mhurhangee/ep-ind-claims huggingface dataset:
A coupler, comprising: a tubular conduit having a length disposed between a conduit first end and a conduit second end and a conduit wall having a thickness disposed between an external surface and an internal surface, said internal surface defining an interior passage between said conduit first end and said conduit second end; and a tubular guide coupled to said conduit first end, said tubular guide continuously widening between said conduit first end and a tubular guide terminal end, said tubular guide including: a first tubular guide first region directly connected to said conduit first end; a first tubular guide second region directly connected to said first tubular guide first region and extending to said tubular guide terminal end; said first tubular guide first region having a first radius of curvature along a longitudinal axis of said tubular guide; said first tubular guide second region having a second radius of curvature along said longitudinal axis of said tubular guide, said second radius of curvature less than said first radius of curvature, said first radius of curvature and said second radius of curvature outwardly curving from said interior passage. a tubular conduit having a length disposed between a conduit first end and a conduit second end and a conduit wall having a thickness disposed between an external surface and an internal surface, said internal surface defining an interior passage between said conduit first end and said conduit second end; and a tubular guide coupled to said conduit first end, said tubular guide continuously widening between said conduit first end and a tubular guide terminal end, said tubular guide including: a first tubular guide first region directly connected to said conduit first end; a first tubular guide second region directly connected to said first tubular guide first region and extending to said tubular guide terminal end; said first tubular guide first region having a first radius of curvature along a longitudinal axis of said tubular guide; said first tubular guide second region having a second radius of curvature along said longitudinal axis of said tubular guide, said second radius of curvature less than said first radius of curvature, said first radius of curvature and said second radius of curvature outwardly curving from said interior passage. a first tubular guide first region directly connected to said conduit first end; a first tubular guide second region directly connected to said first tubular guide first region and extending to said tubular guide terminal end; said first tubular guide first region having a first radius of curvature along a longitudinal axis of said tubular guide; said first tubular guide second region having a second radius of curvature along said longitudinal axis of said tubular guide, said second radius of curvature less than said first radius of curvature, said first radius of curvature and said second radius of curvature outwardly curving from said interior passage.
Apparatus for optoelectronically capturing different positions of a selector lever for selecting different gear steps (202; 204; 206; 208) for a gear speed change transmission, in particular a motor vehicle transmission, wherein the capturing apparatus is able to be coupled with the selector lever and comprises at least one light-emitting means for emitting light and a light sensor for capturing the emitted light, wherein the light sensor is provided to capture a wavelength of the emitted light that has been filtered using a light filter which is arrangeable in a light path between the at least one light-emitting means and the light sensor and to transmit information relating to the captured wavelength to an evaluation device, wherein predetermined filtered wavelengths are assigned to predetermined selector lever positions which are selected from the different positions of the selector lever.
A flow control method, wherein the method is applied to a wireless relay system, the wireless relay system comprises a first node, a second node and a donor node, the second node is an upper-level node of the first node and a lower-level node of the donor node, and the method comprises: determining, by the first node, to indicate the second node to perform flow control; and sending, by the first node, a first flow control indication to the second node, wherein the first flow control indication is carried in adaptation layer control signaling, the first flow control indication is used by the second node to control, based on the first flow control indication, transmission to the first node, the first flow control indication comprises identifiers of one or more radio link control, RLC, backhaul channels and flow control information, and the second node is a relay node; sending, by the first node, a second flow control indication to the donor node, wherein the second flow control indication comprises the identifiers of the one or more RLC backhaul channels, wherein the second flow control indication is used by the donor node to control, based on the second flow control indication, transmission to the first node; wherein the first flow control indication comprises a donor node notification indication to indicate that the first node simultaneously indicates the donor node to perform flow control. determining, by the first node, to indicate the second node to perform flow control; and sending, by the first node, a first flow control indication to the second node, wherein the first flow control indication is carried in adaptation layer control signaling, the first flow control indication is used by the second node to control, based on the first flow control indication, transmission to the first node, the first flow control indication comprises identifiers of one or more radio link control, RLC, backhaul channels and flow control information, and the second node is a relay node; sending, by the first node, a second flow control indication to the donor node, wherein the second flow control indication comprises the identifiers of the one or more RLC backhaul channels, wherein the second flow control indication is used by the donor node to control, based on the second flow control indication, transmission to the first node; wherein the first flow control indication comprises a donor node notification indication to indicate that the first node simultaneously indicates the donor node to perform flow control.
A drug delivery device comprising: - a housing having a depressible portion; - a substrate having a microneedle side and an opposing back side; - an array of microneedles extending from the microneedle side of the substrate, wherein the microneedles comprise a drug; characterized by - a supporting layer arranged on the opposing back side of the substrate, and movably mounted within the housing; wherein the depressible portion is configured to apply or activate upon depression an input force that leads to (i) a first force to the array of microneedles effective to insert the array of microneedles into a tissue, and (ii) a second force to at least one of the supporting layer and substrate effective to separate the array of microneedles from the substrate. - a housing having a depressible portion; - a substrate having a microneedle side and an opposing back side; - an array of microneedles extending from the microneedle side of the substrate, wherein the microneedles comprise a drug; - a supporting layer arranged on the opposing back side of the substrate, and movably mounted within the housing;
An intraorally rapidly disintegrating tablet comprising a particle containing a 2-(3-cyano-4-isobutyloxyphenyl)-4-methyl-5-thiazolecarboxylic acid-containing core particle coated with a layer containing a methacrylic acid copolymer and further overcoated with a layer containing a water-soluble saccharide.
A device for an electronic aerosol provision system, wherein the device comprises a housing and an aerosol forming component, said housing being formed of a chassis section and a hatch section, wherein the hatch section is connected to the chassis section and moveable between a first position where the chassis section and hatch section together define an enclosed space for the aerosol forming component to be located for aerosol generation, and a second position wherein the chassis section and hatch section are spaced so as to provide access to the enclosed space, wherein the hatch section comprises a sleeve for receipt of the aerosol forming component, the sleeve defining a longitudinal axis and comprising first and second sections spaced along the longitudinal axis which exert different rotational biases on the aerosol forming component when inserted into the sleeve, and wherein the aerosol forming component comprises an aerosol generator.
For a camera having at least one engagement portion, a system for coupling with the engagement portion of the camera, the system comprising: a first strap which may be worn, by the user, vertically from a shoulder; and a coupler having a first portion and a second portion, the second portion of the coupler being releasably couplable with the first portion of the coupler, wherein the first portion of the coupler is sized and shaped to engage with the engagement portion of the camera, and the second portion of the coupler is sized and shaped to engage slidably and pivotally with the first strap to assist with repositioning of the camera from a transport position to a picture taking position by sliding the camera along the first strap wherein the first portion and the second portion of the coupler remain coupled when slid and or pivoted between the transport position and the picture taking position. a first strap which may be worn, by the user, vertically from a shoulder; and a coupler having a first portion and a second portion, the second portion of the coupler being releasably couplable with the first portion of the coupler, wherein the first portion of the coupler is sized and shaped to engage with the engagement portion of the camera, and the second portion of the coupler is sized and shaped to engage slidably and pivotally with the first strap to assist with repositioning of the camera from a transport position to a picture taking position by sliding the camera along the first strap wherein the first portion and the second portion of the coupler remain coupled when slid and or pivoted between the transport position and the picture taking position.
A method for synchronising digital data sent in series by a transmitter having a clock signal h1 of frequency freq1 to a receiver having a clock signal h2 of frequency freq2, the method comprising the steps a) to d), iterated until a stoppage condition is met, and a step e) carried out following the last iteration of step d), the steps a) to e) being the following: a) sending, with the transmitter, a digital datum to the receiver; b) generating N channels, each of the channels comprising the datum received by the receiver, and each i-th channel being time shifted with respect to the (i-1)th channel, N being an integer higher than to 3 and i being comprised between 2 and N; c) sampling the N channels at the frequency freq2 of the clock h2 of the receiver in order to generate digital data temporally aligned with the clock h2; d) comparing the data of the N channels in groups of (2m+1) successive channels, m being higher than or equal to 1 and such that (2m+1) is lower than or equal to N, and selecting groups of (2m+1) channels in which the (2m+1) successive channels contain identical data in each iteration; e) selecting one of the channels belonging to the groups selected in the preceding step, the data contained in this channel being considered to be synchronised and in phase with the clock h2 of the receiver and defining a variable P equal to the value i of the selected channel. a) sending, with the transmitter, a digital datum to the receiver; b) generating N channels, each of the channels comprising the datum received by the receiver, and each i-th channel being time shifted with respect to the (i-1)th channel, N being an integer higher than to 3 and i being comprised between 2 and N; c) sampling the N channels at the frequency freq2 of the clock h2 of the receiver in order to generate digital data temporally aligned with the clock h2; d) comparing the data of the N channels in groups of (2m+1) successive channels, m being higher than or equal to 1 and such that (2m+1) is lower than or equal to N, and selecting groups of (2m+1) channels in which the (2m+1) successive channels contain identical data in each iteration; e) selecting one of the channels belonging to the groups selected in the preceding step, the data contained in this channel being considered to be synchronised and in phase with the clock h2 of the receiver and defining a variable P equal to the value i of the selected channel.
A bacterial isolate Exiguobacterium sp. MTCC 5183 deposited at International Depository at IMTECH, Sector 39A, Chandigarh, India recognized by Budapest Treaty.
A transceiver comprising: a controller configured to operate the transceiver in a plurality of configurational access modes at a current geographic location of the transceiver based on a plurality of operational parameters, wherein the configurational access modes comprise: a default configurational mode restricting the transceiver to operate with a fixed setting of the plurality of operational parameters for the current geographic location of the transceiver, characterized in that an unregulated configurational mode authorizing a requestor to reconfigure the transceiver by adjusting at least one parameter of the plurality of operational parameters despite the default configurational mode restricting the transceiver for the current geographic location of the transceiver; an authorization component configured to authorize the transceiver to operate in the unregulated configurational mode. a controller configured to operate the transceiver in a plurality of configurational access modes at a current geographic location of the transceiver based on a plurality of operational parameters, wherein the configurational access modes comprise: a default configurational mode restricting the transceiver to operate with a fixed setting of the plurality of operational parameters for the current geographic location of the transceiver, characterized in that an unregulated configurational mode authorizing a requestor to reconfigure the transceiver by adjusting at least one parameter of the plurality of operational parameters despite the default configurational mode restricting the transceiver for the current geographic location of the transceiver; a default configurational mode restricting the transceiver to operate with a fixed setting of the plurality of operational parameters for the current geographic location of the transceiver, characterized in that an unregulated configurational mode authorizing a requestor to reconfigure the transceiver by adjusting at least one parameter of the plurality of operational parameters despite the default configurational mode restricting the transceiver for the current geographic location of the transceiver; an authorization component configured to authorize the transceiver to operate in the unregulated configurational mode.
A method of operating a cryogenic cooling system, in which a target region for receiving a sample is cooled by a dilution refrigerator containing an operational fluid, the method characterized by performing the following steps (a) to (e) in order: a) removing (103, 104) the operational fluid from the dilution refrigerator; b) moving target apparatus comprising the sample from a high temperature location to the target region; c) pre-cooling the target apparatus in the target region to a first temperature using a mechanical refrigerator; d) providing the operational fluid to the dilution refrigerator; and e) operating the dilution refrigerator using the operational fluid so as to cool the target apparatus in the target region to a second temperature that is lower than the first temperature. a) removing (103, 104) the operational fluid from the dilution refrigerator; b) moving target apparatus comprising the sample from a high temperature location to the target region; c) pre-cooling the target apparatus in the target region to a first temperature using a mechanical refrigerator; d) providing the operational fluid to the dilution refrigerator; and e) operating the dilution refrigerator using the operational fluid so as to cool the target apparatus in the target region to a second temperature that is lower than the first temperature.
A medical instrument for controlled uterine manipulation comprising - a guiding rod comprising a proximal cylindrical rod-shaped part, a cylindrical distal end and a threaded conical portion between the proximal cylindrical rod-shaped part and the cylindrical distal end, - a cervical cup coaxially movable along the guiding rod, - a cylindrical locking nut, wherein the threaded conical portion of the guiding rod is configured to be fixed to the uterus through the cervical canal, wherein the cervical cup comprises a cylinder with a screwed proximal end configured to be fixed to the guiding rod at a point of fixation that can be chosen individually, the cervical cup being further configured to be coaxially introduced over the threaded conical portion high up to the vaginal fornices, characterised in that the medical instrument further comprises a pear-shaped nut, in that the cervical cup further comprises outer grooved margins to delineate vaginal fornices and provide pneumo occlusion, in that the cylindrical locking nut is configured to be screwed to the said screwed proximal end of the cylinder of the cervical cup to fix the cylinder to the guiding rod, in that the cylindrical locking nut further comprises an outer screw on its surface, for fixation of the pear-shaped nut, in that the pear-shaped nut is configured for occlusion of the lower vagina and is configured to be fixed coaxially to the outer surface of the cylindrical locking nut. - a guiding rod comprising a proximal cylindrical rod-shaped part, a cylindrical distal end and a threaded conical portion between the proximal cylindrical rod-shaped part and the cylindrical distal end, - a cervical cup coaxially movable along the guiding rod, - a cylindrical locking nut,
Cycling jacket or vest comprising a windproof panel fixed inside said vest and foldable inside an inner containing pocket of said jacket or vest, wherein said panel, when in position for use, extracted from said containing pocket and unfolded, is arranged substantially as an inner lining of the front part of the jacket or vest and is sized so as to cover only the front-part of the body of the user.
A biocompatible drug delivery implant for positioning adjacent to a biological tissue for delivering one or more drugs thereto, the implant comprising at least two layers, a drug-containing layer having a drug elution surface to be positioned proximal to the tissue, and, a further layer or layers comprising a lipophilic backing layer and/or a hydrophobic coating, said further layer or layers being positioned distal to the drug elution surface, wherein: a) the drug-containing layer comprises one or more drugs, a hydrophilic polymer or pore forming agent, and a biocompatible hydrophobic lipid; b) the lipophilic backing layer comprises a biocompatible hydrophobic lipid; and c) the hydrophobic coating comprises a biocompatible hydrophobic lipid and coats surfaces of the implant that are not to be positioned proximal to the tissue; and wherein the hydrophobic lipid in layers a), b), and/or c) is glyceryl behenate or tristearin; the one or more drugs comprise paclitaxel; and further, when each of layers a), b) and c) are present, the lipophilic backing layer is positioned between the drug-containing layer and the hydrophobic coating. a) the drug-containing layer comprises one or more drugs, a hydrophilic polymer or pore forming agent, and a biocompatible hydrophobic lipid; b) the lipophilic backing layer comprises a biocompatible hydrophobic lipid; and c) the hydrophobic coating comprises a biocompatible hydrophobic lipid and coats surfaces of the implant that are not to be positioned proximal to the tissue; and
Method for producing a component, which preferably consists of polyurethane foam (PU foam) and which has an outer layer, using a tool mould which comprises two tool halves (3, 4) which together form a cavity, wherein the tool halves (3, 4) each comprise at least one section (2a, 2b) of the cavity, which section is delimited by first surfaces (14a, 14b), and each comprise at least one adjacent solid body (8a, 8b) which forms a first contact surface (6, 7), wherein at least one separating edge (9a, 9b, 9c, 9d, 9e, 9f) is formed between the first surfaces (14a, 14b) and the first contact surface (6, 7), comprising the following method steps: a) arranging a shell (11, 12) on each of the tool halves (3, 4), which are spaced apart from one another, wherein second contact surfaces (11 a, 12a) that are each arranged on the shell (11, 12) cover the first contact surfaces (6, 7), b) heating the first surfaces (14a, 14b) to a first temperature, wherein a difference between the first temperature and a second temperature of second surfaces (15a1, 15a2, 15a3, 15b1, 15b2, 15b3) of the shells (11, 12) is a value ranging from 5 to 100 K, preferably 20 to 40 K, more preferably 30 K, c) arranging a first uncured portion of a first material, which portion forms the outer layer after curing, on the first surfaces (14a, 14b) and a second uncured portion of the first material on the second surfaces (15a1, 15a2, 15a3, 15b1, 15b2, 15b3), d) removing the shells (11, 12) from the tool halves (3, 4) before the second portion of the material completely cures, wherein a degree of curing of the first portion is greater than a degree of curing of the second portion, e) closing the tool mould by bringing together the two first contact surfaces (6, 7) of the tool halves (3, 4), f) pouring at least a second material into the cavity. a) arranging a shell (11, 12) on each of the tool halves (3, 4), which are spaced apart from one another, wherein second contact surfaces (11 a, 12a) that are each arranged on the shell (11, 12) cover the first contact surfaces (6, 7), b) heating the first surfaces (14a, 14b) to a first temperature, wherein a difference between the first temperature and a second temperature of second surfaces (15a1, 15a2, 15a3, 15b1, 15b2, 15b3) of the shells (11, 12) is a value ranging from 5 to 100 K, preferably 20 to 40 K, more preferably 30 K, c) arranging a first uncured portion of a first material, which portion forms the outer layer after curing, on the first surfaces (14a, 14b) and a second uncured portion of the first material on the second surfaces (15a1, 15a2, 15a3, 15b1, 15b2, 15b3), d) removing the shells (11, 12) from the tool halves (3, 4) before the second portion of the material completely cures, wherein a degree of curing of the first portion is greater than a degree of curing of the second portion, e) closing the tool mould by bringing together the two first contact surfaces (6, 7) of the tool halves (3, 4), f) pouring at least a second material into the cavity.