mhurhangee/ep-ind-claims huggingface dataset:
An additive concentrate comprising a functionalised diblock copolymer in admixture with an organic liquid miscible with fuel or oil, the copolymer comprising two polymeric blocks wherein: (i) the first block consists of a chain of ethylenic structural units, optionally interrupted by one or more structural units derived from 1-alkene co-monomers higher than ethylene, and (ii) the second block comprises a chain of structural units derived from one or more α,β - unsaturated monomers selected from styrene, substituted styrene, acrylate, methacrylate, diene compounds, vinyl esters, fumarate esters and maleic anhydride and wherein said first and second blocks are terminally joined such that the copolymer has the following structure: wherein each R group independently represents an alkyl or aryl group, and wherein the aromatic ring substituent joined to the second block is positioned meta or para to the aromatic ring substituent joined to the first block. (i) the first block consists of a chain of ethylenic structural units, optionally interrupted by one or more structural units derived from 1-alkene co-monomers higher than ethylene, and (ii) the second block comprises a chain of structural units derived from one or more α,β - unsaturated monomers selected from styrene, substituted styrene, acrylate, methacrylate, diene compounds, vinyl esters, fumarate esters and maleic anhydride and wherein said first and second blocks are terminally joined such that the copolymer has the following structure: wherein each R group independently represents an alkyl or aryl group, and wherein the aromatic ring substituent joined to the second block is positioned meta or para to the aromatic ring substituent joined to the first block.
A tunneling device for creating a pathway in subcutaneous tissue of a person's body, said tunneling device comprising: a malleable member for creating the pathway; and two ends (204a, 204b) including an attachment end and an insertion end, the insertion end defining an insertion surface that facilitates the insertion of the insertion end into the subcutaneous tissue of the person's body; and an interchangeable handle connectable to each of said ends (204a, 204b), said handle defining a grasping surface and an opening, said opening configured to receive either of said ends (204a, 204b), said handle enabling a user to turn the tunneling device; characterized in that the malleable member has a plurality of alternating sections including a first section and a second section adjoining the first section, the first section including a diameter greater than a diameter of the second section, the arrangement of alternating diameters providing sufficient flexibility to the tunneling device to enable the user to bend the tool into different shapes as necessary to provide a flexibility to the member for creating the pathway. a malleable member for creating the pathway; and two ends (204a, 204b) including an attachment end and an insertion end, the insertion end defining an insertion surface that facilitates the insertion of the insertion end into the subcutaneous tissue of the person's body; and an interchangeable handle connectable to each of said ends (204a, 204b), said handle defining a grasping surface and an opening, said opening configured to receive either of said ends (204a, 204b), said handle enabling a user to turn the tunneling device; characterized in that the malleable member has a plurality of alternating sections including a first section and a second section adjoining the first section, the first section including a diameter greater than a diameter of the second section, the arrangement of alternating diameters providing sufficient flexibility to the tunneling device to enable the user to bend the tool into different shapes as necessary to provide a flexibility to the member for creating the pathway.
A method of handling handover for a network of a wireless communication system, wherein a user equipment, UE, is connected to at least one first cell of a master base station and at least one second cell of a secondary base station of the network, the method comprising: when the master base station decides to hand over the UE to a target master base station of the network, transmitting, by the master base station, a first message to the secondary base station to instruct the secondary base station to release the at least one second cell after the master base station receives a handover request acknowledgement message from the target master base station and before the master base station transmits a handover command to the UE wherein the handover command instructs the UE to hand over to the target master base station and remove the at least one second cell of the secondary base station, wherein the handover request acknowledgement message is transmitted in response to a handover request that the master base station sent to the target master base station. when the master base station decides to hand over the UE to a target master base station of the network, transmitting, by the master base station, a first message to the secondary base station to instruct the secondary base station to release the at least one second cell after the master base station receives a handover request acknowledgement message from the target master base station and before the master base station transmits a handover command to the UE wherein the handover command instructs the UE to hand over to the target master base station and remove the at least one second cell of the secondary base station, wherein the handover request acknowledgement message is transmitted in response to a handover request that the master base station sent to the target master base station.
Electro-optical rangefinder, in particular for a laser scanner, laser tracker, profiler, theodolite or a total station, comprising at least: • light emission means for emitting at least one light signal, in particular for emitting a pulsed light signal, • a receiver for detecting the light signal scatted back from a target object, and • a control and evaluation component for determining a distance to the target object, in particular wherein the determination is based upon the pulse time-of-flight measurement method, wherein the light emission means comprise at least • a primary light source and • an optical amplifier disposed downstream of the primary light source, wherein an actively pumped medium of the optical amplifier serves as a light amplifier without a resonator, in particular wherein the optical amplifier is provided and embodied precisely to be operated with a modulation sequence with a short and/or long duty cycle, characterized in that the primary light source is a spectrally broadband light source. • light emission means for emitting at least one light signal, in particular for emitting a pulsed light signal, • a receiver for detecting the light signal scatted back from a target object, and • a control and evaluation component for determining a distance to the target object, in particular wherein the determination is based upon the pulse time-of-flight measurement method, • a primary light source and • an optical amplifier disposed downstream of the primary light source, wherein an actively pumped medium of the optical amplifier serves as a light amplifier without a resonator, in particular wherein the optical amplifier is provided and embodied precisely to be operated with a modulation sequence with a short and/or long duty cycle,
An array of notch elements on a substrate for an array antenna, each notch element of the array being formed on the substrate, each notch element comprising a first region and a second region, wherein the first region is adjacent to an edge of the substrate and is shaped as a symmetrical polygon having an axis of symmetry normal to the edge of the substrate, and wherein the first regions of notch elements that are situated directly adjacent to one another being contiguous to provide a continuous first region adjacent the edge of the substrate; characterised in that the first region has a dimension parallel to the edge which is greater than its dimension normal to the edge.
Silicon oxide-coated zinc oxide formed by coating surfaces of zinc oxide particles with a silicon oxide coating, wherein the amount of silicon oxide in the silicon oxide-coated zinc oxide is 12% by mass or more, an average primary particle diameter of the zinc oxide particles is more than 50 nm and 500 nm or less, the average primary particle diameter of the zinc oxide particles is a weight-averaged value of a primary particle diameter measured using a transmission electron microscope, and when held in a buffer solution having a pH of 5 for 1 hour, an elution ratio S of the zinc oxide defined by following Expression is 50% or less: Elution ratio S = amount of eluted zinc oxide / amount of zinc oxide in silicon oxide-coated zinc oxide
A power detector for detecting the output power of a satellite indoor unit configured to be connected to a satellite outdoor unit by a cable, comprising: a filter for substantially isolating radio frequency signals transmitted from the satellite indoor unit to the satellite outdoor unit at a termination point of the cable that connects the cable to the satellite outdoor unit; an RF detector configured to detect the RF signals; and a microcontroller, the microcontroller including an analog to digital converter module for converting the detected RF signals into voltage data, the microcontroller further storing the voltage data and transmitting the voltage data via a digital satellite equipment control (DISEqC) interface of an antenna pointing tool to the satellite indoor unit for adjustment of the satellite indoor unit output power to avoid compression at the satellite outdoor unit, wherein the power detector is a component of the antenna pointing tool, and wherein the antenna pointing tool is configured to be inserted in-line with the cable between the indoor unit and outdoor unit. a filter for substantially isolating radio frequency signals transmitted from the satellite indoor unit to the satellite outdoor unit at a termination point of the cable that connects the cable to the satellite outdoor unit; an RF detector configured to detect the RF signals; and a microcontroller, the microcontroller including an analog to digital converter module for converting the detected RF signals into voltage data, the microcontroller further storing the voltage data and transmitting the voltage data via a digital satellite equipment control (DISEqC) interface of an antenna pointing tool to the satellite indoor unit for adjustment of the satellite indoor unit output power to avoid compression at the satellite outdoor unit, wherein the power detector is a component of the antenna pointing tool, and wherein the antenna pointing tool is configured to be inserted in-line with the cable between the indoor unit and outdoor unit.
A method for forming a double-sided loop strap (100,100',100",100"',200), the method comprising: receiving a continuous longitudinal strip of loop material (108,208a) comprising a strip-form base (114,214a) bearing a field of upstanding loops (106,206a) on a fastening side of the strip bounded by opposite longitudinal edges (110,210a); folding each of the longitudinal edges (110,210a) away from the fastening side, such that the base (114,214a) overlaps itself; and securing the folded edges (110,210a) in place by permanently bonding together overlapped areas of the base (114,214a) to form the double-sided loop strap (100,100',100",100"',200), wherein the bonding forms discrete bonded regions of the base (114, 214a) surrounded by unbonded area, the bonded regions including a row of the bonded regions (118a, 118a"',218a) extending along and overlapping at least one of the folded edges, and a pattern of bonded regions (118b,118b',118b",218b) surrounded by engageable loops (106,206a) on either side of the strap. receiving a continuous longitudinal strip of loop material (108,208a) comprising a strip-form base (114,214a) bearing a field of upstanding loops (106,206a) on a fastening side of the strip bounded by opposite longitudinal edges (110,210a); folding each of the longitudinal edges (110,210a) away from the fastening side, such that the base (114,214a) overlaps itself; and securing the folded edges (110,210a) in place by permanently bonding together overlapped areas of the base (114,214a) to form the double-sided loop strap (100,100',100",100"',200), wherein the bonding forms discrete bonded regions of the base (114, 214a) surrounded by unbonded area, the bonded regions including a row of the bonded regions (118a, 118a"',218a) extending along and overlapping at least one of the folded edges, and a pattern of bonded regions (118b,118b',118b",218b) surrounded by engageable loops (106,206a) on either side of the strap.
- A method for continuously producing a pattern which is either discontinuous or continuous and openwork at the surface of a flexible substrate, comprising a step of forming a primary pattern by means of an operation of coating said substrate with a hot melt composition that is in the molten state, said coating operation being performed by transfer of said composition in the molten state to said substrate by means of an engraved cylinder by direct transfer from the engraved cylinder to the substrate, characterized in that said composition is a reactive polyurethane composition that is moisture crosslinkable to form a thermosetting polyurethane, said substrate comprises a fabric which is porous to moisture and to said moisture crosslinkable reactive polyurethane composition when the latter is in the molten state, said coating operation is performed directly on said fabric, said composition penetrating at least in part the thickness of the latter, and in that said method comprises, after said coating operation, a step of moisture crosslinking the composition forming the primary pattern to obtain a secondary pattern made of thermosetting polyurethane, the surface of the primary pattern that is not in contact with the substrate remaining free during said crosslinking step.
A fibrous polymer material, comprising: - a first layer of aligned fibroin fiber; - a second layer of fibroin fibers, wherein the fibroin fibers are randomly oriented within said second layer; - a third layer of aligned fibroin fibers. - a first layer of aligned fibroin fiber; - a second layer of fibroin fibers, wherein the fibroin fibers are randomly oriented within said second layer; - a third layer of aligned fibroin fibers.
A ligand comprising an antibody single variable domain, wherein said antibody single variable domain comprises the amino acid sequence of dAb7h14 having the amino acid sequence set out in Figure 24, Sheet 1, or an amino acid sequence that is at least 95% identical thereto, wherein the T beta half life of the single variable domain in cynomolgus is at least 50% of the T beta half life of cynomolgus serum albumin in cynomolgus.
A data centre network, comprising: a first group of optical ports for connection to respective servers of a first group of servers; a second group of optical ports for connection to respective servers of a second group of servers; a first passive optical routing element (120; 121, 122) arranged to route optical communication signals between the first group of optical ports and a first optical communication path; a second passive optical routing element (120; 121, 122) arranged to route optical communication signals between the second group of optical ports and a second optical communication path; characterised by further comprising: an upper passive optical routing element arranged to: (i) route optical communication signals between the first optical communication path and an upper optical communication path, and (ii) route optical communication signals between the second optical communication path and the upper optical communication path. an inter-group passive optical communication path between the servers of the first group and the servers of the second group, wherein the inter-group passive optical communication path includes the first and second passive optical routing elements, but excludes the upper passive optical routing element. a first group of optical ports for connection to respective servers of a first group of servers; a second group of optical ports for connection to respective servers of a second group of servers; a first passive optical routing element (120; 121, 122) arranged to route optical communication signals between the first group of optical ports and a first optical communication path; a second passive optical routing element (120; 121, 122) arranged to route optical communication signals between the second group of optical ports and a second optical communication path; characterised by further comprising: an upper passive optical routing element arranged to: (i) route optical communication signals between the first optical communication path and an upper optical communication path, and (ii) route optical communication signals between the second optical communication path and the upper optical communication path. (i) route optical communication signals between the first optical communication path and an upper optical communication path, and (ii) route optical communication signals between the second optical communication path and the upper optical communication path.
A method of controlling a transport vehicle to bring the transport vehicle into alignment with a harvester for unload on the go operation, the method comprising the steps of: determining a position for the transport vehicle; determining an active swath for the harvester; calculating for the transport vehicle an adjusted swath which is parallel to and offset from the active swath by a the- required lateral distance or lateral offset parameter, based on the active swath for the harvester; calculating a trajectory for the transport vehicle to travel from the determined position of the transport vehicle to the adjusted swath, the trajectory including a straight line component and an arc component, the arc component being tangent to both the straight line component and the adjusted swath; and controlling the transport vehicle to follow the calculated trajectory with commands from a controller. determining a position for the transport vehicle; determining an active swath for the harvester; calculating for the transport vehicle an adjusted swath which is parallel to and offset from the active swath by a the- required lateral distance or lateral offset parameter, based on the active swath for the harvester; calculating a trajectory for the transport vehicle to travel from the determined position of the transport vehicle to the adjusted swath, the trajectory including a straight line component and an arc component, the arc component being tangent to both the straight line component and the adjusted swath; and controlling the transport vehicle to follow the calculated trajectory with commands from a controller.
A method for manufacturing an optical sensor for sensing a parameter, said method comprising the steps of: a) providing an optical element of similar transversal dimensions than a lead optical fiber, said optical element being composed of a single piece of a length of optical fiber having a core and a cladding and having a first and a second end (55, 57); b) shaping the first end of the optical element to define a cavity therein opened on said first end; c) permanently joining said first end of the optical element to a forward end of the lead optical fiber so that said optical element is supported by said lead optical fiber and projects strictly forward therefrom; and d) shaping the second end of said optical element to define a diaphragm extending across said cavity, said diaphragm being flexible in response to said parameter, said diaphragm defining a first reflector of a sensing Fabry-Perot resonator within said optical sensor. a) providing an optical element of similar transversal dimensions than a lead optical fiber, said optical element being composed of a single piece of a length of optical fiber having a core and a cladding and having a first and a second end (55, 57); b) shaping the first end of the optical element to define a cavity therein opened on said first end; c) permanently joining said first end of the optical element to a forward end of the lead optical fiber so that said optical element is supported by said lead optical fiber and projects strictly forward therefrom; and d) shaping the second end of said optical element to define a diaphragm extending across said cavity, said diaphragm being flexible in response to said parameter, said diaphragm defining a first reflector of a sensing Fabry-Perot resonator within said optical sensor.
A coating for a medical device, comprising: a base coating layer comprising a polyurethane; a top coating layer disposed on the base coating layer, said top coating layer comprising a toughening polymer comprising an acrylate polymer and a hydrophilic lubricative polymer, wherein the lubricative polymer comprises a salt monomer, and wherein the toughening polymer and lubricative polymer are present within the top coating layer as a semi-interpenetrating network. a base coating layer comprising a polyurethane; a top coating layer disposed on the base coating layer, said top coating layer comprising a toughening polymer comprising an acrylate polymer and a hydrophilic lubricative polymer, wherein the lubricative polymer comprises a salt monomer, and wherein the toughening polymer and lubricative polymer are present within the top coating layer as a semi-interpenetrating network.
A method of predicting the level of response to treatment with growth hormone in an individual having Growth Hormone Deficiency, the method comprising the steps of: a. identifiying that the individual has - genotype AA in cyclin-dependent kinase 4 _rs2270777; or - allele A in leptin receptor (LEPR)_rs970467: b. identifying insulin-like growth factor I (IGF-I) standard deviation score at treatment baseline ("IGF-I_SDS_B"); c. setting the treatment adherence in percent of expected doses/planned doses during the first month of treatment ("adherence"); d. measuring the weight SDS at treatment baseline ("bl_wt SDS"); e. setting the average growth hormone dose prescribed in μg/kg body weight/day ("dose"); f. providing the age in years ("age"); and g. calculating the predicted IGF-I SDS after one month of treatment with growth hormone as IGF-I_SDS_1M = - 4.7265 + (0.7065 × IGF-I_SDS_B) + (0.0423 × "adherence") + (0.2446 × bl_wt SDS) + (0.0402 × "dose") + (0.057 × "age"), wherein the predicted level of response is used to optimize an adherence and treatment plan, provided that all identification and measuring steps are performed in vitro. a. identifiying that the individual has - genotype AA in cyclin-dependent kinase 4 _rs2270777; or - allele A in leptin receptor (LEPR)_rs970467: - genotype AA in cyclin-dependent kinase 4 _rs2270777; or - allele A in leptin receptor (LEPR)_rs970467: b. identifying insulin-like growth factor I (IGF-I) standard deviation score at treatment baseline ("IGF-I_SDS_B"); c. setting the treatment adherence in percent of expected doses/planned doses during the first month of treatment ("adherence"); d. measuring the weight SDS at treatment baseline ("bl_wt SDS"); e. setting the average growth hormone dose prescribed in μg/kg body weight/day ("dose"); f. providing the age in years ("age"); and g. calculating the predicted IGF-I SDS after one month of treatment with growth hormone as IGF-I_SDS_1M = - 4.7265 + (0.7065 × IGF-I_SDS_B) + (0.0423 × "adherence") + (0.2446 × bl_wt SDS) + (0.0402 × "dose") + (0.057 × "age"), wherein the predicted level of response is used to optimize an adherence and treatment plan, provided that all identification and measuring steps are performed in vitro.