mhurhangee/ep-ind-claims huggingface dataset:
A method for carrying out an inventory of a plurality of biological product containers, each container and/or each package comprising containers being provided with an identification label with a wireless communication chip, the method comprising the following steps: - providing a device for carrying out an inventory, the device including a gantry defining a direction of travel, the gantry comprising two reading panels (28A, 28B), the reading panels (28A, 28B) each including at least one antenna (A1, A2, B1, B2; A, B), the antennas (A1, A2, B1, B2; A, B) being capable of reading a wireless communication chip, - providing a receptacle able to be moved, the receptacle bearing the plurality of containers for which an inventory is to be carried out, - moving the receptacle in order to cross the gantry in the direction of travel, and - reading, by at least one of the reading panels (28A, 28B), the wireless communication chip of each container and/or package (14, 16) during the movement of the receptacle, wherein the gantry includes a floor including at least two guide members (34A, 34B) extending along the direction of travel, each guide member (34A, 34B) being associated with a respective reading panel (28A, 28B) and being arranged at a distance smaller than 20 centimeters (cm) from a respective reading panel (28A, 28B) along a direction transverse to the direction of travel, each receptacle comprising a plurality of casters, at least one caster being provided to cooperate with at least one of the guide members (34A, 34B). - providing a device for carrying out an inventory, the device including a gantry defining a direction of travel, the gantry comprising two reading panels (28A, 28B), the reading panels (28A, 28B) each including at least one antenna (A1, A2, B1, B2; A, B), the antennas (A1, A2, B1, B2; A, B) being capable of reading a wireless communication chip, - providing a receptacle able to be moved, the receptacle bearing the plurality of containers for which an inventory is to be carried out, - moving the receptacle in order to cross the gantry in the direction of travel, and - reading, by at least one of the reading panels (28A, 28B), the wireless communication chip of each container and/or package (14, 16) during the movement of the receptacle, wherein the gantry includes a floor including at least two guide members (34A, 34B) extending along the direction of travel, each guide member (34A, 34B) being associated with a respective reading panel (28A, 28B) and being arranged at a distance smaller than 20 centimeters (cm) from a respective reading panel (28A, 28B) along a direction transverse to the direction of travel, each receptacle comprising a plurality of casters, at least one caster being provided to cooperate with at least one of the guide members (34A, 34B).
An enzyme delivery system comprising: a plurality of electroblown fibers comprising: a) a water soluble polymeric resin; and b) an enzyme; wherein the enzyme is encapsulated in the electroblown fibers and is present in an amount from 0.1 to 40 wt% based on total weight of the electroblown fibers; wherein percent of active enzyme after encapsulation is from 50 to 100%; and wherein at least a portion of the electroblown fibers have a fiber diameter of 25 microns or less. a plurality of electroblown fibers comprising: a) a water soluble polymeric resin; and b) an enzyme; a) a water soluble polymeric resin; and b) an enzyme; wherein percent of active enzyme after encapsulation is from 50 to 100%; and wherein at least a portion of the electroblown fibers have a fiber diameter of 25 microns or less.
A method of decontaminating particles from a wastepaper deinking process, which method comprises introducing particles that are surface contaminated into water or an aqueous solution and beforehand, at the same time or subsequently admixing at least one or more water-soluble polymers in a concentration of 0.1 g/l to 150 g/l and subsequently realizing an energy input.
Shock-absorbing device for a staff of a wheel set of a timepiece arranged on a support, wherein said support is provided with an at least partially through slot for a pivot element cooperating with a pivot shank of the staff of the wheel set to be inserted therein, said device additionally comprising a spring means comprising at least a first blade and a second blade spaced from one another extending from the support, characterised in that only the first blade is in contact with said pivot element and exerts a prestress, and in that said first blade and the second blade have different stiffness, the first blade being less stiff than the second blade.
A modular battery unit (400, 500) for use in a data center rack, comprising: a housing (410, 510) having a top surface (412, 512) and an opposed bottom surface; a battery disposed within the housing (410, 510); a plurality of strips (420, 520) of phase change material "PCM" attached to at least the top surface (412, 512) and spaced apart from one another; and air flow channels (430, 530) provided in spaces between two adjacent strips of the plurality of strips (420, 520), the air flow channels (430, 530) defined by a shape and size of the spaces between the two adjacent strips (420, 520). a housing (410, 510) having a top surface (412, 512) and an opposed bottom surface; a battery disposed within the housing (410, 510); a plurality of strips (420, 520) of phase change material "PCM" attached to at least the top surface (412, 512) and spaced apart from one another; and air flow channels (430, 530) provided in spaces between two adjacent strips of the plurality of strips (420, 520), the air flow channels (430, 530) defined by a shape and size of the spaces between the two adjacent strips (420, 520).
A fluid delivery system for delivering at least two different fluids into separate lumens of a multi-lumen catheter, said system comprising: a first fluid reservoir; and a second fluid reservoir; wherein said first fluid reservoir is compressible and has an outlet port and said second fluid reservoir is compressible and has an outlet port; said system further comprising a single fluid dispensing means for dispensing both of said at least two different fluids out of said first and second fluid reservoir outlet ports, respectively, and into separate lumens of said multi-lumen catheter characterised in that said first reservoir comprises a vascular lesion dissolution fluid and said second reservoir comprises a dissolution fluid attenuating fluid. a first fluid reservoir; and a second fluid reservoir; wherein said first fluid reservoir is compressible and has an outlet port and said second fluid reservoir is compressible and has an outlet port; said system further comprising a single fluid dispensing means for dispensing both of said at least two different fluids out of said first and second fluid reservoir outlet ports, respectively, and into separate lumens of said multi-lumen catheter characterised in that said first reservoir comprises a vascular lesion dissolution fluid and said second reservoir comprises a dissolution fluid attenuating fluid.
A method of manufacturing an article of footwear, comprising: performing a scan of a foot of a user; creating a data file including a three-dimensional design for at least a sole structure and an upper for an article of footwear for the user based on the scan performed; fusing particles of a thermoplastic elastomer material together using laser energy in a rapid manufacturing additive fabrication technique to thereby form at least the sole structure and the upper of the article of footwear for the user based on the three-dimensional design; and exposing the upper to an infiltrate to alter the strength of the upper, and exposing the sole structure to an infiltrate to alter a hardness property of the sole structure, wherein the infiltrate used in forming the sole structure has a higher hardness level than the infiltrate used in forming the upper. performing a scan of a foot of a user; creating a data file including a three-dimensional design for at least a sole structure and an upper for an article of footwear for the user based on the scan performed; fusing particles of a thermoplastic elastomer material together using laser energy in a rapid manufacturing additive fabrication technique to thereby form at least the sole structure and the upper of the article of footwear for the user based on the three-dimensional design; and exposing the upper to an infiltrate to alter the strength of the upper, and exposing the sole structure to an infiltrate to alter a hardness property of the sole structure, wherein the infiltrate used in forming the sole structure has a higher hardness level than the infiltrate used in forming the upper.
A method for performing a reticulocyte count in a quiescent sample of anticoagulated whole blood which is admixed with one or more fluorescent colorants that are operable to differentially highlight remnants of nucleated material in the reticulocytes in the blood sample, wherein said sample is diluted by no more than about 1:1, and said blood sample and colorants are contained in a viewing chamber having a varying through plane thickness, said method including the steps of: a) the step of scanning the blood sample with an optical instrument having a field of view (7', 7, 9, 11); b) the step of locating fields of view in said quiescent blood sample which fields of view (1, 3) are in the thinnest region of the chamber which is sized to contain individual red blood cells or monolayers of red blood cells; c) the step of illuminating said located fields of view (1,3) in the quiescent blood sample with selected wavelengths of light so as to differentially highlight any remnants of nucleated material in reticulocytes in said located fields of view (1,3); and d) the step of enumerating any reticulocytes in said fields of view (1,3); wherein: the chamber thickness increases from the thinnest region so as to form progressively thicker regions (B, C) in the chamber; the through plane thickness of the thinnest region of the chamber is between two and seven microns; and wherein the chamber has opposite sample-containment walls (4,8), and the term "through plane" refers to a line of sight which corresponds to the shortest distance between the walls (4,8) in a given region of the chamber. a) the step of scanning the blood sample with an optical instrument having a field of view (7', 7, 9, 11); b) the step of locating fields of view in said quiescent blood sample which fields of view (1, 3) are in the thinnest region of the chamber which is sized to contain individual red blood cells or monolayers of red blood cells; c) the step of illuminating said located fields of view (1,3) in the quiescent blood sample with selected wavelengths of light so as to differentially highlight any remnants of nucleated material in reticulocytes in said located fields of view (1,3); and d) the step of enumerating any reticulocytes in said fields of view (1,3); the chamber thickness increases from the thinnest region so as to form progressively thicker regions (B, C) in the chamber; the through plane thickness of the thinnest region of the chamber is between two and seven microns; and wherein the chamber has opposite sample-containment walls (4,8), and the term "through plane" refers to a line of sight which corresponds to the shortest distance between the walls (4,8) in a given region of the chamber.
Light-emitting diode chip with - a semiconductor body which comprises a radiation-generating active region, - at least two contact points (2a, 2b) for electrically contacting the active region, - a carrier, and - a bonding agent which is arranged the between the carrier and the semiconductor body, - the semiconductor body having a roughening on the outer faces thereof which face the carrier, - the roughening having projections and depressions, - the semiconductor body being mechanically connected to the carrier by means of the bonding agent, - the bonding agent being in places in direct contact with the semiconductor body and the carrier, - the at least two contact points (2a, 2b) being arranged on the topside of the semiconductor body remote from the carrier, - the bonding agent being an electrically insulating adhesive, and - the bonding agent being radiation-transmissive, characterized in that - the semiconductor body is in places in direct contact with the carrier, and - the bonding agent is arranged at least in places in the depressions and tips of the projections are in places free of the bonding agent. - a semiconductor body which comprises a radiation-generating active region, - at least two contact points (2a, 2b) for electrically contacting the active region, - a carrier, and - a bonding agent which is arranged the between the carrier and the semiconductor body, - the semiconductor body having a roughening on the outer faces thereof which face the carrier, - the roughening having projections and depressions, - the semiconductor body being mechanically connected to the carrier by means of the bonding agent, - the bonding agent being in places in direct contact with the semiconductor body and the carrier, - the at least two contact points (2a, 2b) being arranged on the topside of the semiconductor body remote from the carrier, - the bonding agent being an electrically insulating adhesive, and - the bonding agent being radiation-transmissive, characterized in that - the semiconductor body is in places in direct contact with the carrier, and - the bonding agent is arranged at least in places in the depressions and tips of the projections are in places free of the bonding agent.
A packet conversion device, in particular a MP-DCCP Proxy (110,150), for enabling transport of multipath DCCP data traffic in a communication network between a sender and a receiver, comprising: • a first single path interface (115,175) being arranged for data packet transmission over one communication path or a first multipath interface being arranged for data packet transmission over at least two communication paths; wherein the data traffic transmitted over the first single path interface or the first multipath interface is non-MP-DCCP data traffic; • a second multipath interface (120,155) being arranged for data packet transmission over at least two communication paths; wherein the data traffic transmitted over the second multipath interface is MP-DCCP data traffic; a packet conversion module being arranged to convert non-MP-DCCP data traffic to MP-DCCP data traffic according to a protocol conversion and/or to convert MP-DCCP data traffic to non-MP-DCCP data traffic according to a further protocol conversion for further transmission, wherein the packet conversion device is configured to perform a coordinated connection establishment between the sender and the receiver, wherein the packet conversion device is configured to perform a three way handshake with each of the sender and the receiver. • a first single path interface (115,175) being arranged for data packet transmission over one communication path or a first multipath interface being arranged for data packet transmission over at least two communication paths; wherein the data traffic transmitted over the first single path interface or the first multipath interface is non-MP-DCCP data traffic; • a second multipath interface (120,155) being arranged for data packet transmission over at least two communication paths; wherein the data traffic transmitted over the second multipath interface is MP-DCCP data traffic; a packet conversion module being arranged to convert non-MP-DCCP data traffic to MP-DCCP data traffic according to a protocol conversion and/or to convert MP-DCCP data traffic to non-MP-DCCP data traffic according to a further protocol conversion for further transmission, wherein the packet conversion device is configured to perform a coordinated connection establishment between the sender and the receiver, wherein the packet conversion device is configured to perform a three way handshake with each of the sender and the receiver. a packet conversion module being arranged to convert non-MP-DCCP data traffic to MP-DCCP data traffic according to a protocol conversion and/or to convert MP-DCCP data traffic to non-MP-DCCP data traffic according to a further protocol conversion for further transmission, wherein the packet conversion device is configured to perform a coordinated connection establishment between the sender and the receiver, wherein the packet conversion device is configured to perform a three way handshake with each of the sender and the receiver.
A pharmaceutical composition for use in preventing or treating neurodegenerative diseases, comprising graphene quantum dots as an active ingredient, wherein the graphene quantum dots have a size in the range of from 1 nm to 20 nm.
A radiating element board for use in a passive antenna, the radiating element board comprising a plurality of multi-layer radiating elements, each of which comprises: a first patch provided on a first layer for receiving signals within a first frequency band; and a second patch provided on a second layer for receiving signals within a second frequency band, wherein the plurality of radiating elements are arranged on the radiating element board such that each radiating element is sequentially rotated a predetermined angle from its neighbouring element, all elements being rotated in the same direction and in the same plane, wherein each patch is short-circuited to ground along an edge of the patch so that multi-band radiation can only escape from a virtual slot provided substantially along the opposite edge of the corresponding patches; characterised in that each patch (11,12) has serrated teeth provided along a first edge opposite the edge short-circuited to ground for broadband and tuning purposes. a first patch provided on a first layer for receiving signals within a first frequency band; and a second patch provided on a second layer for receiving signals within a second frequency band, wherein the plurality of radiating elements are arranged on the radiating element board such that each radiating element is sequentially rotated a predetermined angle from its neighbouring element, all elements being rotated in the same direction and in the same plane, wherein each patch is short-circuited to ground along an edge of the patch so that multi-band radiation can only escape from a virtual slot provided substantially along the opposite edge of the corresponding patches; characterised in that each patch (11,12) has serrated teeth provided along a first edge opposite the edge short-circuited to ground for broadband and tuning purposes.
An arrangement of cinemas in multiplex cinemas, comprising: at least one first row of contiguous cinemas provided with a projection screen and with stadium-type seating arranged on an inclined surface; wherein the cinemas of the first row have a trapezoidal layout with: a larger end where the projection screen is arranged, a smaller end, and two oblique sides (13, 14), said cinemas being attached to one another by their sides and with their larger and smaller ends (11, 12) oriented in opposite directions with respect to said ends of the contiguous cinema or cinemas of the same row.
A method comprising: receiving a packet at a line card of a router, the packet conforming to one of a first addressing scheme or a second addressing scheme; passing the packet to a fabric module of the router, the fabric module comprising a routing engine, the routing engine comprising a first fabric module processor storing routes to route packets conforming to the first addressing scheme and a second fabric module processor storing routes to route packets conforming to the second addressing scheme; when the packet conforms to the first addressing scheme and is received at the first fabric module processor, performing routing on the packet by the first fabric module processor and switching the packet to the second fabric module processor for forwarding back to the line card or another line card, and when the packet conforms to the second addressing scheme and is received at the first fabric module processor, switching the packet to the second fabric module processor and performing routing on the first packet by the second fabric module processor, and forwarding the packet to the line card or the another line card, further comprising switching the packet between the first fabric module processor and the second fabric module processor via a trunk line. receiving a packet at a line card of a router, the packet conforming to one of a first addressing scheme or a second addressing scheme; passing the packet to a fabric module of the router, the fabric module comprising a routing engine, the routing engine comprising a first fabric module processor storing routes to route packets conforming to the first addressing scheme and a second fabric module processor storing routes to route packets conforming to the second addressing scheme; when the packet conforms to the first addressing scheme and is received at the first fabric module processor, performing routing on the packet by the first fabric module processor and switching the packet to the second fabric module processor for forwarding back to the line card or another line card, and when the packet conforms to the second addressing scheme and is received at the first fabric module processor, switching the packet to the second fabric module processor and performing routing on the first packet by the second fabric module processor, and forwarding the packet to the line card or the another line card, further comprising switching the packet between the first fabric module processor and the second fabric module processor via a trunk line.
A crane control with active heave compensation for a crane arranged on a floating body, which includes a hoisting gear for lifting a load hanging on a rope, comprising a measuring device, which determines a current heave movement from sensor data, a prediction device, which determines the prevailing modes of the heave movement from the data of the measuring device, and creates a heave model using the prevailing modes determined and predicts a future vertical movement of the load suspension point with reference to the current heave movement determined and the model of the heave movement, and a path control of the load, which by actuating the hoisting gear of the crane on the basis of the predicted movement of the load suspension point at least partly compensates the movement of the load caused by the sea waves.