mhurhangee/ep-ind-claims huggingface dataset:
An electrical contact apparatus (100,300,1100), comprising: a first contact member (102,202,302,402,502,602,702,802,902) having a first end (104,116) and a second end (106,118), and a first contact (108, 1102, 1108) at the second (106, 118); a second contact member 114,214,414,514,614,714,814,914) having a first end and a second end (106,118); and having a second contact at the second end (106,118); a movable contact member (122,322,422,522,622,722,822,922,1122) received adjacent to the second ends of the first contact member and the second contact member, the movable contact member having third contact positioned adjacent the first contact, and fourth contact positioned adjacent the second contact, the third and fourth contacts of the movable conductor member being configured and adapted to be moved into and out of engaging contact with the first contact and the second contact; and a first armature (128, 528, 828) positioned adjacent to at least the first contact and third contact characterized in that the electrical contact assembly further comprises second armature (129, 529, 729) positioned adjacent to the second contact and fourth contact, the first and second armatures operable to produce a force to cause the movable first and second contact members to remain closed upon application of current through the first contact member, the movable contact member, and the second contact member, the first and second armatures being securely fastened to undersides of the first contact member and the second contact member. a first contact member (102,202,302,402,502,602,702,802,902) having a first end (104,116) and a second end (106,118), and a first contact (108, 1102, 1108) at the second (106, 118); a second contact member 114,214,414,514,614,714,814,914) having a first end and a second end (106,118); and having a second contact at the second end (106,118); a movable contact member (122,322,422,522,622,722,822,922,1122) received adjacent to the second ends of the first contact member and the second contact member, the movable contact member having third contact positioned adjacent the first contact, and fourth contact positioned adjacent the second contact, the third and fourth contacts of the movable conductor member being configured and adapted to be moved into and out of engaging contact with the first contact and the second contact; and a first armature (128, 528, 828) positioned adjacent to at least the first contact and third contact characterized in that the electrical contact assembly further comprises second armature (129, 529, 729) positioned adjacent to the second contact and fourth contact, the first and second armatures operable to produce a force to cause the movable first and second contact members to remain closed upon application of current through the first contact member, the movable contact member, and the second contact member, the first and second armatures being securely fastened to undersides of the first contact member and the second contact member.
A ligand comprising - the three complementary-determining regions (CDRs) of the light chain variable region: CDR1, CDR2 and CDR3 respectively set forth in SEQ ID No. 1, SEQ ID No. 2, SEQ ID No. 3, - the three CDRs of the heavy chain variable region: CDR4, CDR5 and CDR6 respectively set forth in SEQ ID No. 4, SEQ ID No. 5 and SEQ ID No. 6, wherein said ligand binds to the anti-ligand consisting in the amino acid sequence defined by SEQ ID No. 20 or SEQ ID No. 32, and said ligand is selected from the group consisting of an antibody, a scFv fragment and a Fab fragment. - the three complementary-determining regions (CDRs) of the light chain variable region: CDR1, CDR2 and CDR3 respectively set forth in SEQ ID No. 1, SEQ ID No. 2, SEQ ID No. 3, - the three CDRs of the heavy chain variable region: CDR4, CDR5 and CDR6 respectively set forth in SEQ ID No. 4, SEQ ID No. 5 and SEQ ID No. 6,
A box for connecting optical fibers, comprising a box body and at least one optical fiber termination able to be connected to a connector of a user, characterized in that the box comprises a flap mounted on the box body and connected to the box body by a pivot link, the flap being rotatable between a closed position in which it folds down on the box body and covers the lower edge of the box body such that it forms a protective barrier between the connector and the user, and an open position where it exposes the lower edge of the box body and allows the user to access each connector via the front of the box, and in that the flap in the closed position is able to partially cover and conceal each connector; the box comprising means for keeping the flap in the open position.
A method of handling random access for a user equipment, UE, of a wireless communication system, the method comprising: transmitting a plurality of repetitions of a random access preamble in a repetition window; and monitoring a physical downlink control channel, PDCCH, for at least one random access response identified by a random access radio network temporary identifier, RA-RNTI; wherein the RA-RNTI is determined based on a specific subframe being any one of the subframes within the repetition window and wherein the RA-RNTI is computed as: RA − RNTI = 1 + t_id + 10 × f_id + delta_shift; wherein the t_id is an index of the specific subframe in a radio frame within the repetition window, the f_id is an index of a specific physical resource block, PRB, pair for transmitting one of the plurality of repetitions of the random access preamble within a PRACH within the specific subframe in an ascending order of a frequency domain, and the delta_shift is a shift parameter. transmitting a plurality of repetitions of a random access preamble in a repetition window; and monitoring a physical downlink control channel, PDCCH, for at least one random access response identified by a random access radio network temporary identifier, RA-RNTI;
A method for the operation of lighting means, in particular, gas discharge lamps or LEDs or OLEDs, wherein it is detected, whether at a place provided for the use of the lighting means, for example, a socket, a lighting means or a substitution resistor (Rsub) is electrically connected with an operating circuit for the lighting means, wherein if a substitution resistance value (Rsub) is detected a special behavior of the operating circuit, deviating from the normal mode, is triggered, deviating operating parameters are set for the subsequent operation, and operating parameters of the operating circuit are provided by means of the detected value of the substitution resistance (Rsub) for the later operation, i.e., the operation after the next lamp starting, characterized in that a measured cold resistance value (Rcold1, Rcold2) is compared with a measured hot resistance value (Rhot1, Rhot2) for the detection of the substitution resistance.
Assembly (10; 100; 200; 300; 400) comprising a cross member extending substantially in a longitudinal direction, the cross member being intended to pass through a separating wall, the assembly (10; 100; 200; 300; 400) further comprising: - at least one casing (22; 122; 222) of rigid material which is arranged at least temporarily around the cross member, the cross member extending through an inner volume defined by the casing, the casing having a longitudinal extent which is less than the longitudinal extent of the cross member, and - at least one sleeve (24; 124) which is to act as a firebreak, the sleeve (24; 124) extending between an outer surface of the cross member and an inner surface (26; 126) of the casing (22; 122; 222), the separating wall being a substantially horizontal slab, the sleeve (24; 124) extending longitudinally from the slab, preferably above the slab, or the separating wall being a substantially vertical wall, the sleeve (24; 124) extending longitudinally from the wall, the sleeve (24; 124) being adapted to be installed after the casing (22; 122; 222) has been fitted around the cross member, the casing (22; 122; 222) being sufficiently rigid and leak-tight that the sleeve (24; 124) is poured or injected into an interstitial space between the casing (22; 122; 222) and the cross member, characterised in that the injectable or pourable sleeve (24; 124) comprises, in an amount of at least 70% by mass, cement mortar, concrete or plaster or, in an amount of at least 70% by mass, a colloid. - at least one casing (22; 122; 222) of rigid material which is arranged at least temporarily around the cross member, the cross member extending through an inner volume defined by the casing, the casing having a longitudinal extent which is less than the longitudinal extent of the cross member, and - at least one sleeve (24; 124) which is to act as a firebreak, the sleeve (24; 124) extending between an outer surface of the cross member and an inner surface (26; 126) of the casing (22; 122; 222),
An apparatus for particle characterisation (200, 300, 700, 800, 900), comprising: a sample cell (210, 310, 710, 810, 910) for holding a sample (215, 315) that comprises dispersed particles; a light source (220, 320) configured to illuminate the sample (215, 315) with an illuminating beam (230, 330, 730-733, 830, 930); a plurality of light detectors (240-242, 340-342, 740), each light detector (240-242, 240-342, 340-342, 740) configured to receive scattered light along a respective detector path (250-252, 350-352, 750-755, 851, 852), the scattered light resulting from the interaction between the illuminating beam (230, 330, 730-733, 830, 930) and the particles in the sample in a scattering volume, wherein each respective detector path (250-252, 350-352, 750-755, 851, 852) is at substantially the same angle to the illuminating beam (230, 330, 730-733, 830, 930); wherein the angle between each detector path (250-252, 350-352, 750-755, 851, 852) and the illuminating beam (230, 330, 730-733, 830, 930) is equal to the angle of intersection of that detector path (250-252, 350-352, 750-755, 851, 852) and the illuminating beam (230, 330, 730-733, 830, 930) in the scattering volume, wherein the detector paths (250-252, 350-352, 851, 852) are arranged to respectively intersect with the illumination beam (230, 330, 730-733, 830, 930) at a plurality of locations along the illumination beam (230, 330, 730-733, 830, 930). a sample cell (210, 310, 710, 810, 910) for holding a sample (215, 315) that comprises dispersed particles; a light source (220, 320) configured to illuminate the sample (215, 315) with an illuminating beam (230, 330, 730-733, 830, 930); a plurality of light detectors (240-242, 340-342, 740), each light detector (240-242, 240-342, 340-342, 740) configured to receive scattered light along a respective detector path (250-252, 350-352, 750-755, 851, 852), the scattered light resulting from the interaction between the illuminating beam (230, 330, 730-733, 830, 930) and the particles in the sample in a scattering volume, wherein each respective detector path (250-252, 350-352, 750-755, 851, 852) is at substantially the same angle to the illuminating beam (230, 330, 730-733, 830, 930); wherein the angle between each detector path (250-252, 350-352, 750-755, 851, 852) and the illuminating beam (230, 330, 730-733, 830, 930) is equal to the angle of intersection of that detector path (250-252, 350-352, 750-755, 851, 852) and the illuminating beam (230, 330, 730-733, 830, 930) in the scattering volume, wherein the detector paths (250-252, 350-352, 851, 852) are arranged to respectively intersect with the illumination beam (230, 330, 730-733, 830, 930) at a plurality of locations along the illumination beam (230, 330, 730-733, 830, 930).
Pneumatic vehicle tyre, in particular for use in winter driving conditions, comprising a tread having a central profile region divided into profile positives and two shoulder-side tread bar rows which are separated from said profile region by wide circumferential grooves running in the circumferential direction and which have tread bars that are separated from one another by transverse grooves and have a width (b s) which is between 20% and 30% of the ground contact area width of the tread, wherein the tread bars in the shoulder-side tread bar rows are in each case divided in their middle region into two bar parts (5a, 5b) by a groove which extends at least substantially in the circumferential direction and the width of which is between 1 mm and 2.5 mm and the depth of which is between 2 mm and 3.5 mm, wherein the groove has at least one portion with a zig-zag or wave-shaped course, characterized in that each bar part (5a, 5b) is provided with a number of sipes (10, 11) respectively running parallel and extending substantially parallel to the transverse grooves, wherein the sipes in one bar part differ from those in the other bar part with respect to the characteristic of their course.
A hydraulic valve assembly for an excavator, the valve assembly including at least one hydraulic valve moveable along a longitudinal axis to control a flow of fluid, a flange coupled to the hydraulic valve, the flange including a receptor, a locking mechanism moveable between a locked orientation and an unlocked orientation, wherein in the locked orientation the locking mechanism cooperates with the receptor to inhibit movement of the hydraulic valve along the longitudinal axis and in the unlocked orientation the hydraulic valve is free to move along the longitudinal axis, characterized by further comprising: a biasing member coupled to the locking mechanism to bias the locking mechanism in the locked orientation and in the unlocked orientation, wherein the biasing member includes a biasing housing first portion slidably coupled to a biasing housing second portion, the first and second biasing housing portions together defining a cylindrical chamber, and wherein the biasing housing second portion is coupled to the hydraulic valve assembly, the biasing member resisting movement of the locking mechanism away from both of the locked and unlocked orientations. a biasing member coupled to the locking mechanism to bias the locking mechanism in the locked orientation and in the unlocked orientation, wherein the biasing member includes a biasing housing first portion slidably coupled to a biasing housing second portion, the first and second biasing housing portions together defining a cylindrical chamber, and wherein the biasing housing second portion is coupled to the hydraulic valve assembly, the biasing member resisting movement of the locking mechanism away from both of the locked and unlocked orientations.
A sensor, comprising a solid support to which is attached a recognition molecule that permits detection of a target agent wherein the recognition molecule specifically binds to the target agent but not significantly to other agents; an enzyme that can catalyze the conversion of a substance into glucose, wherein the enzyme is attached directly or indirectly to the recognition molecule and wherein the enzyme is part of an analyte-analogue conjugate that can bind to the recognition molecule, and wherein in the presence of the target agent the enzyme is released from the solid support and can then convert the substance into glucose; characterised in that the enzyme that can catalyze the conversion of a substance into glucose is an invertase, sucrase, or sucrase-isomaltase that can convert sucrose into glucose, a maltase that can convert maltose into glucose, a trehalase that can convert trehalose into glucose, a cellulase that can convert cellulose into glucose, or a lactase that can convert lactose into glucose.
A home agent for use in a telecommunications system comprising at least one moving network (11, 12, 13) each having at least one mobile router (17, 18 19), a number of said at least one mobile router (17, 18, 19) belonging to said home agent, wherein the home agent comprises a layer 2 frame forwarding mechanism; is arranged to be apart of a first emulated local area network, encompassing a first set of said at least one moving network (17, 18, 19), which first emulated local area network is formed by a first set of layer 2 tunnels (t11, t12, t13) that interconnects said home agent with at least one of the mobile routers (17, 18, 19) of each of the moving networks of the first set of moving networks (11, 12, 13), and is arranged to maintain a tunnel interface (152, 153, 154) of each tunnel of said first set of layer 2 tunnels (t11, t12, t13), wherein at least one of the tunnels of the first set of layer 2 tunnels (t11, t12, t13) is established in parallel with a NEMO tunnel between the home agent and a mobile router, such that the layer 2 tunnel and the NEMO tunnel share the same endpoint addresses and such that one tunnel endpoint of the layer 2 tunnel is an address of the home agent and the other tunnel endpoint is a care-of address of the mobile router.
A unitary-body dorsal wear-pad for promoting slidable engagement of a wearer of a fall-protection safety harness and a wall surface, the dorsal wear-pad comprising: a base having an inwardly-facing surface which inwardly faces a wearer when worn and an outwardly-facing surface which outwardly faces away from the wearer when worn, the base comprising a safety-interface-device aperture extending through the base from the outwardly-facing surface to the inwardly-facing surface, wherein the safety-interface-device aperture is sized to permit a safety interface device to project therethrough, and sized to permit the safety interface device to rotate from an upward-canted position to a downward-canted position therein, wherein the base extends below the safety-interface-device aperture when worn and is configured to shield the wearer from a lanyard connector which releasably attaches to the safety interface device; characterized in that the dorsal wear-pad comprises two raised wear-bumps (705, 710) configured to prevent the safety interface device from contacting the wall surface when the safety interface device (510 is in the downward-canted position, wherein the projecting height of each of the two wear-bumps (705, 710) is greater than a projecting safety-interface-device height of a distal end of a safety interface device relative to the outwardly-facing surface when the safety interface device is projecting through the safety-interface-device aperture and rotated to the downward-canted position. a base having an inwardly-facing surface which inwardly faces a wearer when worn and an outwardly-facing surface which outwardly faces away from the wearer when worn, the base comprising a safety-interface-device aperture extending through the base from the outwardly-facing surface to the inwardly-facing surface, wherein the safety-interface-device aperture is sized to permit a safety interface device to project therethrough, and sized to permit the safety interface device to rotate from an upward-canted position to a downward-canted position therein, wherein the base extends below the safety-interface-device aperture when worn and is configured to shield the wearer from a lanyard connector which releasably attaches to the safety interface device; characterized in that the dorsal wear-pad comprises two raised wear-bumps (705, 710) configured to prevent the safety interface device from contacting the wall surface when the safety interface device (510 is in the downward-canted position, wherein the projecting height of each of the two wear-bumps (705, 710) is greater than a projecting safety-interface-device height of a distal end of a safety interface device relative to the outwardly-facing surface when the safety interface device is projecting through the safety-interface-device aperture and rotated to the downward-canted position.
A fluid ejection assembly comprising: an address line for communicating a set of addresses; a set of data lines; a number of primitives, each primitive including a plurality of controllable activation devices, each activation device being coupled to the address line, each activation device corresponding to at least one address of the set of addresses, each address corresponding to one of a number of primitive functions, wherein each activation device of a primitive is coupled to the same data line, and each primitive is coupled to a different data line; a buffer to: receive a series of data packets, each data packet including address bits representative of one address of the set of addresses and a set of print data bits, direct the address bits of the data packet to address logic, and place the data bits from the print data portion of the data packets onto corresponding data lines; and an address logic to receive the address bits from the buffer, wherein, for each data packet, the address logic is to encode the address represented by the address bits onto the address line, and wherein the at least one activation device corresponding to the encoded address is to activate the primitive function corresponding to the address based on the encoded address being on the address line, print data being present on the corresponding data line and a fire pulse being active. an address line for communicating a set of addresses; a set of data lines; a number of primitives, each primitive including a plurality of controllable activation devices, each activation device being coupled to the address line, each activation device corresponding to at least one address of the set of addresses, each address corresponding to one of a number of primitive functions, wherein each activation device of a primitive is coupled to the same data line, and each primitive is coupled to a different data line; a buffer to: receive a series of data packets, each data packet including address bits representative of one address of the set of addresses and a set of print data bits, direct the address bits of the data packet to address logic, and place the data bits from the print data portion of the data packets onto corresponding data lines; and an address logic to receive the address bits from the buffer, wherein, for each data packet, the address logic is to encode the address represented by the address bits onto the address line, and wherein the at least one activation device corresponding to the encoded address is to activate the primitive function corresponding to the address based on the encoded address being on the address line, print data being present on the corresponding data line and a fire pulse being active.