS, provided by the OPU payload area of Nx independent Optical Data Units, ODUk; and (g) wherein the predefined mapping rule, MR, indicates a mapping as follows: TS(A,B) ↔ TS @ OTUk wherein A is an OPU payload identifier, OID, identifying the OPU payload of an individual Optical Data Unit, ODUk, from a set of available Optical Data Units, ODUk, and B is a Tributary Slot, TS, number of an available Tributary Slot, TS, provided by the OPU payload of the individual Optical Data Unit, ODUk. (a) mapping client signals comprising Lower Order, LO, Optical Data Units, LO ODUk, into Optical Data Tributary Units, ODTU, each requiring a number of Tributary Slots, TS, of an aggregate OPU_N payload area having a size corresponding to the available aggregated OPU payload areas of Nx independent Higher Order, HO, Optical Data Units, HO ODUk, to be transported; (b) multiplexing the Optical Data Tributary Units, ODTU, into the aggregate OPU_N payload area; (c) mapping the Tributary Slots, TS, of the aggregate OPU_N payload area into Tributary Slots, TS, provided by the OPU payload areas of the Nx independent Higher Order, HO, Optical Data Units, HO ODUk, according to a predefined mapping rule, MR; and (d) further multiplexing the Nx independent Optical Data Units, ODUk, containing the OPU payload areas or transmitting them as Optical Transport Units, OTUk; (e) wherein the Lower Order, LO, Optical Data Units, LO ODUk, are mapped into the Optical Data Tributary Units, ODTU, by an asynchronous mapping procedure; and (f) wherein the predefined mapping rule, MR, indicates a mapping between Tributary Slots, TS, of the aggregate OPU_N payload area and Tributary Slots, TS, provided by the OPU payload area of Nx independent Optical Data Units, ODUk; and (g) wherein the predefined mapping rule, MR, indicates a mapping as follows: TS(A,B) ↔ TS @ OTUk
An optical waveguide including a first substrate incorporating a first optical guiding structure being flushed with a surface of the first substrate, a second substrate incorporating a second optical guiding structure being flushed with a surface of the second substrate, these two substrates (10; 20) being assembled superimposed by theirs surfaces (11, 21) such that the two optical guiding structures (12, 22) face each other and extend in a same direction (z), a channel being fitted between the first and the second guiding structure (12, 22), directed along said direction (z), this channel having a cross-section a large dimension (dr) of which is substantially parallel to the surface of the first substrate and to the surface of the second substrate, this channel being configured to accommodate a liquid fluid on substantially its entire length.
A hydraulic brake assembly for a bicycle, the bicycle including a master cylinder operated by a brake lever, the hydraulic brake assembly comprising: a first brake arm pivotally connected to a frame member of the bicycle; and a second brake arm configured to pivot relative to the first brake arm; characterized in that one of the first and second brake arms (2, 3) including a cylinder, the cylinder non-rotatable relative to the one of the first and second brake arms, the cylinder being in fluid communication with the master cylinder; and wherein the hydraulic brake assembly further comprises a piston slidably disposed in the cylinder and configured such that movement of the piston in response to fluid displacement in the hydraulic brake assembly causes the first brake arm and the second brake arm to pivot. a first brake arm pivotally connected to a frame member of the bicycle; and a second brake arm configured to pivot relative to the first brake arm; characterized in that one of the first and second brake arms (2, 3) including a cylinder, the cylinder non-rotatable relative to the one of the first and second brake arms, the cylinder being in fluid communication with the master cylinder; and wherein the hydraulic brake assembly further comprises a piston slidably disposed in the cylinder and configured such that movement of the piston in response to fluid displacement in the hydraulic brake assembly causes the first brake arm and the second brake arm to pivot.
Housing, in particular vehicle housing which is protected against detona tion effects, having an equipment item which is arranged in the interior of the housing in a suspended manner via a fastening element on a housing wall (1.1), with the result that the said equipment item is arranged in a manner which is decoupled from the floor (1.3), characterized in that the fastening element is configured as a deformable body which can damp in multiple axes, and is suitable both for detonations which act from below along a substantially vertical axis and for detonations which act from the side along a substantially horizontal axis.
Weapon having a barrel cluster (1, 1'), comprising at least one, preferably a plurality of, weapon barrel(s) (2, 3, 4) and having a breech, wherein only one of the weapon barrels of the barrel cluster (1, 1') is aligned with the breech so as to be aligned in the barrel axis and only the one weapon barrel at this point in time in terms of firing interacts with the breech, wherein the barrel cluster is mounted in a mounting, characterized in that the bearing points of the mounting are configured by stationary, mutually spaced-apart bezels (21, 22).
Lighting device (100; 200; 300; 400; 500; 600; 700), having at least one semiconductor light source cast with at least one first casting compound (107, 108), wherein at least one region of the lighting device (100; 200; 300; 400; 500; 600; 700) has: - at least one connection area, which is electrically connected to the at least one semiconductor light source, and - at least one electrical connecting element (111; 411; 511; 611; 711), which has at least one electrical line, wherein - at least one electrical line is connected to an associated connection area and protrudes at one end out of the lighting device (100; 200; 300; 400; 500; 600; 700), characterized in that the at least one connection area and the at least one electrical connecting element (111; 411; 511; 611; 711) are arranged in a cutout (109; 209; 509) in the first casting compound (107, 108) and are cast by means of a second casting compound. - at least one connection area, which is electrically connected to the at least one semiconductor light source, and - at least one electrical connecting element (111; 411; 511; 611; 711), which has at least one electrical line, wherein - at least one electrical line is connected to an associated connection area and protrudes at one end out of the lighting device (100; 200; 300; 400; 500; 600; 700), characterized in that the at least one connection area and the at least one electrical connecting element (111; 411; 511; 611; 711) are arranged in a cutout (109; 209; 509) in the first casting compound (107, 108) and are cast by means of a second casting compound.
A terminal apparatus configured to communicate with a base station apparatus, the terminal apparatus being configured to: acquire first information through radio resource control, RRC, signaling; receive a physical downlink control channel including a channel state information, CSI, request; and transmit, in one subframe, feedback information that includes a plurality of CSI, wherein the first information includes a configuration of a primary cell, the configuration of the primary cell includes a configuration information indicating one or more subframe set(s), a CSI-RS configuration related to a first CSI-RS, and a plurality of information elements for extended configuration, the extended configuration includes CSI-RS configurations related to second and subsequent CSI-RSs, each of the CSI-RS configurations indicating an individual CSI-reference signal, RS, position, the terminal apparatus is configured to determine among the one or more subframe set(s) a subframe set that includes the subframe used for transmitting the CSI request, the terminal apparatus is configured to calculate each of the plurality of the CSI by referring to the respective CSI-RS in the determined subframe set, the respective CSI-RS position being indicated by the respective CSI-RS configuration, and the configuration of the primary cell includes information indicating an aperiodic CSI feedback mode. acquire first information through radio resource control, RRC, signaling; receive a physical downlink control channel including a channel state information, CSI, request; and transmit, in one subframe, feedback information that includes a plurality of CSI, wherein the first information includes a configuration of a primary cell, the configuration of the primary cell includes a configuration information indicating one or more subframe set(s), a CSI-RS configuration related to a first CSI-RS, and a plurality of information elements for extended configuration, the extended configuration includes CSI-RS configurations related to second and subsequent CSI-RSs, each of the CSI-RS configurations indicating an individual CSI-reference signal, RS, position, the terminal apparatus is configured to determine among the one or more subframe set(s) a subframe set that includes the subframe used for transmitting the CSI request, the terminal apparatus is configured to calculate each of the plurality of the CSI by referring to the respective CSI-RS in the determined subframe set, the respective CSI-RS position being indicated by the respective CSI-RS configuration, and the configuration of the primary cell includes information indicating an aperiodic CSI feedback mode.